Strategic Academic Focusing Initiative

Our faculty-focused development of a strategic academic vision

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Writing and Reading Center

Proposal Status: 
Principal Authors: 

This is a preliminary proposal that is meant to be in support of the Merritt Writing Program proposal which also includes a Writing and Reading Center. I am Dr. Iris D. Ruiz and I am currently a lecturer in the Merritt Writing Program.

 

Executive Summary: 

ABSTRACT:

Supporting writing is an institutional priority, involving the campus community and specialists in composition fields. From its founding, UC Merced’s Hispanic-Serving status and first-generation demographics seemed unusual; it is now clear that we represent the future of research universities. According to the census for the next decade, public research universities should anticipate a rapid diversification of enrollment, with multilingual, underrepresented minority, and first-generation demographics. UC Merced, then, is a test-bed for this emerging enrollment trend, providing a significant research opportunity to identify high-impact practices that ensure student success. A writing center, based in an academic unit, would play a significant role in that research focus.

Initiative Description: 

Like many universities, we face challenges in supporting writing which could be viewed as an opportunity to plan for student success. Based upon the Senate Administration Council on Assessment & Planning AY 2012-13 report of the Committee for the Review of PLO Assessment Reports:"Nearly 33% (8) of the undergraduate program reports identified student writing/composition skills as an area requiring attention.” While these findings have informed the development of a Task Force to address these concerns, these kinds of institutional reports call for a need to further examine communication as a skill priority.

 

Writing, particularly its evaluation and professionalized support, needs to be addressed as UC Merced approaches its second phase of becoming a distinguished Tier 1, Research University. Some of the recommendations for the above report point to a need to have more productive conversations across departments and schools about the nature and value of written communication for all disciplines and majors at UCM. As such, UCM leaders could invest in the development of a Writing and Reading Center. Such a physical space would undoubtedly begin to facilitate such inter-campus conversations. These conversations would further support discipline-specific communication skills, extending existing curriculum in Writing in the Sciences, Writing in the Social Sciences, and Writing in the Humanites. Many of these courses are writing intensive and are completed successfully when evidence shows that a student is able to write well within their particular discipline and even across disciplines. Such a Writing and Reading Center should, thus, be directed by someone who has had experience with not only Writing Across the Curriculum programs, but also experience in working with a range of students coming from a diverse array of cultural and ethnic backgrounds (such as those found on our campus).  The latter suggestion is grounded in the current campus demographics which show that we are the most linguistically diverse campus in the University of California and among one of five HSI research universities in the country. Furthermore, 60% of UCM students speak another language in addition to English. Recent studies have demonstrated linguistic advantages of multilingualism. How might this be the case at our campus with our students? Further, a writing center could provide intensive evaluation of writing skills and needs that could inform academic planning. A writing center also ensures student success at the graduate and postdoctoral levels. Consistent with national statistics, 30% of our graduate student population is international. As graduate success is increasingly defined by publication, it is critical to support writing as a preparing future faculty endeavor. As such, the request for one LPSOE who is a specialist in linguistics and second languages is a most desireable candidate to participate in coordinating a center, collaborating with the Senate on this institutional priority, and training professional tutors. 

 

In the context of a 21st century university that is growing exponentially, it is essential to assess the needs associated with this growth and address them in a way that will facilitate such growth successfully and competitively campus-wide. As the current political climate of education ensues, it is also essential that our campus attends to the demands of accreditation and accountability as Obama's Higher Education Act proposes that government funding of financial aid to public universities will closely relate to servicing the educational needs of our current student population. Since both written communication and information literacy outcomes are on the next WASC accreditation checklist, as core competencies, and findings of the SACAP report point to a need in these areas, it is imperative that campus-wide attention to students' writing, communicative and literacy needs be further strengthened and supported by a Writing and Reading Center. In this space, many of the campus literacy needs can be researched and acted upon in order to provide effective support to students and promote inter-campus facutly involvement. As mentioned eariler, conversations will be encouraged and facilitated by a Writing and Reading Center staff and faculty who serve the needs of both undergraduate researchers and graduate researchers alike. 

 

The Merritt Writing Program Proposal, which included a Writing and Reading Center proposes items that are similar to the following:

 

1. Identify a space for a Writing Center, potentially a collaborative space as a research initiative (e.g. with the library to support information literacy).

2.. Hire Writing Center faculty/staff who have experience in Writing Across the Curriculum programs and experience working with students who possess similar demographic characteristics such as those found here at UC Merced, especially pertaining to the linguisitc diversity of our campus.*

3. Advertise to faculty and students the availability of the Center for various purposes, such as help within their Writing classes and other writing intensive assignments such as those found in, for example, Chemistry Lab Reports. 

4. The proposed faculty to direct this department should be formally educated in the areas of tutor training as well, and professional writing tutors with written communication skills within their respective fields would would make this Center successful and could be possible income resource for prospective students who would work at the Center as Tutors.

5. The Center should espouse a teaching philosophy that is transparent and grounded in pedagogical theory to provide a coherent tutoring experience that is focused and practiced.

6. Such a pedagogical focus could be taught in a course that is designed for student tutors who would be hired by the Center.

7. Last but not least, this Center should operate on a daily basis both physically and digitally. Digital tutoring would also be a feature offered by a successful writing center. 

 

*This proposal contains no "Metrics worksheet" as it intended to directly align with and further support the proposal submitted by the Merritt Writing Program. 

 

Thank you very much for your consideration of this new and exciting possibility,

 

 

 

Dr. Iris D. Ruiz

Lecturer, Merritt Writing Program

Director of the UC Merced Undergraduate Research Journal

Commenting is closed.

Strategic Plan for the Life and Environmental science Bylaw 55 Unit for 2013-2020

Proposal Status: 
Principal Authors: 

Marilyn Fogel, Michael Dawson and LES faculty members

Executive Summary: 

The Life and Environmental Science unit has high potential to promote the interdisciplinary, stated goals of UC Merced of research and teaching. For the 2020 plan, we propose to form the cornerstone of a new School of the Environment with our faculty that currently participate in and are leaders of the Environmental Systems and Quantitative Systems Biology graduate groups. Inherent in this plan is the co-location of our faculty with interested faculty from environmental engineering, management, and ORUs (e.g., UC Natural Reserve scientists and Environmental Analytical Laboratory (EAL)) in a new school and buildings located adjacent to an Experimental Environmental Research Center. We also consider an alternative, innovative strategy to create a School of the Anthropocene, which would be designed to engage colleagues in studies broadly relating to the current geological age, viewed as the period during which human activity has been the dominant influence on climate and the environment.

Initiative Description: 

Strategic Plan for the Life and Environmental science Bylaw 55 Unit for 2013-2020

Principal Author: Marilyn Fogel, Michael Dawson and LES faculty members

 

Current FTE Faculty (2013): 11 not including Moran (starts 7/14) & Sexton (starts 1/14)

FTE Faculty (2015): 15

Projected 2020 FTE Faculty: 20

Current Graduate Students: 25 within ES and QSB graduate groups

Projected 2020 FTE Graduate Students: 60 (Both PhD and Masters)


Executive Summary: The Life and Environmental Science unit has high potential to promote the interdisciplinary, stated goals of UC Merced of research and teaching. For the 2020 plan, we propose to form the cornerstone of a new School of the Environment with our faculty that currently participate in and are leaders of the Environmental Systems and Quantitative Systems Biology graduate groups. Inherent in this plan is the co-location of our faculty with interested faculty from environmental engineering, management, and ORUs (e.g., UC Natural Reserve scientists and Environmental Analytical Laboratory (EAL)) in a new school and buildings located adjacent to an Experimental Environmental Research Center. We also consider an alternative, innovative strategy to create a School of the Anthropocene, which would be designed to engage colleagues in studies broadly relating to the current geological age, viewed as the period during which human activity has been the dominant influence on climate and the environment.

 

Our challenge: Human activities are altering climate from local to global scales, causing extinction and redistributing species, and changing our own habitable environments with possibly cascading effects.  Realizing the humanitarian promise of the grand ideas in the environmental sciences, however, remains a challenge. For example, curing cancer is often associated with biomedical sciences, yet natural or anthropogenic chemicals in the environment cause many cancers.  Similarly, some of the greatest acute threats to human health are emerging infectious diseases of animal origin that may be transmitted to humans (i.e., zoonoses). Climate change affects zoonoses through increased range or abundance of animal reservoirs or insect vectors, and prolonged transmission cycles, resulting in increased incidence of diseases such as hantavirus, Lyme disease, and West Nile virus. Food security may be expected to change due to climate effects on agriculture, an issue of paramount interest to the Central Valley. Water resources will change, due to climate effects on precipitation and snowpack in the Sierra Nevada. Our goal, by building on our strong, established foundation in life and environmental sciences, targets the major issues of our time and of the coming decades and centuries.

 

Who are we? Our relatively small faculty group has these primary characteristics: we study the natural world and how it functions; our work is quantitative and uses state-of-the-art analytical instrumentation; and we are interdisciplinary, both as individual faculty and as a group, with respect to both University collaborators and outside scientists. The current focus of our faculty is on understanding fundamental physical, chemical, and biological processes in the earth system, their interactions, and how California and other ecosystems around the world have responded/are responding to historic and current changes in climate and the environment. We have basically two groups of scientists in our unit: a strong environmental genomics/genetics group (Beman, Blois, Dawson, Forman, Frank, Moran, Sexton) and an active biogeosciences group (Berhe, Fogel, Ghezzehei, Hart, O’Day, Traina). Faculty members of both groups interact on a daily basis, taking advantage of each other’s strengths, laboratories, and perspectives.

 

Where do we fit in? Our group is highly collaborative and interdisciplinary.  We collaborate within LES, with faculty members in other Bylaw 55 units within the School of Natural Science (SNS), and with faculty in other University units. For example, most of the LES faculty participate in and are leaders of the Quantitative Systems Biology (QSB) graduate group; many are leaders in the cross-school Environmental Systems (ES) graduate group.  Many faculty participate in both QSB and ES graduate groups. In addition to the graduate relationships with ES and QSB, most of our faculty are part of the Sierra Nevada Research Institute (SNRI), a cross-campus institute designed to further UC Merced’s impact in California and beyond. Because we actively conduct field research, we also have strong ties to surrounding researchers and potential collaborators in academia, government, and the private sector (e.g., Yosemite National Park, local agricultural industry).  Although the size of the LES faculty is relatively small compared to other competitive departments in the UC system, we have leveraged our impact by aligning with larger, interdisciplinary groups on UC Merced’s campus.

 

Where do we want to go? Despite constraints on the growth of the physical campus between now and 2020, our strategic plan goes beyond maintaining our interdisciplinary, cross-campus mode by both strengthening it and by taking our group and UC Merced to the next level. This includes starting a School of the Environment (SOEnv). A school of this breadth would include faculty from LES, the environmental engineers (SOE), environmental policy, economics, resource management, and public/environmental health faculty, along with SNRI, the two natural reserves (Yosemite and Vernal Pools Grasslands), the EAL, and the proposed National Parks Institute, all of which would benefit from a new cluster of buildings that supports current research and catalyzes new areas. The ES graduate group would be administered through this new School. Most mature research universities have taken this approach: University of Washington recently combined disparate departments, schools, and labs into a ‘College of the Environment’, for example, while UC Berkeley’s College of Natural Resources is the oldest college in the UC system and has been sustained for nearly 150 years.  Both physical integration and administrative unification through this new School would create a hub for research and solutions to environmental problems in the Central Valley, including air quality, pollution, water and soil sustainability, emerging diseases and contaminants, and managing impacts of climate change.

 

A landmark, bold move for LES and appropriate for UC Merced could take this plan a step further, that is to establish a School of the Anthropocene that leverages the interdisciplinary goals of UC Merced and innovates within the UC System, nationally, and internationally to meet our three interlocking missions: to teach, do research, and provide public service[1]. For the 2020 plan, this vision includes cornerstones from undergraduate and graduate biological and Earth Sciences—both broadly conceived and egalitarian with disciplines that traditionally may not be implied by these descriptors—and addresses the human endeavor in the coming century. This idea is as much an invitation to, as it is a proposal from, colleagues to enhance existing and imagine new linkages at UC Merced to address major challenges to human prosperity governed reciprocally by the health of and interactions among diverse facets of our planet.  Inherent in this plan is the co-location of faculty, students, and partners across a network of facilities on campus and in surrounding areas, including natural resources, built environment, and human capital. 

 

What do we need for 2020? A new School of the Environment (Anthropocene) (SOEnv/A) would require its own physical resources, which could be built as the campus develops from 2014 to 2020. Ideally, faculty and students in the new SOEnv/A would be co-located within a new building or cluster of buildings, optimizing joint use of already-shared instruments.  This would allow us to carry out proposals already on the table and leverage extramural funding. For example, a proposal has been presented to campus leadership and planners to build an Integrated Environmental Research facility, which would include greenhouses. Such a facility is integral to carrying out the type of research required to support faculty in the plant and soil sciences, a majority of the current LES group and fields of study which are at the heart of any environmental studies program.  This facility, while expensive, need not be housed in a formal campus building, but could form the start of the proposed campus build out to the east of Lake Rd. LES faculty members would administer the operation of this facility, while attracting faculty from environmental engineering and other potential collaborators, such as regional Yosemite National Park scientists, who lack greenhouse access yet critically need experimental space to study threatened, or endangered, organisms. We also envision a shared environmental genomics facility that would provide efficient and scalable space for our research, as well as for visiting researchers from Yosemite and elsewhere.  Many of us use similar molecular and next-gen DNA sequencing approaches that are simply applied to different study systems, organisms, and genes.  We are unaware of dedicated facilities of this kind elsewhere in the UC system, but such a facility provides an opportunity to co-locate research infrastructure, laboratory work, and personnel to maximize efficiency and ideation.

 

What are our space needs? We require high-performance analytical laboratory space (i.e., one pass air, fume hoods, access to services, emergency backup power) for housing the stable isotope biogeochemistry laboratory, the soil physics and chemistry laboratories, and the EAL (40%). UC Merced has the opportunity to build on its ancient DNA capabilities, which require specifically designed laboratory space. Environmental genomics faculty requires a combination of wet and dry lab space including clean rooms for sensitive analyses (30%). Space for sample preparation of soils, plants, rocks, and other materials is needed to separate this activity from contaminating our analytical and genomics laboratories (10%). Last, LES faculty will include ecological and climate modelers, and faculty who mix experimental and computational studies, who need dry laboratory space for computing and engagement (20%). Shared office space and collaborative working space for graduate students, postdoctoral scholars, and research staff is a critical need. An environmental research facility, including greenhouses, is required to complement these space needs.

 

How do we get there? In the phase prior to the completion of new campus research laboratories in 2020, the current LES group should be co-located sensibly in either SE1 or SE2. Given that almost 50% of our current faculty are housed in the off-campus Castle research labs, yet our primary scholarship within the ES graduate group is highly interdisciplinary, it makes good sense to immediately co-locate the LES faculty in SE2 with the environmental engineering faculty, rather than infill the spaces vacated by SOE faculty in biological engineering. Co-location would accomplish two goals: maintenance of the coherence of LES faculty and assurance of LES’s continued role at UC Merced as one of the most interdisciplinary units on campus. As the 2020 plan unrolls, LES faculty would be in a leadership position to plan the new School and form the cornerstone of the academic program (see also the ES Graduate Plan for further ideas.)

 

What are we doing now? This current academic year, we have two faculty searches taking place, which we’ve coordinated with the Environmental Engineering faculty search as a cluster hire in Global Change Science. It is a goal of the ES graduate group and the LES unit to increase our intellectual footprint in this field in the 2020 timeframe. Much of our current research incorporates Global Change and Sustainability Science and has left us well-positioned in this developing field—for example, LES faculty have already received several large grants from the National Science Foundation’s Science, Engineering and Education for Sustainability (SEES) portfolio. To continue to carry out this vision, we will need to continue to add faculty who have the ability, interest, and time to work across the broad field of environmental science. Our newest hires will be scientists with primarily computational space requirements, because wet lab space is limited.  As cutting edge field and lab expertise is a cornerstone of environmental and global change science and education, this strategy can only work for a few years, making it difficult to recruit the best candidates. Therefore we must be aggressive in building high-end experimental laboratory space to attract the most desirable candidates to grow our program.

 

What is our “solution” to moving forward? To address this shortage of high performance laboratory space in the next 2-3 years, the LES faculty along with their colleagues in the ES graduate group could “do more with less” if we were given the opportunity to co-locate our research laboratories, economize and strategize on space, while continuing to attract and hire new laboratory-based faculty.

 

What will our student body look like in 2020? The LES bylaw unit administers two majors at UC Merced, both of which currently enroll about 40-45 students in each: 1) Earth Systems Science (ESS) and 2) the Ecology and Evolutionary Biology (EEB) emphasis track within Biological Sciences. The LES faculty also shares the responsibility for providing requisite classes for all BIO majors (approx. 1300 students). The LES faculty also deliver a large fraction of courses that fulfill the general education science requirement for SSHA students. We also have an Earth Systems and Sustainability minor with about 20-25 current students. In the next 2 academic years, the LES faculty is committed to increasing enrollment in our two majors to at least 1% of UC Merced undergraduates: about 60-80 students each in ESS and EEB. We have developed a roadmap for attracting more students, revamping requirements for the major, and promoting our broad program. In order to carry out this plan, we will be recruiting students who are currently Undeclared SNS students and undeclared Biology students. By expanding our undergraduate programs from these pools, we will help relieve the some of the burden on the MCB bylaw unit that administers most of the 1300 Biology majors. The LES faculty believe that increasing our majors, and decreasing theirs, will result in a more competitive, higher quality student body.

 

How do we stack up with other UC campuses? Each UC campus has major players in the field of environmental sciences; the smaller, newer campuses, like Santa Cruz and Riverside, have full-blown science departments (and buildings) for disciplines like chemistry, physics, math, and biology. At the current rate of campus development (including the 2020 plan), we can only compete with them if we propose something different such as the interdisciplinary School of the Environment/Anthropocene. Our vision is to support our current faculty, provide them with the best resources and laboratories that UC Merced can; co-locate us with faculty from other departments, schools, and institutes already on campus; allow us to hire and grow, in our small unit as well as within the larger interdisciplinary grad groups, and to build momentum that will allow this group to coalesce into a new School as the 2020 plan rolls out.

 

UC Merced will likely never compete with big UC campuses (e.g. Berkeley has over 45 ecologists on their faculty) in terms of breadth and depth, but it could complement them and support, attract, and retain a faculty highly interdisciplinary in nature and committed to the future.  Our faculty and grad students are substantially contributing to understanding the problems and proposing solutions to the environmental issues facing the state of California. We propose to do more with less and truly distinguish UC Merced by being innovative, timely, and speaking broadly to developers, the general public, politicians, and scholars with an new, interdisciplinary School, recognizing the inseparable link between human impacts on the world and the world’s provisions for humans.

Impact Metrics: 

Commenting is closed.

Center for Human Adaptive Systems and Environments (CHASE)

Proposal Status: 
Principal Authors: 

Ramesh Balasubramaniam (Director).

CHASE Exploratory committee: David Ardell (Quantitative & Systems Biology: QSB), YangQuan Chen (Mechanical Engineering), Paul Maglio (Management), Suzanne Sindi (Applied Mathematics: AM), Chris Kello, Teenie Matlock & Michael Spivey (Cognitive & Information Sciences: CIS).

Other participants: Stefano Carpin, Marcelo Kallman (Electrical Engineering & Computer Science: EECS), Arnold Kim, Harish Bhat (AM), Rick Dale, Anne Warlaumont, David Noelle, Jeff Yoshimi, Peter Vanderschraaf, Anthony Westerling (CIS), Fred Wolf (QSB), Mark Aldenderfer (Anthropology, SSHA), Ajay Gopinathan (Physics)

Executive Summary: 

CHASE is a planned Organized Research Unit (ORU) that will include faculty members across all schools and diverse academic units at UC Merced. CHASE's vision is to create a leading-edge comprehensive environment for research, educational and public outreach activities in the area of human adaptive systems and environments. The broad research mission of CHASE is to discover, comprehend, and communicate the unifying principles of human adaptive systems and environments as complex physical, computational, biological, and social systems across multiple spatial and temporal scales. CHASE will provide a platform to target large government and industry funding to achieve research/educational goals not possible within traditional by-law units and graduate groups alone. Here we provide a brief plan for how CHASE will develop and grow over the next few years and show how this plan of growth is commensurate with that of UC Merced.

Initiative Description: 

Center for Human Adaptive Systems and Environments (CHASE) Ramesh Balasubramaniam (Director). CHASE Exploratory committee: David Ardell (Quantitative & Systems Biology: QSB), YangQuan Chen (Mechanical Engineering), Paul Maglio (Management), Suzanne Sindi (Applied Mathematics: AM), Chris Kello, Teenie Matlock & Michael Spivey (Cognitive & Information Sciences: CIS). Other participants: Stefano Carpin, Marcelo Kallman (Electrical Engineering & Computer Science: EECS), Arnold Kim, Harish Bhat (AM), Rick Dale, Anne Warlaumont, David Noelle, Jeff Yoshimi, Peter Vanderschraaf (CIS), Fred Wolf (QSB). Executive Summary of Intiative: CHASE is a planned Organized Research Unit (ORU) that will comprise several faculty members across all schools and diverse academic units at UC Merced. CHASE's vision is to create a leading-edge comprehensive environment for research, educational and public outreach activities in the area of human adaptive systems and environments. The mission of CHASE is to discover, comprehend, and communicate the unifying principles of human adaptive systems and environments as complex physical, computational, biological, and social systems across multiple spatial and temporal scales. CHASE will provide a platform to target large government and industry funding and achieve research goals not possible within traditional by-law units and graduate groups alone. We provide a plan for how CHASE will develop and grow over the next few years commensurate with the growth of UC Merced. We make the case for how these goals can be expanded through the initiative in computation and data science. Intellectual Components of the Initiative: CHASE will house research on adaptive systems comprised of human behaviors that are fundamentally intertwined with their environments. These systems are inherently spatial and multi-scale, so CHASE research will tend to emphasize spatial and multi-scale methods and analyses. Scales will span a wide range of activities, from neuronal to behavioral to organizational to cultural to ecological. In all cases the focus is on activity as situated in its environment. This could range from the largest scale where the environment is the planet sustaining human interactions, all the way down to small scales such as the proximal "environment" provided by bodily structures and dynamics that shape behavioral and neural activities. In the middle are social, organizational and cultural environments. The emphasis on adaptive behavior-environment interactions is both empirical and theoretical (neural network modeling, agent-based modeling, dynamical and game theoretic analyses) as well as applied (systems/service science; environmental management; relevant areas of engineering, including virtual environments and neuromorphic technologies). Members of CHASE will be involved in research at all these levels and time scales, with a particular emphasis on identifying common ground across the entire range of problems. A unique contribution of CHASE will be to combine questions in the Social Sciences with approaches from the Natural Sciences and using methods/technology from Engineering. Recent developments in complexity research show that human adaptive systems interact with their environments in lawful ways across multiple scales. The NSF has identified complex systems research as a priority area of funding and there are several programs within all the directorates of NSF that target complexity research. Identifying these lawful principles may transform our understanding of human adaptive systems, and our ability to guide and shape their interactions with environments towards sustainability and health. Investigating these principles requires the kind of interdisciplinary research that Centers like CHASE are designed to establish and foster. CHASE will initiate and foster interdisciplinary interactions across CIS, EECS, ME, Social Systems Science, Anthropology, Geography, ES, Applied philosophy, Management, Biology, QSB & Chemistry. While CHASE’s contributions are primarily in the area identified in the strategic focusing exercise (Round 1) as Information, Computational, and Data Sciences, and Engineering, it is important to underscore that some of CHASE activity is also of relevance to the Human Health and Life Sciences initiatives. This speaks to the broad interdisciplinary nature of CHASE and its relevance to multiple units on campus. This overlap is particularly important to situate in the context of multidisciplinary grant seeking initiatives that will benefit from President Obama’s brain initiative and several other federal funding initiatives on big data. Background: Dr. Balasubramaniam was hired July 2013 as the first Director of CHASE following the approval of a successful Strategic Investment Faculty proposal in 2011. In Fall 2013, he facilitated the assembly of an exploratory committee for the formation of CHASE, comprising Drs Ardell, Chen, Kello, Maglio, Matlock, Sindi & Spivey. This committee will oversee the formal application process for being recognized as an ORU, help chart the specific research directions of CHASE, work out a "constitution" for CHASE governance (in line with UC policy); identify potential members and external advisory members; organize Center activities and seek extramural and internal funding opportunities. Definition of Thematic Area: While there are several institutional efforts in creating clusters/centers for studying complexity, very few are engaged in research directly related to human adaptive systems. A leading pillar in complexity research is the Santa Fe Institute (SFI). Although it born out of studying fundamental problems in physics and computation, SFI contributions to how we think of unified theories in science is unparalleled. By studying how complex systems behave and by applying common mathematical principles across scales, SFI has been able to successfully model human social behavior as a nonlinear dynamical system, capitalism as a complex adaptive system and develop such approaches for studying human search behaviors, foraging and migration. SFI has taken a relentlessly theoretical approach to "big data" problems and have offered very creative solutions pushing the boundary of science. In doing so, they also captured the imagination of several generations of researchers through their summer schools, invited scholar and fellow-at-large programs. In a similar vein, we believe that CHASE has the potential to impact and transform the way we think of human adaptive systems in such a fundamental manner by capitalizing on existing strengths across the three Schools of UC Merced. There are other Centers elsewhere in the United States that study complex adaptive systems, but their scope is typically much narrower and domain-specific. For example, the Center for Neural systems in Boston University is strictly to neural systems, as in the case with similar Centers at Arizona State and Florida Atlantic University although at different scales. UCSB's Center for Spatial studies deals primarily with spatial problem solving for learning and discovery. A few Centers work exclusively with complex adaptive systems in economics and decision-making. A comparable effort to CHASE can be found at the University of Michigan (http://www.lsa.umich.edu/cscs/) and the Beckman Institute at the University of Illinois (http://www.beckman.uiuc.edu). Still, their approach is very general and the study of human adaptation is merely one of several focus areas. Thus CHASE is in a unique position to contribute to and even lead in a high-growth area. As mentioned earlier, one of the aims of CHASE is to capitalize on the existing core interdisciplinary strengths at UC Merced and build a platform for studying transformative issues in human adaptive systems and environments. Several ongoing efforts across campus are already looking into similar problems. CHASE will provide the right interdisciplinary learning and training environment to put us in a unique place to address these problems and catalyze efforts. A key area in which CHASE will lead the field will be in the creative use of existing and growing strengths in computation and big data. These strengths will be applied to tackle a range of problems using laboratory, field and modeling techniques. Faculty Participation: As outlined in the CIS strategic proposal, computation is a core focus of this group. But this theme is also found in many other groups at UC Merced including the Sierra Nevada Research Institute (SNRI), Health Sciences Research Institute (HSRI) Environmental Science (ES), Center for Quantitative Research (CeQR), research groups in AM, EECS, QSB, Management, Chemistry and Chemical Biology, and Applied Philosophy. What is unique about UC Merced is that many of these individuals are already collaborating. This strengthens the case for having a formalized environment to foster existing collaborations and make new ones. We believe that CHASE will provide the appropriate and context-specific glue to connect several exciting initiatives already underway at UC Merced. We also believe that CHASE will play a crucial role in the second phase of this strategic process by connecting individuals working on computational issues in ES, SNRI, Applied Math, QSB, Anthropology, History (Spatial Analysis Research Center: SPaRC), Management, HSRI and CRU efforts like the planned new Center for Theory and Computation (CTC). Below, we list a few already active collaborations across multiple spatial and temporal scales (many of them have resulted in external funding, leading journal articles and more important cross-disciplinary graduate student training + undergraduate research efforts). (1) Ramesh Balasubramaniam, Michael Spivey (CIS) Stefano Carpin (EECS): Use of robotics for studying human motor control and cognition (currently seeking external funding; (2) Rick Dale, Suzanne Sindi (Applied Math), David Ardell (QSB): Commonalities between language and molecular evolution (funded by NSF INSPIRE); (3) Chris Kello (CIS), Stefano Carpin, Paul Maglio, David Noelle (CIS): Next generation neural processing units (funded by DARPA); (4) Stefano Carpin (EECS), YangQuan Chen (Mechanical Engineering), Chris Kello (CIS): human-robot search teams and the use of fractional calculus for studying complex systems (currently seeking funding); (5) Ramesh Balasubramaniam (CIS), Harish Bhat (AM): Solutions for human motor control problems using time-delayed stochastic systems; (6) Teenie Matlock under SNRI: Creation of the Center for Climate Communication (CCC: funded through several sources); (7) Teenie Matlock (CIS) and Berkeley researchers: MetaNet: A large-scale multilingual metaphor extraction, representation, and validation system (funded by IARPA); (8) Teenie Matlock (CIS), Marcelo Kallman (EECS) Stefano Carpin (EECS), David Noelle (CIS): Animation for studying human gestures with applications in health-care/physical therapy (funded by NSF instrumentation grants); (9) Anne Warlaumont (CIS) and Ajay Gopinathan (Physics): Using random walk models to study the development of communication in infants. Additional collaborations are also underway to study infant development in naturalistic home environments in the Central Valley (with Eric Walle, Psychology). (10) Arnold Kim (Applied Math) and several other researchers: Using computation as an underlying theme a new NRT proposal is being developed. CHASE will be an active participant in this venture that will enable a training program in computation and data science across multiple scales. Taken together, these researchers have raised > $6M in funding (approx). Several of these researchers hold important leadership positions in the field including journal editorships, grant panel memberships and many of them are widely cited and held in the highest standing in their respective fields. A major aim of CHASE is to provide a research environment that enables such high-quality collaborations to emerge and run seamlessly. Below, we outline what such an environment would ideally have and how to achieve it. The three main focus areas of CHASE are dynamic and complex systems (Balasubramaniam, Chen, Kello, Noelle, Spivey, Westerling, Yoshimi), spatial and environmental processes and analyses (Aldenderfer, Chen, Dale, Dicey-Jennings, Maglio, Matlock, Spivey, Westerling, Warlaumont), and computational modeling of emergent phenomena (Balasubramaniam, Dale, Kello, Noelle, Spivey, Vanderschraaf, Warlaumont Yoshimi). Major themes to be explored in CHASE include computation and big data issues in human social interactions, human and automation interaction, brain and neural dynamics, modeling climate change, human sensorimotor control and evolution of language and communication. All involve core theoretical problems for which a common underlying mathematical/physical approach may present a solution. We attach with this proposal a network diagram (developed by Arnold Kim and Michael Spivey in the Computation and Data Science proposal) that shows the position of CHASE in the campus wide network of allied scientists, engineers and social scientists. UCM’s Role Educational contributions: CHASE is not directly involved in any single academic program or graduate group, yet it can contribute significantly to student experiences both at the undergraduate and graduate level. One of the first major tasks that CHASE will engage in will be to help set up a training program in Human Adaptive Systems across all schools and units. Planned support for sustaining these training programs include 1) federal support from NSF for research experience for undergraduates (REUs) with a particular emphasis on underrepresented groups, including women and minorities and 2) applying for funding to support integrated graduate and post-doctoral research training in human adaptive systems. The latter will be achieved through programs like NIH training grants and the erstwhile IGERT training grant from NSF. CHASE will actively try to grow graduate student numbers in the STEM disciplines, but equally so in the quantitative social sciences. CHASE will also make special efforts to recruit minority and underprivileged students to the sciences of data and computation. Second, CHASE will provide an ideal learning environment for undergraduate and graduate students to participate in training that is not available through traditional academic units. CHASE is already involved in the organization of summer schools to initiate such training across a diverse range of topics. The first CHASE summer school will be held in May 2014 (at Yosemite and UC Merced campus) and will host 40 students from around the nation. We have already received $50K from NSF for this venture (PI: Chris Kello, Co-PIs: Matlock & Balasubramaniam). The theme of the first summer school is "Language, Music and Movement Dynamics". We plan to host summer schools in the next few years with planned topics including but not limited to 1) Human Interaction dynamics 2) Analysis of stability and metastability in complex systems 3) Learning in human networks 4) Social networks, small world networks and brain networks 5) Communicating the science of human-environment systems. We will actively seek funding to support the summer school efforts in future years. It is anticipated that CHASE will begin a high-impact seminar series modeled on the CIS (Mind, Technology & Society) series, but on a larger scale, possibly involving the city of Merced. Special Programmatic Needs: It is our belief that by 2020, CHASE as an ORU will be a self-sustaining unit that will be supported through overheads and research dollars. It is expected that we will need administrative support to organize grant-writing activities. As CHASE does not have affiliation with any specific By-law 55 units, we are not asking for any FTEs for the development of CHASE. However, CHASE will be actively participating in the activity of several units on campus (recruitment, collaboration, retention) as they participate in faculty growth, especially in the areas of computation across units and scales. Space: It is expected that the space needs for CHASE growth will be commensurate the space requirements of the participating units and its members. However, it is anticipated that a common core space (similar the one presented in the CIS document) for CHASE activities will be required. This common core space will house human laboratories (behavioral, social and neural), high-performance computation clusters, a seminar room and administrative offices. Some space will also be needed to house post-doctoral fellows and graduate students from participating research groups. The Dean of SSHA has already allocated CHASE about 500 sq ft of space in the SSM building. This space is being utilized to house a meeting room and an additional space with the capacity to host three staff members. By 2020 we expect the space needs to have grown about tenfold, to house CHASE laboratories and interactions and ORU admin staff. CHASE is currently involved in applying for extramural funding for state-of-the-art laboratories to study human adaptive systems (3D motion-tracking, robotics, etc.). Efforts are underway to explore virtual reality environments for studying human-environment interaction in various groups in the social sciences (anthropology, psychology). CHASE will be in a position to help foster collaborations of these social scientists with engineers and natural scientists in order to fund these laboratory ventures. Summary In sum, CHASE is an exciting new development that will increase the visibility of UC Merced, by bringing together individuals and enhancing leading-edge research while making substantial contributions to the educational environment by linking graduate and undergraduate students with world-class research and training opportunities.

Other Supporting Documents: 

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Next Generation Materials – Active Multifunctional Nano and Bio Materials.

Proposal Status: 
Principal Authors: 
Sayantani Ghosh
Executive Summary: 
We propose a more focused research theme under the umbrella of "Matter Science". Our theme is "Next Generation Materials – Active Multifunctional Nano and Bio Materials.". This is a multi-disciplinary theme which is scientifically driven by physics, but is inclusive of materials science and engineering, chemistry, bioengineering and biology. The design and development of responsive and active meta matter is one of the leading research areas.
Initiative Description: 
B. Definition of Thematic area We propose a research focus defined within the identified theme of “Matter Science and Engineering: from theory to application” for the campus: Next Generation Materials – Active Multifunctional Nano and Bio Materials. This theme will focus on responsive and reconfigurable materials that will combine the functionalities of its constituents in a synergistic manner. Broadly, these multifunctional materials will fall into two categories: (a) Hybrid Nano Metamaterials (HNM) – assembled from nanoscale artificial atoms (metallic, magnetic and semiconducting), HNMs will be responsive “superlattices” with functionalities beyond naturally occurring materials. Their properties will be tunable by application of external controls, such as electric fields, mechanical stress and optical stimuli. (b) Biological and biomimetic materials (BBM) – assembled from soft materials (such as polymers) to mimic complex biological systems, BBMs will offer the versatility and adaptability of nature but be controllably variable to perform desired functions. Both these sub-topics are inherently multi-disciplinary as they combine research techniques and fundamental knowledge of Physics, Chemistry and Chemical Biology, Systems and Molecular Biology, Materials Science and Engineering, Bioengineering and Applied Mathematics. In particular, additional SAF initiatives led by faculty in Chemistry (CCB) and Materials Science and Engineering (MSE) will have considerable overlap with these research areas and will contribute substantially to its development. C. Intellectual components of the strategic initiative The design, fabrication and characterization of new materials built from the “bottom-up” or “top-down” have long been a part of the innovation of Matter Science and Engineering. With rapid progress and improvement in fabrication and characterization techniques, such as ultrafast optics, electron microscopy, nano-lithography, electron and x-ray scattering, etc. the research community has been able to push the boundaries of capabilities of existing materials. Engineering novel active multifunctional matter (materials that can combine many functions – such as magnetic semiconductors capable of both information storage and processing, and can be responsive to external control) is the next step in this progression. As any research topic conceived in the 21st century, design of these materials is very multidisciplinary. However, at the very heart of this research are fundamental questions such as: (a) HNM specific research problems: 1. Identification, basic design and predictive theory: What are the most compelling multifunctional capabilities that will revolutionize material physics? How do we experimentally design and theoretically model the required functionalities to create a robust platform for macro-scale bottom-up assembly of specific nanoscale constituents? How do we improve on nature? 2. Material compatibility at the interface of hard and soft matter: How do we select and/or synthesize compatible nanoparticles and host matrices to achieve seamless integration and uniform functional properties? 3. Making ‘active’ metamatter: How do we optimize external control to tune material response? Example of our contribution: One very good example of an HNM is a cloaking device being developed at UC Merced by some Physics and Chemistry and Chemical Biology faculty (or the ‘invisibility cloak’, as it is popularly labeled by researchers, who have all read Harry Potter). A typical cloak consists of hundreds of micron-scale split-ring resonators that result in altering the path of light incident on it. This robust design, however, is static, extremely fabrication intensive and incompatible with anything on a realistic length scale. Here, we are addressing this status quo by designing amorphous cloaks, where gold nanoparticles are dispersed in electro-optically liquid crystalline material. Not only is our fluid-based HNM amenable to scaling up, it is actively switchable by temperature and electric field. The success of this project is incumbent on the integration of hard and soft condensed matter, optics, and organic chemistry. The primary design and execution are being handled by faculty with expertise in optics, spectroscopy and microscopy (physics and MSE), the nanoparticle synthesis involves Chemistry (CCB) faculty and the theoretical modeling is being led by Applied Math faculty. This multidisciplinary research is a great strength of UC Merced’s research programs and this is an example of how we are in a strong position at UC Merced to leverage our unique interdisciplinary programs to advance cutting edge research. (b) BBM specific research problems: Biomaterials have evolved to operate under extreme conditions with high fidelity and enviable tunability and self-assembly. Synthetic approaches to mimic their functional properties are a promising avenue to realize multifunctional active matter. This research will have a big impact on the healthcare industry as we face an ageing population and increasing healthcare costs. In this topic, the important fundamental questions that require addressing are: 1. What specific physical properties of biomolecules are responsible for particular functions? 2. How do we mimic these properties based on an understanding of the underlying physics? 3. How do we modify these biomimetic materials to operate on varied length scales for different applications (ex. nanorobotics, cellular transport, microfluidics) both in vitro and finally, in vivo? Our contributions: As in the case of HNMs, we have a unique blend of expertise that allows us to make invaluable contributions to these questions. Our soft condensed matter and biophysics faculty collaborate extensively with molecular and quantitative systems biology researchers to model, simulate and characterize biological systems on different scales. Examples include collaborations between faculty in QSB, BEST, CCB and also with biology and bioengineering departments at other institutions including Stanford, Kent State, UCSC, UIUC to name a few. The research touches on a wide variety of topics ranging from studying model lipid membranes and vesicles, to biopolymer aggregates to molecular motor functioning and intracellular transport to highly specific gating mechanisms. A specific example of this type of research would be computational and polymer physics modeling of the poorly understood gating mechanism of the nuclear pore complex in collaboration with members of QSB and CCB. This led to a fundamental understanding of polymer properties necessary for gating that could be realized in appropriately designed synthetic polymer gates and is currently being worked on in collaboration with a lab in MIT. Thus not only does this research contribute to answering basic questions of biological and medical relevance but understanding the basic underlying physics and materials science in these systems is a necessary prerequisite for building a new generation of bio-inspired multi-functional materials. D. UC Merced – unique strengths in this theme UC Merced is uniquely positioned to allow the growth and firm establishment of a multi-disciplinary research area. The lack of traditional departments and related divisions have already allowed several of the faculty who fall under the purview of this proposal to develop strong collaborations. This proposal will foster these collaborations further. E. Participants The following faculty will be participating in this initiative: Physics: Raymond Chiao, Chih-chun Chien, Sayantani Ghosh, Ajay Gopinathan, Linda Hirst, Lin Tian, Jay Sharping, Kevin Mitchell, Michael Schiebner, Roland Winston, and Jing Xu. Chemistry and Chemical biology: Erik Menke, Jason Hein, and Tao Ye. Materials Science and Engineering: Christopher Viney, Jennifer Lu, and Vincent Tung. Bioengineering: Wei-chun Chin. This proposal is not a single discipline/bylaw unit/graduate group oriented. As the above schematic lists, faculty from several groups will come together for development of this theme. The Physics faculty will focus on understanding the fundamental interactions that lead to new properties of the nano- and bio- metamaterials; the CCB faculty will lead the effort in synthesis and fabrication of the building blocks of these materials; and finally, Materials Science and Engineering and BioEngineering faculty will bridge the important gap between fundamental science and technological applications. Note: Almost all Physics and CCB faculty listed are also members of BEST graduate group. F. Resources realistically needed to address these important research themes. Personnel: Between now and 2020, we would like to add by 2 faculty each year, which will build critical mass in this research theme. These faculty will be divided between theory/computational and experimental hires in each of our thrust areas, and will include researchers from diverse academic backgrounds – Physics, Chemistry, Biochemistry, MSE, BioE and Sytems Biology. Space: • Experimental faculty will require labs, each about 1000 sq. ft. This will be inclusive of space for their graduate students (total: 10,000 sq. ft – 6000 dry, 4000 wet lab space) • Theory/computational faculty will each need 400 sq. ft. of office space for their graduate students (total: 1200 sq. ft.) • All faculty will need offices • A shared “materials synthesis laboratory” which has fume hoods, microscopes, lithography tools, absorption spectroscopy, etc. A materials synthesis laboratory would be efficient by reducing the need for fume hoods in a large number of individual labs (est. 1000 sq. ft.) • A shared “electronics laboratory” with test and measurement equipment. The electronics laboratory should feature lockable cabinets with windows so that currently unused but shareable instruments owned by a particular group can be displayed. This enables sharing of equipment and creates useful space within the research laboratory. (est. 1000 sq. ft.) • Server room space for computation needs of theory faculty (est. 200 sq. ft) Total space: 13000 sq. ft. of research space and offices for 12 faculty. Additional office space will be needed for post doctoral researchers.

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School of Management and Economics

Proposal Status: 
Principal Authors: 

Rob Innes (Economics), Paul Maglio (Managament), Erik Rolland (Management), and Kurt Schnier (Economics)

Executive Summary: 

This proposal is now subsumed in the new proposal for a School of Innovation, Management, and Economics.

Initiative Description: 

1. Background

UC Merced has envisioned a School of Management since the opening of the campus. The existing undergraduate management curriculum at UC Merced was designed to be a temporary major by the School of Social Sciences, Humanities and Arts, with the strong leadership of the Economics faculty.  In 2012, UC Merced hired three faculty dedicated to Management. The challenge for building Management now is two pronged: it must support academic programs that are already in place, and it must find a unique positioning for Management that takes advantage of campus strengths and builds smartly upon this foundation.  The UC system has many great Management programs, and the best way to add value within the system is to build a unique and innovative program at UC Merced.  In this document, we present a cross-disciplinary faculty vision for this future.

 

2. Approach

UC Merced is currently building research strength and academic programs in two areas related to Management: (1) in Economics, and (2) in Management of Innovation, Sustainability and Technology (MIST).  Both are focused and distinct from traditional models of business education and research, yet both promise concerted delivery of joint programs of research and education that will be in high demand and distinguish the University of California at Merced. By collaborating in the short-term and the long-term, aligning efforts toward eventual creation of a new School of Management and Economics, we expect to bring MIST, Economics, and related programs together by 2020. 

The Economics program administers two undergraduate degrees, one in Economics and the other in Management & Business Economics (currently labeled “Management”).  An Economics Ph.D. program is planned to start in Fall of 2015.  Under an over-arching focus on rigor in quantitative reasoning and methods, the Economics group aims to build international distinction in three thematic fields: Environmental Economics & Management, Health Economics & Management, and Regional Development & International Trade.  While current faculty have international reputations in these fields, the thematic foci are particularly appropriate to UC Merced both because of interdisciplinary complementarities and because of growing demand for related research and training in the marketplace for ideas and academic talent.  Scholars in econometrics, experimental economics, and economic theory will complement faculty in the thematic fields.  Consonant with these thematic and methodological fields, Economics will be hiring to complement its Management-related educational offerings in Marketing / Industrial Organization, Strategy, Finance, and quantitative methods. 

Management faculty and others at UC Merced have proposed new education and research programs in Management of Innovation, Sustainability, and Technology (MIST). Building from existing faculty and campus strengths, which include services, logistics, math, cognition, health, the environment, and technology, MIST will focus on areas such as analytics, value networks, technology management, resource management, and service management.  Initially, MIST will focus on delivering graduate programs: a professional graduate masters program in Management, and other specialized executive and graduate programs (such as the National Parks Institute and the California State Parks Institute).  Some of these professional programs are already in place. The related MIST proposal outlines the plan in more detail. 

Both Economics (in SSHA) and MIST (in SoE) are building respective programs in collaboration with one another over the coming several years.  This proposal sets the stage for the long-term goal of housing the two programs in a joint School of Management and Economics.  The advantages of a School of Management and Economics include:

  • Cross-fertilization of business, economics, and management research.
  • Administrative economies of scale in related program administration.
  • Coherence of programmatic development and implementation, including involvement of all related faculty in all Management related programs, undergraduate, graduate, research, and outreach.
  • Facilitating the creation of inter-disciplinary research projects that will increase the level of external funding generated.
  • Vastly enhanced prospects for endowment opportunities, which will facilitate excellence in faculty hiring, support graduate programs, and promote related research across the campus.
  • Energizing students, alumni, faculty, and lecture staff around common and significant goals and themes.

 

3. The Proposal and Timeline

Through 2020, Economics and MIST will each build their own programs at the undergraduate and graduate levels, but will remain closely aligned through sharing plans, resources, and courses. At the undergraduate level, Economics will target two broad undergraduates majors, one in Economics (250 students) and one in Management and Business Economics (500-600 students); and MIST will target one major, possibly with several tracks (50-100 majors).  These undergraduate majors will necessarily share some common courses, including for instance, the accounting, finance, and economics courses of the MBE program.  At the graduate level, Economics will target a PhD in Economics, with anticipated enrollments of about 30 supported predominantly by TAships; and MIST will target self-supporting professional masters degrees, with anticipated enrollment of about 60, self-supporting executive education programs, with anticipated enrollments of about 100, and a PhD program with anticipated enrollments of about 10. Overall, we anticipate that our Management-related programs will serve about 10 percent of the University, both at the undergraduate and graduate levels. 

By 2020, Economics and MIST together will have roughly 35-40 ladder-rank faculty. Economics will have additional instructional staff of 10-12 lecturers, and MIST will have an additional instructional staff of 2-4 lecturers.  This proposal sets the stage for merging the two faculties and programs into a new School of Management and Economics that will have its own administration and a distinct UCM building to house faculty, administration, students, and related programs. 

Resource commitments for a new School do not involve costs above those that thriving programs would otherwise require.  Indeed, the inception of a new School of Management and Economics promises delivery of endowment, grant, and tuition resources that will cross-subsidize many of these costs and thereby reduce the University’s financial commitments overall.   Robust endowment support will be created not only by naming opportunities for the School and new building, but also by contributions from the business community and alumni.  Income from these endowments will help defray some of the required off-scale increments to faculty, support graduate students, cover some administrative expenses, and support extra-curricular programs (including conferences and faculty research funds). 

In sum, our strategy requires several broad commitments at the campus level: (1) commitment to building the two prongs to the proposed SME over the coming decade (see individual proposals of Economics and MIST); (2) commitment to incorporating the ultimate SME building in space planning for the University; and (3) commitment to administrative planning for the inception of the SME, planning to start by AY 2017-18 for anticipated School opening in AY 2020-21. 

 

4. Cross-Campus Synergies and Linkages

This proposal represents a cross-disciplinary and cross-campus approach.  The new School of Management and Economics and its faculty will be intertwined with the fabric of the campus in multiple ways. 

Economics will be closely tied to multi-disciplinary initiatives and programs related to its thematic foci.  Our environmental economics staff will be linked with both SNRI and hopefully to a new center focusing on the social science of the environment.  Our health economics staff will join with related faculty in the Health Services area of UC Merced’s public health program.  Our regional development and trade faculty will be linked with scholars in Sociology and the new Blum Center for Community Development.  And all faculty will be engaged in quantitative research that aligns with the proposed Center for Quantitative Research, and policy relevant research that engages the Political Science community. 

MIST depends on cross-functional knowledge already available across the campus, including business analytics (computer science, mathematics, geography, economics, cognitive science, and management), decision-analysis (cognitive science, psychology, management), logistics (science, mathematics, geography, engineering, and management), resource management (environmental science, engineering, and management), and services (engineering, cognitive science, psychology, and management). Plans for MIST are tied to all existing campus ORUs, (CITRIS, SNRI, HSRI, ERI), the new cross-UC California Center for Service Science, the Blum Center at UC Merced, proposed Center for Theory and Computation, proposed Center for Human Adaptive Systems and Environments, proposed Center for the Environment and Sustainability, proposed Hard Rock Reserves Institute, proposed new focus areas of Cognitive and Information Sciences in data science and human-technology interaction, among others. Together, the connections of Economics and MIST reach virtually all parts of the campus.  The goal of a new School of Management and Economics will be to take these connections one step further, creating an interdisciplinary hub for all research and education related to business on campus, in the local community, across the state, and beyond.

 

Impact Metrics: 

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Mechanical Technologies for Sustainability - A 2020 Strategic Academic Focusing Plan of ME Graduate Program

Proposal Status: 
Principal Authors: 
ME group chaired by Prof. Jian Qiao Sun
Executive Summary: 
The research in the Mechanical Engineering program in the next 15 years will grow in a targeted area of mechanical technologies for sustainability. We propose three focal areas: 1) sustainable energy systems including renewable energy, energy storage, energy efficiency, and energy transport; 2) sustainable ME technologies for complex mechanical systems, including advanced design and manufacturing, advanced control systems, mechanical properties of new materials, and advanced thermal management systems; 3) sustainable mechanical engineering technologies for interdisciplinary engineering, including bio-MEMS, mechatronics, nanotechnologies, water technologies, biomedical technologies, and air pollution monitoring and control. These technologies are all built on the core strength of basic science and engineering in the Mechanical Engineering Graduate Curriculum. Hence, such core strengths and competency of the Mechanical Engineering Graduate is essential to the success of the program. The basic research of the Mechanical Engineering program encompasses the areas of solid mechanics, dynamics, controls, thermodynamics, heat and mass transfer and fluid mechanics. These areas are tightly related to the programs of physics, mathematics and biology.
Initiative Description: 
Please see attached file in Other Supporting Documents.
Other Supporting Documents: 

Commenting is closed.

Applied Mathematics

Proposal Status: 
Principal Authors: 
  • Harish Bhat
  • François Blanchette
  • Boaz Ilan
  • Arnold Kim
  • Lei, Yue
  • Karin Leiderman
  • Roummel Marcia
  • Juan Meza
  • Suzanne Sindi
  • Mayya Tokman
Executive Summary: 

Applied mathematics is a current strength of UC Merced. The dynamic, close-knit group of applied mathematics faculty have developed innovative interdisciplinary mathematics research and academic programs that are gaining national prominence.  We have built, and are continuing to build a program comprised of broad-minded interdisciplinary researchers who contribute to the core applied mathematics program as well as a number of other programs at UC Merced.  In particular, the applied mathematics programs focuses on three areas: (1) modeling complex systems, (2) numerical analysis and scientific computing, and (3) data science. The growth plan described here will enhance, and deepen our fields of expertise within the three strategic foci. The applied mathematics faculty chose these three strategic foci also to maximize collaboration with other research groups on campus. In addition to contributing to the campus mission through research, the applied mathematics academic programs provide essential training to students across campus.

Initiative Description: 

1. Historical perspective

To address the interdisciplinary research and education mission for this campus, the School of Natural Sciences sought to develop applied mathematics instead of a more traditional, “pure” mathematics discipline. The Applied Mathematics group of faculty have contributed to the campus mission through development of undergraduate and graduate research and education programs. All faculty in the Applied Mathematics Unit are also faculty in the Applied Mathematics Graduate Group. In speaking of the Applied Mathematics faculty below, we refer to those in the Unit and the Graduate Group.

 

The Applied Mathematics faculty has been active in collaborating with faculty across the entire campus. It is for all of these reasons that the Strategic Academic Vision for UC Merced, states that Applied Mathematics is an essential core discipline to be “present and nurtured at UC Merced in 20 years.” Because Applied Mathematics is a theoretical and computational scientific endeavor, the Applied Mathematics program has grown and may continue to grow with minimal competition for resources with other developing programs on campus.

 

In keeping its alignment with the interdisciplinary mission of UC Merced, Applied Mathematics is well poised to enable other programs on campus to develop further through innovative, cross-linking collaborations. The Applied Mathematics faculty currently participate in other research programs on campus including Quantitative and Systems Biology, Physics, Chemistry and Chemical Biology, Electrical Engineering and Computer Sciences, and Mechanical Engineering and Applied Mechanics. Specific activities include participating in doctoral thesis committees, co-advising students, and collaborative funding endeavors. Currently, there are emerging areas of cooperation and collaboration between Applied Mathematics faculty members and those in the Environmental Systems, and Biological Engineering and Small-scale Technologies graduate programs. Moreover, Applied Mathematics faculty have been actively engaged in the development of the Management program. The Applied Mathematics faculty is intent on increasing the activity in innovative, cross-disciplinary collaborations across campus.

 

2. Applied Mathematics at UC Merced

The Applied Mathematics program at UC Merced defines applied mathematics as the application of modeling, analysis, and scientific computing to solve problems relevant and important to the real world.  To that end, the Applied Math program at UC Merced has identified the following three strategic foci. 

  • Modeling complex systems
  • Scientific computing
  • Data science

These three strategic foci are guides for future growth and development. Moreover, these three strategic foci provide rich opportunities for contributing to other disciplines and foster interdisciplinary and multidisciplinary research and education. At present, the Applied Mathematics faculty have expertise in all three of these strategic foci with most faculty representing modeling complex systems, then scientific computing, followed by data science. The educational programs reflect this current emphasis, as well. While contributing to the campus’ 2020 Project goals for overall growth, our objective in Applied Mathematics is to broaden and deepen the expertise of Applied Mathematics faculty across these three foci, and cross-cutting, collaborations across campus.

 

We assess applied mathematics research using two criteria: (1) sophistication of the mathematics used and (2) novelty and importance of the application. We have built, and continue to build a program comprised of broad-minded interdisciplinary researchers who contribute to the core applied mathematics program as well as a number of other programs at UC Merced. This approach is in stark contrast to developing a program by defining a specific set of traditional mathematics sub-fields. By developing the applied mathematics program in this way, we plan to develop a truly modern applied mathematics program at this new campus. We seek to strengthen this program through cross-disciplinary collaborations, which allow for applied mathematicians to contribute also the development of other academic programs. Moreover, these cross-disciplinary collaborations allow for a broadening and diversification of funding opportunities for research and education initiatives.

 

3. Resource needs for Applied Mathematics

At present, the applied mathematics program has 10 core, ladder-rank faculty (2 Full, 4 Associate, 3 Assistant, and 1 Lecturer with Security of Employment), and 2 Visiting Assistant Professors. We propose here a plan to grow to 23 ladder-rank faculty and 4 Visiting Assistant Professors by the 2020-2021 Academic Year. This growth in faculty is accompanied by the following growth projections. 

  • 180 Undergraduate Majors (consistent with campus history of 2% of total undergraduate population corresponding to an undergraduate student-to-faculty ratio of 9-to-1);
  • 60 Graduate Students (consistent with campus history of 6% of total graduate student population corresponding to a graduate student-to-faculty ratio of 3-to-1);

Our faculty growth plan will enhance, and deepen our fields of expertise within the three strategic foci listed in Section 2.  In particular, our future faculty search will include (but not be limited to) researchers in (1) atmospheric science, epidemiology, neuroscience, and conservative and dissipative chaos for modeling complex systems; (2) asymptotic and perturbation methods, applied analysis, optimal control, numerical linear algebra, multigrid methods for numerical partial differential equations, stochastic differential equations, and high performance computing for numerical analysis and scientific computing; and (3) financial mathematics, climate modeling, signal processing, inverse problems, computational genomics and bioinformatics for data science.  This growth plan is aggressive, but reasonable. It puts the Applied Mathematics program well on track to become a nationally recognized program for its research and educational excellence. 

 

3.1 Space Requirements

 

At present, the Applied Mathematics faculty and students are distributed across the Science and Engineering Building, the Classroom and Office Building, and the Academic Offices Annex. To meet the objectives listed in Section 2, Applied Mathematics program must have the following. 

  1. Clustered offices for Applied Mathematics faculty, graduate students, postdoctoral researchers, and undergraduate student researchers.
  2. Collaborative research work spaces for purposes including, but not limited to, holding group meetings, facilitating collaborative research discussions, and hosting education and research computing;
  3. Ease of access to meet and work with collaborators in other research units and groups elsewhere on campus.

The types of research space listed above are absolutely critical to the success of this program. Moreover, we believe that meeting these requests for space resources is quite feasible for this campus.

 

3.2 Integrating space needs in a multi-use building with other programs

The Applied Mathematics group would welcome the opportunity to be co-housed with other theoretical and computational colleagues across campus. For example, the entirety of the Applied Mathematics group is participating in an initiative to establish a research theme called Computational and Data Science. It may be most effective from a campus perspective to house a variety of theoretical and computational faculty, postdoctoral researchers, and graduate students together. In that situation, the Applied Mathematics program personnel will need to be in contiguous office spaces to facilitate the Applied Mathematics Unit’s and Graduate Group’s activities.

 

3.3 Local research computing resource needs

All Applied Mathematics faculty, students, and postdoctoral researchers require local research computing resources. These research computing resource needs are commensurate with those described in the research theme proposal for Computational and Data Science to which all Applied Mathematics faculty are associated.  Specifically, these research computing resources include on-site hardware, software, and administrative support staff.  For hardware, we will need a few shared small- and medium-scale computing platforms for development and testing of codes and training of students.  Moreover, such local research computing resources are absolutely necessary for performing scale studies which are required for transitioning to large-scale computing platforms.  A sharing strategy will be used to purchase software licenses.  Staff support is needed to provide maintenance to the computing hardware and software, to ensure stability in data storage and backup, and to monitor the security of the campus research computing systems.

 

4. Comparison programs

There are a few notable programs in applied mathematics nationally, for example, the Departments of Applied Mathematics at University of Washington and University of Colorado at Boulder. Both programs are consistently ranked in the top ten applied math programs in the country, with University of Washington tying for first in 2010.  However, these two programs as well as nearly all other comparable programs co-exist with a traditional pure mathematics program. At UC Merced, we have been developing the Applied Mathematics program alongside the other innovative programs on campus. This co-development of applied mathematical sciences with other programs on campus is a signature for this program and for UC Merced.

 

All of the other eight regular UC campuses have graduate programs in Mathematics. Nearly all of the Applied Mathematics programs are specializations within their respective Mathematics doctoral programs. A direct comparison of the Applied Mathematics Graduate program at UC Merced with other UC programs is inherently difficult because the structure here is completely different. This difference is not accidental. We have chosen deliberately to position ourselves in a way that emphasizes modeling complex systems, scientific computing and data science. However, many campuses have initiated new graduate programs related to computational science and engineering that align closely with what we are building here at UC Merced.

 

As a small group within a relatively new campus, we are able to implement curricular changes on a relatively short time scale. This flexibility allows us to implement substantive changes and additions to the curriculum within an academic year's time. By taking advantage of this situation, we are introducing a new emphasis track in Computational and Data Enabled Science for our applied math majors, with four new courses: Introduction to R, Scientific Computing, Numerical Linear Algebra and Cloud Computing. All of these courses are aligned with other academic programs on campus. Thus, they will also serve a broader audience of students in other programs in science and engineering thereby contributing to the campus mission to provide interdisciplinary educational experiences for its students.

 

5. Contributions to the campus

Mathematics courses train students in the fundamental skills needed to solve problems using analytical reasoning and computational methods. Approximately 2% of undergraduates declare Applied Mathematical Sciences as their major. However, lower-division mathematics courses account for very large number hours taught on campus each academic year largely due to the fact that nearly all the undergraduate students are required to enroll in these courses. For example, the Math 5, 15, and 18 courses almost entirely serve students in other programs. In addition, upper-division and graduate mathematics courses serve a number of other programs such as chemistry, physics and engineering. There are plans in place to expand the course offerings and training programs to include scientific computing, probability, and computational statistics, to name a few.

 

Individuals who have rigorous training in the subject and use the methods being taught in their own research best achieve effective teaching of mathematics courses. All Applied Mathematics faculty contribute to teaching undergraduate and graduate mathematics courses. Additional Applied Mathematics faculty will add new areas of research expertise, and will provide the means to offer broader and deeper curricula at both the undergraduate and graduate levels. Growing the number of faculty is absolutely crucial for achieving satisfactory student-to-faculty and lecturer-to-ladder-rank faculty ratios associated with these mathematics courses. At present, both ratios are largely off-balance from what we would like to achieve as this campus grows and develops. The proposed growth plan is designed to address the rebalancing of these ratios.

 

Presently, the Applied Mathematics group must rely heavily on Unit 18 Lecturers for lower-division mathematics instruction. Even with the growth proposed here, this group will continue to need Unit 18 lecturers for instruction, but the proposed growth will reduce the overall ratio of lecturers-to-faculty to be more reasonable. Furthermore, the proposed growth in ladder-rank faculty and Visiting Assistant Professors will lead to more of these faculty teaching lower-division mathematics courses.

Commenting is closed.

Strategic Initiative in Management of Innovation, Sustainability, and Technology

Proposal Status: 
Principal Authors: 

Paul Maglio and Erik Rolland

Executive Summary: 

This proposal is now subsumed in the new proposal for a School of Innovation, Management, and Economics.

Initiative Description: 

Motivation: Management encompasses the science and art of how businesses and organizations accomplish goals using available resources efficiently, effectively, and sustainably. Now is the time to create innovative management programs based on quantitative research in organizations, innovation, science, and technology, with a focus on sustainable processes and practices at all levels. For instance, the rise of global service-based business models have transformed the way the world works, enabled by new information and communications technologies, specialization of businesses and professions, global regulations, and increased use of external services. National priorities aim toward economic improvement, driven by scientific understanding and systematic innovation.[1] But the US is lagging behind. It is time to focus deep scientific and engineering attention on service innovation in services, technology, and sustainability, among other areas.[2] UC Merced is uniquely positioned to create such new and novel management programs at the graduate and undergraduate levels, and to lead in research and practice in areas of management relevant to the Central Valley, California, the US, and beyond.

Opportunity: Modern businesses require employees with diverse and deep skill-sets. Many of these skill-sets are founded on cross-functional knowledge, including business analytics (computer science, mathematics, geography, economics, cognitive science, and management), decision-analysis (cognitive science, management), logistics (science, mathematics, geography, engineering, and management), resource management (environmental science, engineering, and management), and services (engineering, cognitive science, and management). UC Merced has substantial depth in these areas, including environment and natural resources, applied math and computation, technology and engineering, and cognitive and information sciences. In particular, all existing campus ORUs, (CITRIS, SNRI, HSRI, ERI), the new cross-UC California Center for Service Science, the Blum Center at UC Merced, proposed Center for Theory and Computation, proposed Center for Human Adaptive Systems and Environments, proposed Center for the Environment and Sustainability, proposed Hard Rock Reserves Institute, proposed new focus areas of Cognitive and Information Sciences in data science and human-technology interaction, proposed new programs in Applied Philosophy, and proposed School of Management and Economics are all aligned with our vision. Moreover, the campus has experience delivering innovative and interdisciplinary entrepreneurship and management programs. By weaving these diverse specialties together, we can create research-based management programs that will educate the business leaders of tomorrow, focusing on value-creation, innovation, and sustainability.  We can achieve this by building on our strengths and focusing on real-world problems relevant to the university, region, and state.[3]

Research Priorities: The San Joaquin Valley is directly faced with many of the grand challenges seen in our society in general: air quality, clean water, access to clean energy, access to good healthcare, and socio-economic disparities fueled by the lack of jobs. It is increasingly clear that the solutions to these challenges are found at the intersection of traditional academic fields. As such, the research priorities should be set at these intersections to collectively bring about solutions to the challenges of our area and the State. Examples include how technology can be used to manage solutions to these challenges, as illustrated in these sample research questions: How can data analytics enable better management of natural resources?  How can management of technology promote better access to healthcare?  How can entrepreneurial activities promote job growth locally?  How can better understanding of services yield better management of public services and public resources?

Proposal: We propose to create a program in Management of Innovation, Sustainability, and Technology (MIST). By 2020, a core group of 15-20 ladder-rank faculty will work with faculty from across the campus to deliver the research and educational missions collaboratively and cooperatively, possibly as part of a new School of Management and Economics. For MIST, we will build from existing faculty and campus strengths, which include services, logistics, analytics, cognition, health, the environment, and technology, in four broad strategic areas of research and education:

  • Analytics, including Spatial Analytics, Health Services, and Smart Infrastructure
  • Networks for Value Creation, including Network Security, and Logistics and Supply Chains
  • Technology Management, including Services, Innovation, and Leadership
  • Resource Management, including Protected Lands, Renewable Energy, and Sustainable Land Use

Our approach is built around five goals:

  1. Establish a graduate group to develop educational, research, and outreach programs.  This group will develop programs in management of innovation, sustainability, and technology with a core group of faculty drawn from multiple schools. The School of Engineering will serve as the initial home for this new graduate group.
  2. Develop a modular one-year professional Master of Science program that provides a unique educational experience that can be delivered in several formats (e.g., intensive residency sessions, online sessions, on-campus classes, and others). This key educational program, a one-year Masters of Science in Management (MSM) with tracks in innovation, sustainability, and technology, can generate revenue to help support a corresponding undergraduate program and a research-driven Ph.D. program. Offering a one-year graduate degree in management makes sense given recent data showing that applications to full-time, two-year M.B.A. programs are down over the past four years while interest in specialized one-year master's programs is up over the same period.[4] We expect this kind of program will create graduates with far more marketable skills than a four-year degree alone. An integral part of the MSM program is the development of proficiency-oriented online instruction modules that can be used to ensure knowledge of pre-requisite materials, and can also be used to fulfill courses in the program for students who may not have regular access to the campus.  MIST will aim to secure grant funding, and create relationships with other UC campuses and possibly external partners to develop online instructional capabilities at UC Merced.
  3. Develop a modular and innovative undergraduate program in management with emphases in innovation, sustainability, and technology.  This program will align directly with the MSM program.  It will incorporate core management classes, such as accounting, finance, and marketing, leveraging existing courses from the Management and Business Economics program as appropriate.  Undergraduate minor programs in core areas of innovation, sustainability, and technology would be effective additions for majors in relevant areas of science and engineering.  Online education aligned with the MSM program will developed at the undergraduate level, along with unique cross-campus programs to take better advantage resources across the system (one ILTI proposal is already underway for an online, hybrid service-project-management class delivered jointly by UC Merced and UC San Diego).
  4. Develop a modular Ph.D. that delivers a distinctive educational experience, and integrates in a flexible manner with existing graduate programs on campus, and take ownership of the campus' effort towards offering an undergraduate minor in Leadership, Innovation, and Entrepreneurship.
  5. Develop partnerships, outreach, and development programs to sustain MIST’s research activities. For example, Programs in Parks and Protected Lands, including the internationally renowned National Parks Institute and the California State Parks Institute (which will be funded by outside sources starting January, 2014), will be effectively housed in MIST, with connections to SNRI and Environmental Systems. Similarly, Entrepreneurship and Leadership Programs currently run through administrative offices on campus will be led appropriately through the educational and academic mission of MIST, and expanded to include executive and part-time programs. In addition, MIST will work with UC Merced’s new California Center for Service Science to develop both cross-campus and UC-wide educational programs in service, particularly related to innovation and technology.

Overall, our goal is create a separate and distinct group that will be built up in a cross-disciplinary and cross-functional manner, yet which is aligned with related campus initiatives around environmental systems, computation and analytics, business economics, cognitive science, and more.

Timeline: In the short term, we will create a graduate group through the School of Engineering with membership open to UC Merced faculty, students, and staff with an interest in areas related to MIST.

By January 1, 2014, we willdevelop a specific strategic plan for achieving the goals of MIST, including developing educational programs at the undergraduate and graduate levels, and running a high-profile speaker series that brings business and thought leaders to campus to increase UC Merced’s visibility in areas related to MIST to engage world-class scientists and practitioners with students and faculty. 

By July 1, 2014, we will propose a cross-school graduate group for MIST. As described, the graduate programs will focus initially on the MSM and a Ph.D. program.  We will also establish an external advisory board of internationally recognized academics and national and local business leaders to help guide planning.   We expect the first cohort of MSM and PhD students to be admitted Fall 2015.

By July 1 2015, we will propose a cross-school undergraduate program in management that emphasizes innovation, sustainability, and technology, with BS degrees offered in these three tracks. We will necessarily depend on existing courses drawn from across campus in areas such as accounting and finance, environmental systems, and technology innovation. Minor programs in the three tracks will also be created.  In addition, we will aim to create an executive education program following the same general line.  Supported by outside agencies and organizations, we aim to hold the first MIST-sponsored National Parks Institute executive program in Spring of 2015.  We expect the first cohort of other programs to be admitted to in Fall 2016.

Hiring: In 2013-14, one strategic search in Natural Resource Management of Parks and Protected Areas, is being led by management and environmental systems faculty and the School of Engineering. In 2014-15, we propose to search for two ladder-rank faculty who work in management analytics, including supply chain, healthcare, business intelligence, decision analytics, services, and sustainability.

In 2015-16, we propose to search for three ladder-rank faculty, focusing hiring on analytics through alignment with UC Merced’s strategic priorities, and in collaboration with graduate groups and research institutes across the sciences, engineering and social sciences. Synergies can be found in applied mathematics (asset pricing, operations, network theory), environmental science and engineering (sensor networks, network theory), computer science (optimization, theory), cognitive science (decision making), and economics (markets, econometrics). To grow to steady-state by 2020, we propose to search for two-to-three ladder-rank faculty each year for the following four years in these same broad areas.

Students: At steady-state in 2020, we expect the masters programs to have about 100 enrolled, the executive program to have 60 enrolled, the PhD program to have 10 enrolled, and the undergraduate program to have 50 enrolled. Thus, MIST will support UC Merced’s 2020 Project goals of increasing substantially the proportion of graduate-student enrollment over time.

Lecturers and Staff: To support the proposed masters and undergraduate programs, MIST will rely on faculty from across the campus, including for instance Economics, Environment Systems, Applied Math, Cognitive and Information Sciences, and more. However, it is possible additional lecturers dedicated to MIST will be required as well. In addition, several staff will be required over to support day-to-day operations of the educational programs, including for instance, advisors and a program coordinator.

Diversity: UC Merced is among the most diverse of the UC campuses. MIST will continue to support diversity by establishing a diverse student body and a diverse faculty. For instance, by aligning the initial MSM degree with the existing undergraduate population, we will naturally encourage student diversity. In addition, MIST will continue to encourage and monitor recruitment of women and underrepresented faculty at all levels, benchmarking efforts on diversity against the campus and relevant fields.

Metrics: MIST can be evaluated along educational and research metrics. For education, key metrics include number of applications, students enrolled, and post-graduation placement. It may be possible to compare the success of students in the fifth-year MSM program with the success comparable UC Merced students who graduate with a 4-year BS (e.g., in terms of starting salary). For research, key metrics include quality of publications and extramural grant funding. It may be possible to measure the cross-disciplinary or interdisciplinary research impact by measuring the number of collaborations across traditional disciplines and considering the quality of work published outside traditional management fields.

Example Curriculum: A modular one-year Master of Science in Management can provide a unique educational experience that can ultimately be delivered in several formats (e.g., intensive residency sessions, online sessions, on-campus classes, and others), and with specialized tracks in innovation, sustainability, and technology. The curriculum incorporates a number of basic management courses (the Fundamentals, taken in two Summer sessions: leadership, communication, accounting, and finance), with core courses that combine innovation in technology with practical management concepts (the Core, taken in Fall: economics, decision making, innovation, and entrepreneurship) and focused courses that delve deeper into sustainability and strategy (the Specialization, taken in Spring: operations management, services and sustainability, and global strategy), finally integrating all areas together in a semester-long project course (the Integration, taken in Spring: capstone). 

Space Needs: With the projected growth of MIST and management programs in SSHA, open space to house faculty in the Management Suite in SSM will be filled within 2 years. At steady-state in 2020, MIST will need space for approximately 15 faculty, 5 lecturers, and 4 staff members. In addition, 3-4 modern classrooms with video-conferencing capability, and 10-15 smaller project rooms will be required to meet the educational needs of the undergraduate and masters students; and shared office and laboratory space will be required to house PhD students. Thus, we estimate that by 2020, MIST will require approximately 7,000 asf for academic and administrative offices, 10,000 asf for instructional and student services, and 5,000 for student and lab workspace, totaling 23,000 asf (or 33,000 gross square feet).

School of Management and Economics. The MIST group will collaborate with colleagues in Economics in the short-term and the long-term to align efforts toward eventual creation of a new School of Management and Economics. Over the next few years, we will collaborate to plan and deliver the refocused undergraduate Management program, as well as new masters-level programs. By 2020, we expect to bring MIST, Economics, and related programs together into a new, separate school.

Participants and Supporters: Roger Bales, Paul Brown, Yihsu Chen, Martha Conklin, Rick Dale, Robin DeLugan, Dan Hirleman, Rob Innes, Chris Kello, Teenie Matlock, Roummel Marcia, Juan Meza, Stergios Roussos, Kurt Schnier, Peter Vanderschraaf, Josh Viers, Tony Westerling, Alex Whalley

Business Plan: A sketch of our business plan through 2020 is shown in the attached table, including current and proposed faculty investments (“MIST-Financials”).  Through use of professional degree fees and executive education fees, we expect MIST to operate as a set of self-supporting programs over time.



[1] Council on Competitiveness (2005). Innovate America: National Innovation Initiative Summit and Report. (http://www.innovationtaskforce.org/docs/NII%20Innovate%20America.pdf);

  European Commission (2011). Policies in Support of Service Innovation. INNO-Grips project Policy Brief No. 3. (http://ec.europa.eu/enterprise/policies/innovation/files/proinno/inno-gr...);

  National Science Board (2010). Science and Engineering Indicators: 2010. National Science Foundation, National Center for Science and Engineering Statistics.  (http://www.nsf.gov/statistics/seind10/start.htm).

[2] National Academy of Engineering (2007). Rising Above the Gathering Storm: Energizing and Employing America for a Brighter Economic Future. Washington D.C.: National Academies Press.

[3] Office of Economic Development, Fresno State University. (2012). San Joaquin Valley: Regional Industry Cluster Analysis And Action Plan. (http://sjvpartnership.org/wp-content/uploads/2013/03/SJV_RegionalIndustr...).

[4] Mangan, K. (2013).  Business-School Accreditor Approves New, More Flexible Standards, The Chronicle of Higher Education, April 9.  (http://chronicle.com/article/Business-School-Accreditor/138447/).

 

Impact Metrics: 
Other Supporting Documents: 

Commenting is closed.

Cognition, Computation, and Human Data Science

Proposal Status: 
Principal Authors: 

Ramesh Balasubramaniam, Yihsu Chen, Rick Dale, Carolyn Jennings, Evan Heit, Chris Kello, Paul Maglio, Teenie Matlock, David Noelle, Michael Spivey, Peter Vanderschraaf, Anne Warlaumont, Tony Westerling, Art Woodward, and Jeff Yoshimi 

Executive Summary: 
Cognitive and Information Sciences (CIS) is flourishing at UC Merced, and worldwide as an interdisciplinary growth area for science and engineering.  We propose to build on our track record of excellence in research and education.  We plan to maintain the steady pace of growth in CIS that has built our cohesive unit, while also fostering numerous connections to other groups on campus and within the UC system.  We also outline how these connections could be expanded through an initiative in computation and data science, with an emphasis on human activity in its many forms, across many scales, and in its many environments.  In this document, we provide rationale in the context of campus-wide goals and national trends, and outline plans and resource needs for realizing this vision.
Initiative Description: 
See attached pdf
Impact Metrics: 
Other Supporting Documents: 

Commenting is closed.

Sociology

Proposal Status: 
Principal Authors: 

Nella Van Dyke (lead), Paul Almeida, Irenee Beattie, Kyle Dodson, Tanya Golash-Boza, Laura Hamilton, Zulema Valdez

Executive Summary: 

Sociology is the scientific study of society, social institutions, social relationships, and human organization. The Sociology faculty at UC Merced are building a vibrant and collegial intellectual group, marked by outstanding scholarship and participation in interdisciplinary communities of inquiry. We have designed UC Merced's sociology program to help the university fulfill its mission by addressing issues of importance to the Central Valley, with a focus on social inequality (race, class and gender), education, health, immigration, and political participation. It is our goal to foster scholarly excellence in Sociology, offer high quality graduate training, and provide a first class undergraduate experience that resonates well with UC Merced's undergraduate population. We are developing a program that will be nationally and internationally recognized for its high quality scholarship, graduate training, and contributions to the university and community.  

Initiative Description: 

We have been hiring sociologists with the explicit goal of fostering a synergistic intellectual environment at UC Merced, with a program that emphasizes issues central to the university's mission and connects well with other programs on campus.  The Sociology program focuses on the study of social inequality, including race, class, gender and sexuality, political participation and social movements, education, health and immigration. We have emphasized hiring faculty who are a good fit for the university's mission to bring needed expertise to the Central Valley on topics such as immigration, education and health. In addition, we have been hiring in a way that enables us to form interdisciplinary connections with other programs on campus, such as political science, the humanities, psychology, public health, and the natural sciences.  

 

The Sociology program is focusing on a unique combination of areas compared to other sociology programs in the UC system and nationally. While some sociology programs such as UCSB, for example, study race, immigration and political participation, they do not also focus on education and health. The Sociology program at Notre Dame University emphasizes education and political participation, but they do not also include a focus on social inequality (race and gender) and health. Ohio State's Sociology Department includes a strong emphasis on political participation and health, but they do not also study immigration and race. Thus, our program emphasizes a unique combination of areas which will help us attain national distinction while providing graduate students with one of a kind training. The areas we emphasize are synergistic, so that a graduate student interested in immigrant experiences within the educational system, for example, can train with experts in immigration, race and education, in a way that they would be unable to do at any other university in the country.  We have been hiring sociologists with the explicit goal of fostering a cohesive intellectual environment in order to provide excellent graduate training that addresses issues at the cutting edge of sociology, and that are relevant to California and the Central Valley.

 

Sociology, perhaps more than any other discipline, is inherently interdisciplinary. Sociologists study topics that overlap with virtually every other discipline in the social sciences and humanities, including politics, education, and health, among others. We also collaborate with natural science on topics such as the study of scientific disciplines, STEM field education, health, environment, and medicine, and the interaction between biology and the social world. Current Sociology faculty are involved in a range of interdisciplinary collaborations. Van Dyke and Dodson are collaborating with Stephen Nicholson in political science on ballot initiatives and hate crimes. Valdez is working with public health and biology faculty on issues of economic inequality and obesity. Beattie is collaborating with math faculty and graduate students on a study of minorities in STEM fields. Almeida has also worked with a graduate student in Environmental Systems on GIS mapping techniques. Golash-Boza is leading a speaking series with UCM Humanities Faculty to bring internationally renowned race and ethnicity scholars to campus. These cross-disciplinary collaborations have the potential to generate new insights into important social issues, while also providing opportunities for graduate students to receive interdisciplinary research training.

 

Sociology is also participating in interdisciplinary graduate coursework. Most of the sociology graduate students are taking a course in introductory graduate level quantitative methods in Political Science (POLI 210). Several students from the World Cultures graduate groups are enrolled in our current sociology graduate seminars, including Sociological Theory and a Seminar on Race and Ethnicity. We are in discussions with the Public Health faculty about the possibility of making Sociology Statistics courses (Soc 210, 211) a requirement for the Public Health graduate students. We also anticipate graduate students from several other disciplines enrolling in our graduate statistics and research methods courses because of Sociology’s leading roles in these fields within the social sciences generally. Thus, the graduate program in Sociology is providing training for graduate students in a range of disciplines across the university.

 

UC Merced was placed in the Central Valley specifically because of the social challenges facing its residents, social challenges which are the direct focus of sociological research. We would argue that more than any other program at UC Merced, we are developing the capacity to study and train students on issues that are important to the Central Valley.  We are hiring scholars who study race, ethnicity and social class:  disparities along these lines are fundamental to the nature of life in the Central Valley.  We are hiring sociologists who study education: low educational attainment and racial disparities in attainment are critical problems in the Central Valley.  Our research and graduate training address issues of political participation: minorities in the US typically have disproportionately low rates of political participation, in spite of the fact that political action would help address many of the challenges faced by their communities.  We are hiring sociologists who study health disparities: the region has high rates of obesity, diabetes, and other health problems.  The areas of strength and the combination of areas we are developing are unique for the UC system and nationally, and will help us draw graduate students and attain national and even international standing.

 

Situating Sociology within UC Merced

Sociology fits centrally in the fifth strategic research theme identified in UC Merced’s current Strategic Academic Vision - the Dynamics of Social and Economic Progress. We also contribute to the research themes: Human Health; Community, Culture, Identity; and Environmental Sustainability.

 

Some of the university's strengths might be better captured by a research theme of Central Valley/the World. The campus has multiple disciplines building strength in the study of issues important to the Central Valley, including those we describe above. The World Cultures faculty and Sociology study social inequality, including race/ethnicity and gender. Economics, Psychology, and Sociology faculty are building strength in education, an interest also shared by faculty in Natural Science. Psychology, Economics, Public Health and Sociology are developing expertise in health disparities. The population of the Central Valley, with more than 6 million residents, is larger than that of 10 US states. The challenges it faces in terms of health, education, poverty and immigration, are all issues affecting California, and the nation. By emphasizing our expertise in these issues, we can demonstrate that our research programs are important and worthy of support, with implications for the region, the state and beyond.

 

Interdisciplinary research on inequality, health, education, immigration and politics would be strengthened by the formation of additional research centers on campus.  The Health Science Research Institute and Humanities Center have already begun fostering interdisciplinary connections on campus. Sociology faculty have initiated research projects with faculty in Public Health and World Cultures through the HSRI, and have co-sponsored a speaker series with the Humanities Center.  The addition of several more research centers on campus would similarly facilitate interdisciplinary collaborations on other topics.  The Sociology faculty are in discussion with faculty in Psychology and Economics about the possibility of starting an Education Research Center. The UC does not have any research centers with this focus, and the Central Valley would benefit from its presence. A Center for the Study of Comparative Inequalities would connect the Humanities and Sociology faculty while addressing a topic that cuts across many other interest areas on campus, such as Public Health.  Finally, faculty from across SSHA, the Natural Sciences and Engineering have already begun planning a Center for Quantitative and Survey Research. This Center will foster cross-disciplinary collaborations by bringing together faculty who share different quantitative research skills.  These Centers would not necessarily require significant resources, beyond a shared meeting space and possibly funds to bring in speakers and seed research projects, and the pay off would be visible through research collaborations and grant dollars.

 

Metrics for Assessing Graduate Program Standing

We are building a strong and unique sociology program at UC Merced.  Our seven current faculty members have already established a foundation of research excellence, and our goal is to continue building to become a nationally ranked sociology program within 15 years.  We have every confidence that we can achieve this goal.  Among the faculty we have on campus thus far, all have published articles in top sociology journals; 5 of our 7 faculty have been elected to national office within the discipline; 4 have received national awards for their work, and two have received Fulbright Awards.  Several of our faculty have published books with leading academic presses. These are all markers of excellence. In the future, the success of our graduate students will also be an important indicator of the strength of our program, and will be evident by graduate students presenting their research at conferences, publishing their work, and by their post-graduation job placement. 

 

Program Demand

On the UC Merced campus, undergraduate sociology courses fill to near capacity every semester and more quickly than those of almost any other discipline. In the 2012-13 academic year, sociology undergraduate enrollments were the 2nd highest in SSHA, and the 4th highest in the university (not counting math or writing). The number of sociology majors has grown steadily since the program's inception 3 years ago. We currently have 190 majors and more than 130 minors. In spite of our high enrollments, we are one of the smaller programs on campus in terms of faculty numbers. Thus, we have the same number of faculty as some other programs (or fewer), yet teach 4 times the number of undergraduates. Our current faculty numbers are not sufficient for the student demand.

 

Graduate training in Sociology remains popular throughout the UC System, and thus, we anticipate steady growth for our graduate program. Larger schools such as UCLA have over 120 graduate students in residence while smaller campuses such as UC Riverside maintain Sociology graduate enrollments of 50 students. Other UC Sociology programs typically admit only 10% of their applicants, and thus, there is unmet demand for graduate training in sociology in California.  In fall of 2013, in the first year of our specialized graduate program in Sociology in Social Sciences, five out of the seven students that were admitted to our program accepted our offers, while we denied entry to three other applicants. We anticipate sustained growth in a strong applicant pool in the coming years (projected in the metrics worksheet) as we advertise our program more aggressively on a national and international scale, and as our growing number of faculty continue to receive national recognition for their research.

 

UC Merced was placed in California’s Central Valley because its population is underserved by higher educational opportunities and because of the social and economic challenges facing the region. The Sociology Program will provide members of underrepresented groups access to first class undergraduate and graduate training. The research strengths of the sociology faculty are directly relevant, and therefore compelling, to a diverse set of students. Our undergraduate program currently has 190 majors, 70% of whom are Latino. We have the highest percentage of majors that are Latino of any program on campus other than Spanish. Among our current group of graduate students, 5 out of 6 are from underrepresented minority groups. We anticipate training a diverse group of students for both academic and non-academic careers.

  

Growth Plan

Since the first sociologist joined UCM in 2006, we have added 1-2 faculty members per year. Sociology currently has one search underway for a faculty member who can teach Graduate Statistics, and is also currently pursuing a senior hire in Sociological Theory, with an emphasis in race and ethnicity. Assuming we are able to hire one individual to arrive in the fall of 2014, this will bring our total number of faculty to 8, and if we get both we will have 9 faculty. Strategic plans within the School of Social Sciences, Humanities, and Arts have been consistently recommending at least one line for Sociology each year. Thus, by 2020 we anticipate having 15-17 faculty.

 

We plan to continue to grow our strengths in gender, health, immigration, race, and education – as these are areas that are both important to the Central Valley and that build on current strengths of UC Merced.  We anticipate continuing to offer graduate seminars in areas that appeal to graduate students across campus, and collaborating with faculty in other departments on research grants and seminar series. With fifteen faculty, we will be able to offer graduate courses in advanced statistics, sociological theory, gender, race, education, social movements, research methods, qualitative research, and immigration, and we anticipate that these courses will appeal to Sociology graduate students as well as students in public health, psychology, political science, history, anthropology, and literature.

 

We plan on accepting small cohorts of 5-6 students per year reaching between 25-30 graduate students by the fall of 2020. The ratio of faculty to graduate students will be approximately 1:2. By the fall of 2020 we anticipate (based on current commitments and the SSHA Annual Strategic Plan) having 15-17 Sociology tenure-track faculty.  Over the long term we anticipate reaching a graduate student population of around 40 with 20-25 faculty members, which will maintain a 1:2 faculty to student ratio for our graduate program. The metrics worksheet outlines the projected growth of our Sociology graduate program.

 

Space needs

Sociologists require one office per faculty member. Graduate students need (shared) office space as well. Thus, in addition to 15-17 faculty offices, we will require shared office space for approximately 30 students by 2020.  These could be faculty style offices shared by 2 students, or larger spaces with cubicles or work stations, shared by 8-12 students.  Sociologists typically do not require experimental laboratory facilities, however, some do require computer lab space. Sociology currently has one shared secure data lab, and a graduate student computing lab. We expect these labs, along with offices allocated to new faculty and graduate students, to accommodate the size of the Sociology program for several years. However, over the long term we expect to need additional space for research, teaching assistants, and graduate student workspace, in addition to offices for new faculty. Ideally, the program would have a small kitchen or break room, and a small conference room for meetings.

Commenting is closed.

Statistical and Quantitative Research

Proposal Status: 
Principal Authors: 
William R Shadish (Psychological Sciences, Quantitative), along with several dozen supporting faculty from nine programs across all three schools.
Executive Summary: 
Statistics is what philosopher Michael Scriven (2003) called a transdiscipline—it has standalone status as a discipline and is also used as a methodological or analytical tool in many other disciplines. Statistics is essential to modern science. Yet UC Merced does not have a statistics department, and may not for many years. The Center for Statistical and Quantitative Research (CeQR, pronounced “seeker”) seeks to create a central identity for advanced statistical work at UC Merced. CeQR is currently anchored by the quantitative psychology program, which presently has five FTE positions and is the only program on campus offering graduate degrees specifically emphasizing statistics. However, several dozen faculty from nine programs across all three Schools are affiliated with CeQR. These faculty have personal interests in statistics, see a need for advanced graduate statistics training, or want statistical research to grow at UC Merced. Accordingly, CeQR would serve three functions. First, it will encourage cutting-edge statistical research and extramural funding. Second, it will coordinate and develop statistical curricula to help avoid duplication of effort, and to improve graduate education at UC Merced. Third, it will be an intellectual hub in which advanced statistical methods can be discussed and disseminated through such mechanisms as colloquia and workshops.
Initiative Description: 
B. Succinct Definition of Thematic Area. Statistics is so ubiquitous in science as to need no definition . Statistics cuts across any and all strategic academic focusing themes that gather and analyze data. To limit a statistical proposal to just one theme (e.g., data-enabled science and engineering) would decrease its ability to establish generalizable frameworks and thus respond to needs in other themes (e.g., human health). Therefore, this proposal is intended to complement rather than compete with any other proposals. CeQR is more than just an organizational unit. It has an intellectual focus that is consistent with advanced statistical work already ongoing at UC Merced. Here are some examples: Quantitative and Systems Biology uses statistical genetics; Cognitive and Information Science models neural networks; Human Health employs large sample epidemiological analyses; Quantitative Psychology uses Bayesian statistics and generalized additive models; data mining is one key to “big data”. What do these all have in common? They all take advantage of the increased power of computers in the last several decades to develop and apply statistics that were mostly only dreamed before. This theme is sometimes called computer-intensive statistics. Other examples are Markov chain Monte Carlo methodology, the bootstrap, nonparametric and semiparametric prediction, machine learning, data visualization and scatterplot painting, and automated fitting algorithms. C. Intellectual Components of the Strategic Initiative Why is CeQR Important? Statistics departments are often the last units built on a campus, largely because of low undergraduate major enrollment. For example, UC Irvine did not start its statistics department until 40 years after campus opening. Although we would love to see the strategic academic focusing process recommend the immediate addition of a statistics department, that seems unlikely. Yet advanced statistical capabilities remain necessary to the future growth of both research and graduate education at UC Merced. Here is just one of many possible examples. Research in such widely diverse areas as human health, cognitive science, and even the kinds of drone research proposed by CIDER all use multilevel modeling statistics—statistics that take appropriate account of nesting of observations within aggregates (e.g., students in classrooms, air samples within stations, time points within longitudinal cohorts). Graduate students need training in those models, grant proposals benefit from consultants on the analyses, and researchers need colleagues whom they can trust to provide state-of-the-art advice. CeQR can help develop such capacities. What are the Key Areas for CeQR? The key areas for CeQR will emerge from statistical hires already made and to be made in the future. Examples of those areas include statistical genetics, neural networks, Bayesian statistics, generalized additive models, data mining, Markov chain Monte Carlo methodology, the bootstrap, causal analysis, nonparametric and semiparametric prediction, machine learning, data visualization and scatterplot painting, data-enabled science and engineering, mediation analysis, and survival analysis—all examples of computer-intensive statistics. D. UCM’s role in this Theme Current and Potential Strengths. CeQR will be an interdisciplinary statistics center that encourages advanced statistical research and training. The campus already has pertinent strengths in such areas as Quantitative Psychology, Quantitative and Systems Biology, Cognitive and Information Science, and the many programs contributing to Human Health (e.g., Health Psychology, Public Health, HSRI). UC Merced will no doubt add strengths both in existing statistical topics (e.g., Bayesian statistics, neural networks, statistical genetics) and new ones (e.g., data-enabled science and engineering; biostatistics). Interaction among CeQR faculty will encourage sharing of needs and ideas that will help ensure that research and training options are cutting-edge, comprehensive and nonredundant. Distinctiveness and Competitiveness. All UC campuses have statistics departments. However, they mostly have very traditional emphases on mathematical statistics compared to CeQR’s interdisciplinary and applied focus. None represent the full array of computer-intensive statistics already present at UC Merced. What makes UC Merced distinct, then, is that the development of statistics here will be grounded in applied interdisciplinary problems across the university. Exactly how that might affect the eventual addition of a statistics doctoral program or department at UC Merced is not possible to know at this time. Hopefully, it will make that eventuality more interdisciplinary as well. Developing CeQR will increase competitiveness in two ways. First, UC Merced faculty have tried since 2004 to hire a biostatistician, which resulted numerous failed searches until recently. A key reason is that such faculty do not wish to risk being isolated within a substantive specialty without other statistical colleagues. CeQR can provide a statistical environment that will be more attractive to such candidates. Second, graduate students who enter a doctoral training program are attracted by the additional opportunity to increase their statistical skills through options like obtaining a master’s degree in statistics. We know of several such students who specifically cited the lack of such an opportunity as a reason for choosing another university to attend for graduate studies. In addition, existing programs that focus on statistics will benefit from the growth that CeQR envisions. Here is one example. The quantitative psychology program has five FTE faculty lines already, and is the only program at UC Merced to offer graduate degrees in any field of statistics. The UC Merced program is already at the size and productivity level of the other two cognate UC programs at UCLA and UC Davis. UCLA’s program is capped at five faculty, and UC Davis’s at four faculty with two of those faculty leaving. With a relatively small investment of FTEs, the quantitative psychology program can become not only the top such program in the UC system, but also one of the top ones in the nation, at the level of other top programs such as Ohio State University, University of North Carolina at Chapel Hill, Notre Dame University, and Vanderbilt University. It will also be the only such program in the nation specializing in Bayesian statistics . Bayesian statistics are of increasing interest in science as modern computing allows estimation of complex models using variations on Markov chain Monte Carlo methods. It is also of interest to funding agencies. A search of “Bayes” at nsf.gov, for example, yields 506 hits across nearly every scientific area. In addition, specialties represented in quantitative psychology (and already being taught at the graduate level) include structural equation modeling, longitudinal analysis, multilevel models, item response theory, meta-analysis, and experimental and quasi-experimental design. These are topics that are of direct interest to many of the strategic themes, with quantitative psychology faculty already providing statistical expertise to empirical studies and grants across the entire university. We anticipate other such statistical cores will develop at UC Merced. Biostatistics is a likely example. Quantitative and systems biology recently hired a statistician emphasizing Bayesian analyses of genetic data. The Public Health program has hired an epidemiologist to start this coming academic year. The Health Sciences Research Institute is preparing an advertisement for an authorized hire in biostatistics next year; and they approached CeQR to see whether an affiliation with CeQR was possible so as to provide the hire with statistical colleagues. A second example would occur if UC Merced proceeds to develop a data-enabled science and engineering theme, another unique theme that could make UC Merced distinctive. E. What bylaw units/grad groups might participate, and how would they participate? Faculty who have affiliated with CeQR are part of the following programs: School of Engineering—Electrical Engineering and Computer Science. School of Natural Sciences—Applied Mathematics, Quantitative and Systems Biology, Earth Science. School of Social Sciences, Humanities and Arts—Cognitive and Information Science, Economics, Management, Political Science, Psychological Sciences, Public Health, Sociology. Befitting its transdisciplinary status, CeQR is mentioned as a component of several strategic focusing proposals. These include the Center for Human Adaptive Systems and Environments (CHASE); the Entrepreneurship Research Institute (ERI); Computational and Data Science (CDS); Management of Innovation, Sustainability, and Technology (MIST); the School of Management and Economics; Political Science; and the Psychological Sciences Healthy Development proposal. Still other proposals mention the need for expanded graduate level statistical and quantitative education. Indeed, it is difficult to think of any scientific theme that would not benefit from a synergistic relationship with a statistical focus. For example, the Spatial Analysis and Research Center (SpARC), and the Economics Strategic Initiative do not specifically mention CeQR; but they do mention “building strength in quantitative methods and synergies” (Economics), “data creation, …data analysis and data serving services” (SpARC). Even proposals that make no specific mention of statistics, such as the California Institute of Drone Engineering Research (CIDER), in fact require advanced statistical analyses like multilevel modeling (because sampled observations are often nested within geographic areas). The aim of the present proposal is not to limit CeQR interests to any single one of these foci, but rather to help all of them. By facilitating the coordination and dissemination of statistical methods across numerous research areas on campus, CeQR can help prevent unnecessary redundancies in graduate training and foster interdisciplinary research collaborations. Of course, all these faculty are actively participating in other strategic focusing themes, as well. Their interest in CeQR lies in the transdisciplinary appeal of statistics across all the scientific disciplines. Their participation in CeQR is likely to include (a) graduate students taking statistical and quantitative coursework, (b) teaching those graduate courses, (c) seeking out the collaboration of statistical colleagues to improve the creation and analyses of data, both for publications and for extramural grants, (d) attending CeQR colloquia and workshops on statistical topics, and (e) creating a master’s program in applied statistics that all graduate students can take to improve their research and their market competitiveness. F. General description of special programmatic needs (specialized space requirements, special library collections, etc.). Computation Facilities: Statistical and quantitative work in general, especially of the computer-intensive kind that UC Merced faculty already do, requires high capacity computational facilities. The present proposal shares this need with many other programs and strategic focusing proposals. In the case of CeQR, the most desirable version of this would include both high-speed computers for extensive computer simulations, and multi-user servers with statistical software packages. A central statistical organization could also improve licensing efficiency for proprietary software. Dedicated specialty computer labs would also be useful. An example would be a computer lab for running controlled experiments with human subjects in Management or in Political Science. Faculty FTEs: Because CeQR is not a bylaw unit, it will not have faculty FTE’s placed within it. However, faculty FTEs devoted to statistical hires are a high priority. This could occur in several ways. 1. One is to allocate FTEs to existing bylaw units specifically aimed at statistical hires. For example: a. Quantitative psychology FTEs could be allocated to the Psychological Sciences bylaw unit; b. Statistical genetics biostatistical FTEs could be allocated to Quantitative and Systems Biology. c. Public Health is interested in expanding biostatistical hires; d. The management program has interest in hiring faculty who do experimental analysis like Fischbacher's z-Tree. e. Political Science is interested in hires focusing on causal analysis and methodology, and on advanced statistical methods such as Semiparametric regression. 2. A complementary mechanism would be to do a cluster hire in a topic, such as Bayesian statistics or data mining. 3. A third way could be to allocate FTEs to CeQR for competitive proposals from around UC Merced to hire statistics faculty. Budget: CeQR would benefit from funding for a colloquium series, for graduate student travel to attend conferences and workshops, to initiate a summer workshop series, and for faculty and graduate students to submit grant proposals for seed money for research. A speaker series could bring in scholars with expertise currently lacking on campus, and thus could enhance the quantitative training available to both faculty and graduate students. The participation of faculty from across disciplines in seminars and workshops would foster the exchange of knowledge across disciplines. UC Merced does not currently have a comparable venue for these sorts of exchanges. A summer workshop series could generate income and provide additional training for graduate students and faculty. Longer Term Infrastructure: Looking to 2020 and beyond, UC Merced should consider two additional developments. First might be the development of a research institute at UC Merced, similar to the Health Sciences Research Institute, that would coordinate the many efforts currently underway at UC Merced to advance diverse kinds of statistical and computational work. Such an institute could serve as an umbrella for coordinating and administering existing and proposed centers such as CeQR, including the Center for Human Adaptive Systems and Environments (CHASE), the Center for Computational Biology, and the Center for Theory and Computation. Second, statistical and quantitative research at UC Merced would benefit from the development of a statistical consulting center and a survey research center, and eventually, a statistics department. These may have to be longer range plans given existing resource constraints. The Central Valley does not have a comparable quantitative research center, yet would definitely benefit from its presence. UC Merced faculty have received numerous contacts from Valley community members seeking assistance with research, especially survey research. A quantitative research center would thus not only benefit UC Merced faculty, but would also potentially serve a need in the community. Graduate and Undergraduate Training. CeQR also aims to coordinate statistical offerings across campus. A website will list CEQR activities, a list of pertinent faculty with their quantitative interests, and a list of pertinent quantitative courses at both the graduate and undergraduate level. CeQR faculty hope to develop (1) an undergraduate interdisciplinary minor in statistics, (2) a possible summer workshop series that might serve as a source of income for CEQR and a source of training for UCM and other graduate students, and (3) a graduate master’s degree in applied statistics that could be taken by graduate students already in other programs. A number of programs at UC Merced have expressed interest in the master’s program because it both aids research and provides a credential that improves the marketability of graduate students once they enter the job market. The ability to accomplish these goals, especially the master’s degree, depends partly on continued hiring of statistical faculty.

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Women's, Gender, Sexuality Studies

Proposal Status: 
Principal Authors: 

Jan Goggans

Executive Summary: 

As UC Merced expands its initial vision of interdisciplinary research and teaching, it moves increasingly to national significance and prominence.  One prominent area of research, study, and education is surprisingly absent from UCM, although since its inception it has defined the term interdisciplinary: women’s studies.  We are proposing the development of an undergraduate minor in Women’s, Gender, and Sexuality Studies beginning in 2014, followed by a major in 2017-18.   In addition, we will begin to offer a graduate certificate in WGSS in 2016-17.  The program would depend primarily on existing disciplinary courses, growing organically as our faculty grows.  The questions the field asks are the most basic questions of human existence: What has it/does it mean to be male or female in society?  How is that expressed in language, thought, culture, politics, and social organization?  And significantly, why is gender a metric for inequality?  .

 

 

Initiative Description: 

 

Women’s, Gender, and Sexuality Studies

 

 

 

UC Merced has made interdisciplinary scholarship a cornerstone of its identity.   In proposing an area of focus on Women’s, Gender, and Sexuality Studies, we are bringing together a group of faculty from a range of arts, humanities, and social science fields and reaching out to NS and ENG to share a common interest in the ways gender and sexuality shape various aspects of our world.  Over the past forty years, scholars across the academy – first under the rubric of women’s studies, then women’s and gender studies, and most recently through Women’s, Gender and Sexuality studies --  have been studying the social and cultural constructions and implications of gender and sexuality.  This work has always been fundamentally interdisciplinary, as scholars quickly discovered that the disciplinary frameworks of the academy, created to understand the world of late 19th century Europe, often rendered the experience of women, and even the existence of gender, invisible; the disciplines assumed that gender was natural, the same across time and place.  Yet as scholars studied women’s lives, it became clear that ideas of gender – the nature and proper behavior of men and women – have varied enormously.   By the 1990s, it was clear that not only was gender a socially constructed set of relationships, but sexuality, rather than being fixed and natural, was equally socially constructed.  The interdisciplinary study of gender and sexuality has flourished across the academy.   

 

The central questions of the field are deceptively simple: What has it/does it mean to be male or female in society?  How is that expressed in language, thought, culture, politics, and social organization?   How do ideas of gender act as either metaphors for or avenues for systems of power?   How is sexual identity and behavior defined and policed?  How has it been expressed?  These questions all provoke new ones; they shape how we read literature, look at art, understand dance, family, education, language, psychology, economics.  Studies of gender and sexuality are germane to each of the areas delineated in the 2009 Strategic Academic Vision.  Ideas of gender shape attitudes to nature, and thus contribute to environmental issues; the social organization of gender leads to an unequal distribution of resources, and thus also contributes to health disparities.  Ideas about gender shape the way we speak, and the way we are heard, thus creating a central question for cognitive sciences. Questions of gender and sexuality run through any consideration of “Culture, Community, and Identity”, and issues of gender are also central to understanding dynamics of social and economic progress. In current discussions in the field, one of the burning questions is related to what scholars call intersectionality – the ways in which gender and sexuality are inflected by other markers of identity, including race, class, ethnicity, and religion.  

 

 

 

The interdisciplinary focus of UC Merced makes a program in Women’s, Gender, and Sexuality a logical fit.  There is significant research related to gender in all of the areas outlined by the Strategic Academic vision. There is a growing group of faculty interested in issues of gender and sexuality.  We therefore propose that part of the 2020 plan should be to build on our existing strengths by developing a formal program in Women’s, Gender, and Sexuality Studies.   This program would begin with an undergraduate minor, and ultimately a major.  While we do not believe that we can build a Ph.D. program in Women’s Studies by 2020, we propose that we develop a graduate emphasis that both MA and Ph.D. students can complete in the course of their doctoral program.  This emphasis (the approach taken at Berkeley, Davis, and Irvine) would provide an introduction to the major theoretical approaches in women’s studies.  Such a certificate will help build both the intellectual skills and the employability of our graduates, while also stimulating faculty research.

 

 

 

Both the undergraduate program and the graduate emphasis will provide research opportunities that have significant intellectual and personal attractions.  A multifaceted area studies program in this vein offers diverse and important research opportunities for faculty and students; additionally, there are important reasons for students to take such courses, and faculty to teach them. A 2012 article by Hilary Watchler explains the benefits of a major such as this one, pointing out the direct relevance of the program to recent political issues (such as women's health and birth control), contemporary health and wage disparities, and ultimately, everything -- the issues discussed in a program such as the one we propose address questions of biology, culture, sociology, economics, politics and policies—all of which impact our lives every day.  Furthermore, a program in Women’s, Gender, and Sexuality studies provides an intellectual framework for GLBT students to understand their own experience.

 

 

 

Resources

 

Currently, faculty at UC Merced with interests in areas of Women’s Gender, and Sexuality Studies teach in undergraduate programs in Anthropology, Cognitive Science, English, History, GASP, and Sociology.  As in many places, a program in Women’s, Gender and Sexuality Studies would depend primarily on courses already taught in existing programs.  To build the faculty in the field, we propose a two pronged strategy.  First, we propose the addition of two or three faculty hired with a primary responsibility in women’s studies.  They could be housed in any one of the SSHA Acacemic Units, and would teach introductory courses in the field, as well as core graduate seminars and capstone courses for the major.  In addition, we propose the allocation of 3-5 lines in one year to make a cohort hire in existing programs whose teaching would also serve Women’s, Gender, and Sexuality Studies: there could be a competition, so the lines could both meet the needs of the contributing disciplines and the program.

 

Central to our vision of Women’s, Gender and Sexuality Studies is that it does not become another silo, but instead is woven into the fabric of existing programs.  In this way, building a successful program in Women’s, Gender & Sexuality Studies will simultaneously strengthen other areas of focus on campus.

 

 

 

In terms of space needs, the proposed program will require nothing more than faculty offices.  Minor additions to the library holdings and electronic offerings may be requested so that new faculty have access to the materials they need for their research and teaching.  Staff support can be provided through the means accorded to other SSHA programs; currently through staffing centralized in the Dean's Office, potentially with a dedicated staff member in the future.

 

 

 

Contribution to UC Merced’s Success in 2020

 

Women’s, Gender and Sexuality Studies is taught at almost every college and university in the country.   Research in the field has reshaped all the disciplines of the Humanities, Arts, and Social Sciences over the past forty years.  In one sense, the development of such a program is just one more step in our becoming a university with a full range of academic programs.  Even more, however, the development of the program, and the faculty network it will support, will encourage additional research, and stimulate new research through interdisciplinary dialogue.  

 

 

 

Burgeoning in the heady sixties and seventies, women’s studies began as part of political action.  The single subject focus shifted when third wave feminist study changed the complexion and approach of early models, adding sexuality studies, gender studies, and masculinity studies, creating a multi faceted, exciting, intellectually engaged approach to understanding identity formations within the context of political action. This emphasis on interaction with the world fits well with UCM’s focus on community service and the Blum Center, which is about equity oriented solutions.  Using the service learning model, WGSS plans to include undergraduate field experience that will ideally be applicable and appealing to students in most, if not all, UCM majors.It also fits well with the campus’s commitment to undergraduate research.   We also see it working in and with a range of other existing or proposed interdisciplinary programs on campus: Race & Ethnicity Studies, Working Class Studies, Public Health, and Environmental Studies.

 

 

 

Comparable Programs

 

Every other UC Campus offers study in areas related to Women’s, Gender, and Sexuality Studies.  

 

Campus

Undergrad Programs

Grad Programs

UCB

Gender & Women’s Studies (major and minor)

LGBT Minor

Designated Emphasis

UCD

Sexuality Studies (minor); Women & Gender Studies (major and minor)

Feminist theory and research (designated emphasis)

UCI

Women’s studies major and minor; queer studies minor

Emphasis in feminist studies

UCLA

Gender Studies B.A. (major)

Ph.D. Gender Studies

Certificate in gender Studies

UCR

Women’s Studies (major and minor)

 

UCSB

Feminist Studies (major and minor; Lesbian, Gay, Bisexual, Transgender and Queer Studies (minor)

Feminist Studies

UCSC

Feminist Studies (major)

Feminist Studies Ph.D

UCSD

Critical Gender Studies (major and minor)

 

UCSF

Center for Gender Equity (resource)

Race, class & gender & health inequalities: Sub-discipline in Sociology

Research area in Women’s Health

 

 

 

The certificate approach has been used at (for instance) University of Michigan, the University of Maryland, University of Wisconsin, and Duke University.

 

 

 

Significantly, most UC campuses encourage students to pair one of the above degrees with another, and many offer a program that combines more than one of the above. Thus, combining these three areas follows a “best practices” approach in this field by providing a diverse and highly interdisciplinary field that focuses on the complex interaction of gender with other identity markers such as race, ethnicity, sexuality, nation, and religion.  Women’s, Gender and Sexuality Studies will build on, strengthen, and enrich existing campus initiatives related to engaged scholarship and social justice, and in doing so will serve the intellectual breadth and diversity of the campus.  

 

The following faculty support this proposal.  Some teach current courses appropriate for an undergraduate minor and/or major, and some will, or hope to soon; some offer graduate level courses that would serve a graduate program in this area:

 

Susan Amussen, History

 

Ireenie Beattie, Sociology

 

Tanya Golash-Boza, Sociology

 

Gregg Camfield, English

 

Jan Goggans, English

 

Mariaelena Gonzalez, Psychology and Public Health

 

Rowena Gray, Economics

 

Laura Hamilton, Sociology

 

Nigel Hatton, English

 

Carolyn Jennings, Cognitive Science

 

David Kaminsky GASP

 

Valerie Leppert, ENG

 

Virginia Adan-Lifante, Spanish

 

Teenie Matlock, Cognitive Science

 

Sholeh Quinn, History

 

Linda Anne Rebhun, Anthropology

 

David Torres-Rouff

 

Anna Song, Psychology

 

Jessica Trounstine, Political Science

 

Nella Van Dyke, Sociology

 

Anne Zanzucchi, MWP

 

 

 

Impact Metrics: 

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Sustainability: Environment, Energy, Climate and Communication

Proposal Status: 
Principal Authors: 
Peggy O'Day, Environmental Systems Graduate Group Chair; Martha Conklin, Interim Director, Sierra Nevada Research Institute and Environmental Engineering; Marilyn Fogel, Life and Environmental Sciences Unit Chair
Executive Summary: 
Human activities are driving unprecedented changes in Earth systems of climate, biosphere, hydrosphere, atmosphere and cryosphere, while depleting natural resources and creating social, economic and political impacts that demand long-term, multi-faceted solutions. The consequences of human-environment interactions and resource impact are felt locally in California's Central Valley and Sierra Nevada, and globally in resource-strained communities, cities, and countries. Sustainability unites research and education elements at UC Merced involving coupled ecological and human systems of the Earth, and the development of sustainable pathways and practices through integration of basic research and technological solutions across disciplines. This initiative aligns elements proposed in SAF Round 1 from the Environmental Systems (ES) Graduate Group, the Sierra Nevada Research Institute (SNRI), and the Life and Environmental Sciences (LES) bylaw unit. It also draws from prior ES, LES, and Environmental Engineering (ENVE) strategic plans to build on existing strengths, takes advantage of campus centers and institutes, and links to other proposed initiatives with elements related to sustainability, natural resources, and the environment. This strategic initiative outlines five specific areas of growth that build on core strengths at UC Merced: 1) sustainability science and engineering, 2) renewable energy, 3) climate and atmosphere, 4) environment and health, and 5) communication and sustainability. These areas both represent opportunities within the UC system, and are central to building a sustainable future. In the long term, we envision building an interdisciplinary, innovative academic school that would add visibility to the strategic focus of sustainability. A school would vertically integrate undergraduate, graduate, and research endeavors, overcome current academic fragmentation, and physically unify faculty, students, and staff through additional buildings and research facilities.
Initiative Description: 
B. Definition of the Thematic Area. UC Merced’s 2009 Strategic Academic Vision identified Environmental Sustainability as a key interdisciplinary theme for organizing research initiatives and academic programs. The goal of this theme is to establish research and educational programs of coupled ecological and human systems that support sustainable use of energy, water, soil, and ecosystem resources. Addressing threats to human and ecosystem health, loss of biodiversity, and food and water security associated with global change requires integration of basic research and technological solutions across disciplines. The field of sustainability science and engineering examines both fundamental interactions between nature and society, and society’s capacity to create and follow sustainable trajectories. Education and communication involving our matriculated students, government and business, and the public are critical components to program success in addition to research and technology development. Thus, our thematic focus on sustainability provides a context and focus for multiple groups and research areas across campus in natural sciences, engineering, management, social sciences, humanities and arts. Does it fit in one of the nine (9) defined Themes? This initiative directly addresses three themes identified by the Strategic Academic Focusing working group: 5) Environmental Sustainability, 6) Energy and Energy Systems, and 9) Life Sciences. It is synergistic with themes 1) Disparities: Equity, Diversity, Social Inequality, 3) Human Health and 4) Innovation and Entrepreneurship, and 7) Information, Computational, and Data Sciences, and Engineering. Are there other SAF Initiatives that, in your opinion, might contribute to this Theme? This initiative is complementary to the proposal from the School of Innovation, Management, and Economics (SIME), particularly in the overlapping areas of innovation, sustainability, technology, environmental management, and resource economics. It links to the initiative in Cognition, Computation, and Human Data Science through the Center for Climate Communication, the Center for Human Adaptive Systems and Environments (CHASE), and other research on human-environment interactions and communication. The California Institute of Drone Engineering Research (CIDER) initiative supports efforts in this proposal related to sustainable agriculture, biodiversity, pathogen risk assessment, and environmental engineering. Initiatives related to public health and infectious diseases from the Health Sciences Research Institute (HSRI) and the Molecular Cell Biology (MCB) group link to our components in health and environment. The systems approach of integrated observation and modeling, and the emerging systems ecology theme in Quantitative and Systems Biology (QSB) link to our focus areas of sustainability science, and health and environment. Other links include the emphasis on environmental ethics in the Applied Philosophy strategic initiative, and elements of social, economic, and gender disparities related to environmental resources and sustainability that drive the SAFI2 proposal on Diversity, Inequalities, and Representation. Initiatives in General Education related to environment and society connect with our undergraduate degree programs and to student scientific literacy campus wide. C. Intellectual Components of the Initiative Why is this area(s) important? The combination of global change and human population growth places unprecedented stresses on environmental, ecological, and agricultural systems, creating new threats to human health, ecosystem viability, and food, water, and energy security. Human societies and natural ecosystems globally depend on our ability to manage resource consumption and mitigate adverse impacts of human actions on people and the environment, which requires combining basic research, applied technologies, effective communication, and research translation to stakeholders and policymakers. UC Merced is uniquely poised to advance basic science and applied solutions in sustainability from its existing base of transdisciplinary faculty research, interdisciplinary graduate and undergraduate degree programs, and cross-unit research institutes and centers. What are the current key areas/achievements in this field, and those going forward? For decades, scientists have documented human perturbation to the Earth's climate system and its subsequent impacts on chemical and biological cycles. Anthropogenic impacts on critical earth systems are global, but their consequences are felt regionally and locally in coupled human-environment systems that affect water supplies, agricultural yields, air quality, fisheries, and ecosystems. Faculty in ES, SNRI, ENVE and LES have a strong track record of research and extramural funding in collaborative projects and as individual investigators related to the impacts of global change on water, air, soil, ecosystems, and biodiversity. We have a core of faculty working in basic research in environmental genomics, biogeosciences, and ecosystem science, and in applied areas of environmental engineering, sustainability, and management. Many faculty have strong partnerships with government agencies and local stakeholders. The ES Graduate Group and SNRI are the intellectual center on our campus for research and graduate education in the areas of environmental and sustainable systems, and link to existing undergraduate programs in Environmental Engineering, Earth Systems Science, Environmental Science and Sustainability (minor), and Biological Sciences (Ecology and Evolutionary Biology emphasis). D. UCM’s Role in this Theme The UCM Campus’ unique position in this particular field and current strengths on campus. Faculty in the ES graduate group and affiliated with the SNRI share a common interest in the study of natural and human-impacted environmental systems and the services they provide – their functioning, health, and sustainability on a planet experiencing rapid climate and ecosystem change. The scope of research within the group falls within the cross-cutting areas of: - 1. Water, soil, air and climate science and engineering - 2. Ecology, ecosystems and biodiversity - 3. Sustainable energy systems - 4. Natural resource science, economics, policy and management. These areas are central to the mission of the campus and address broader societal needs. Research of existing faculty is mostly within the first three areas; the last area is currently being developed jointly with management faculty in the SOE as part of the proposed graduate program in Management of Innovation, Sustainability and Technology (MIST). Each area above has significant potential for growth of high-impact research that integrates science, engineering, and social sciences. This plan identifies areas of strategic growth for research and education where UC Merced can fill critical niches within the UC system, develop collaborations with colleagues from other campuses, and compete nationally. This strategic initiative outlines five specific areas of growth that build on core strengths at UC Merced: 1) sustainability science and engineering, 2) renewable energy, 3) climate and atmosphere, 4) environment and health, and 5) communication and sustainability. These areas are central to the goal of building the knowledge base, technologies, and management solutions required for the sustainable use of resources and ecosystems in California, nationally and globally. 1. Sustainability Science and Engineering. Long-term water and food security is threatened by climatic effects on agriculture – an issue of paramount interest to the Central Valley and the State. Regionally and statewide, agriculture, ranching, timber and nature tourism play important roles in our economy and society, but these activities directly impact the sustainable use of water, soil, land, and energy. A major strength of our current academic and research programs is the strong integration of science and engineering that supports close coupling of science-based engineering, technology, and management solutions. Two areas of strategic development are: a. Food and Water Security. Irrigated agriculture in the western U.S. depends on seasonally accumulated snow runoff from mountain watersheds. Warming temperatures are resulting in a shift from snow to rain and earlier snowmelt, which affects the timing of water availability for downstream agriculture and stresses seasonal water-storage capabilities. Extended dry periods under a more variable and changing climate will further impact water resources and agriculture. The debate around water security in California involves advocates for both “hard” (e.g., new storage and conveyance infrastructure) and “soft” (e.g., institutional arrangements, demand management) solutions to water supply challenges. A role for UC Merced is to build the knowledge base for better information that can support both hard and soft approaches, and to conduct research and development that provides this information. UC Merced has a leadership role within UC for water research, particularly around the Sierra Nevada and similar areas in the west, that serves as a strong foundation for expansion in agroecosystems and water security. Expanding research in the Central Valley is an opportunity to leverage existing strengths in water research and build a complementary area of excellence. Areas of potential research include global change impacts on quantity, quality, and timing of water supply and hydropower resources; water-information systems for both supply and demand, and for both planning and operations; water resources management; and groundwater management. b. Biodiversity and Ecosystem Science and Services. Global change and population growth strongly impacts ecosystem function and services, and consequently, the strategies for mitigation of adverse impacts and adaptation. Ecosystems are undergoing rapid change in response to the pressures of global change as well as local land use changes driven by population growth. UC Merced is poised to play a leadership role in the biodiversity and ecosystem science community, with core faculty in ecology, evolution, ecosystem science, microbiology, environmental genomics, and biogeochemical cycling. As one example, the Central Valley will undergo extensive, large-scale ecosystem restorations activities over the next few decades, with possible investments of several billion dollars and changes in water use. Potential ecosystem services and associated research is critical to the state’s economy and quality of life, and has global relevance. Broad areas of potential research include: ecosystem productivity and carbon storage; wildlife habitat quality and maintenance of biodiversity; ecological disturbance (e.g., wildfire, insect outbreak, drought-related mortality) and post-disturbance changes; adaptive management and regional planning for sustainable ecosystem functioning and services. 2. Renewable energy. Renewable energy systems such as solar, wind, hydroelectric, and biomass will play a major role in sustaining the economy and in improving environmental quality in California, the nation, and the world. The state has identified critical needs for research, development, and demonstration, including energy-efficient technologies, renewable generation, clean fossil generation, transportation fuels and vehicles, and bioenergy. Major, immediate efforts to focus research and technology investments towards these alternatives are critical to address the state's mandate to reduce greenhouse gas emissions to 1990 levels by 2020, and goal to lower emissions to 80% below 1990 levels by 2050. Using the region as a laboratory, there are research opportunities in integrating renewable technologies with production agriculture, including biomass, wind and solar. Attractive areas for growth are life-cycle engineering, industrial ecology, and planning and design of energy-efficient infrastructure and buildings. A center or institute in renewable energy would support opportunities for expanding research and educational opportunities in engineering, particularly Civil Engineering, and enable new opportunities in the areas of policy and management. UC Merced has a base of research in this area; e.g., the UC Advanced Solar Technologies Institute (UC Solar), a multi-campus research institute led by UC Merced. Our foundation in renewable energy is excellent and we are well poised to expand this area. 3. Climate and Atmosphere. UC Merced plays a leadership role in multiple aspects of climate within the UC system and nationwide, and fills a critical niche in the UC system by connecting fundamental climate science with research on impacts, mitigation and adaptation. The Sierra Nevada and Central Valley offer outstanding opportunities as well as natural laboratories for research. Together, they offer the research infrastructure and settings to study many of the challenges facing the nation. We have a strong core group working on applied climate science, primarily related to water and fire. As the state, nation and world search for climate solutions, numerous opportunities for research in related areas are emerging. The San Joaquin Valley has the distinction of having the worst air quality in the nation, which will likely worsen with global change through wildfires, dust, and anthropogenic pollution. Poor air quality affects the region’s public health, economy and general quality of life. These problems make the Central Valley and Sierra Nevada region an excellent natural laboratory for air pollution and environmental health research. UC Merced has started building research capabilities in the area of air quality and its impacts, but the potential remains largely unrealized. Research in this area can have important, direct impacts on public policy and environmental justice, which is highly complementary to research in the new UCM Blum Center for Developing Economies. UC Merced has a pivotal role to play in developing the science of air pollution, human and ecosystem health effects, and engineering solutions. 4. Health and Environment. The economic impacts of pathogens on agriculture and the food industry, the threat of bioterrorism, natural disasters, and the increasing need to ensure clean and safe air and water are some of the compelling examples of how fundamental research in Health and Environment directly connects to social, economic, and political impacts both locally and globally. Microbial life and the biogeochemical processes they underpin are key drivers of, and rapid responders to, global environmental change and its impact on humans. Target areas that build on existing strengths are: a. Environmental microbiology and microbial ecology. Microbial communities play important roles in nearly all of the issues outlined above and below, from sustaining productivity of managed and natural lands, to treatment and bioremediation of contaminated waters, to their emergence as infectious agents. An improved understanding of the various positive and negative feedback responses of microbial processes to global change is essential to fundamental understanding and mitigation of impacts on human health, agriculture, water quality, and ecosystem function. This challenge is complicated, however, by the vast diversity of microorganisms in the environment and the dynamic nature of microbial genomes and communities. Interdisciplinary and novel approaches to understanding and using microbially mediated processes that influence health and environment include fields such as microbial genomics, ecology and evolution of microbial communities, geomicrobiology, environmental symbiosis and pathogenesis that can be studied with field, laboratory, analytical, and simulation methods. b. Ecology and evolution of infectious disease. Emerging infectious diseases that may be transmitted to humans from animals (i.e., zoonoses) and environmental reservoirs provide one of the most unpredictable and significant threats to human health (e.g., HIV, SARS, and Valley Fever). Climate change is expected to affect transmission of infectious diseases through altered range or abundance of animal reservoirs or insect vectors, and prolonged transmission cycles, resulting in increased incidence of diseases such as Hanta virus, Lyme disease, and West Nile virus. Parallel threats for crops evolved alongside key agricultural systems (e.g., wheat rust, diseases of bananas), and longstanding threats are acknowledged in the evolution of antibiotic resistance in part due to prophylactic use in agriculture. We aim to understand population dynamics and genetics of reservoir species, hosts, pathogens and their interactions, as well as to address cultural, social, behavioral, and economic dimensions of healthy ecosystems. The program builds on existing strengths in ES, LES, and in HSRI, the environment and health group, and the infectious disease and immunity group. 5. Communication and Sustainability. The way messages about natural resources and sustainability are framed and disseminated has direct but differential impacts on diverse stakeholders’ perceptions and attitudes about issues related to protecting and managing resources, such as air, soil, water, and species. This in turn influences policies and programs related to energy, land use, conservation, wildfire management, water use, and air quality. Implementation of science and engineering solutions for resource sustainability requires that different segments of society understand and accept information, adopt new technologies, and change their practices. Communication and society aspects of sustainability offer multiple, unique opportunities for local research in the Sierra Nevada and Central Valley that apply globally, and UC Merced can lead in innovative research. Sustainable development in response to population pressure poses multiple challenges for science, engineering, and technology, and their intersection with political, social, and cultural values. Research in this area may encompass approaches to integrative adaptive management, or alternatively, consider diverse issues such as environmental justice and the intersection of environmental sustainability research with politics and policy. Growth in this area will build connections between cognitive sciences and management, and natural sciences and engineering, through the interface with the new Center for Climate Communication spawned in SNRI. Another potential partnership is with the UC Division of Agriculture and Natural Resources to communicate with local stakeholders about impacts of climate and ecological changes on agriculture and water resources. Other research and learning opportunities exist through co-curricular activities (e.g., with the Office of Student Life) and mapping of human activities such as land use and resources through time (e.g., with SpARC and Library). For non-majors, complementary programs in General Education such as Writing in the Disciplines and Information Literacy with the Library are key to creating a public able to stay abreast of rapidly changing issues and equipped to make informed decisions about sustainable resource use. How will investment in this area make our program distinctive/competitive when compared to programs within UC and other research universities? Currently at UC Merced, the ES graduate group and SNRI occupy a unique position bridging science and engineering, and incorporating relevant elements of social and cognitive sciences. Our undergraduate degree programs in Earth Systems Science, Biological Sciences, and Environmental Engineering are delivered by faculty from different schools and academic units (see table). At established universities, inter- or multi-disciplinary programs in environmental research are often amalgams of traditional disciplinary departments. Strategic development of the sustainability theme would vertically integrate research among faculty, professional staff and post-doctoral scholars, graduate student training, undergraduate degree programs, and public engagement, education, and outreach, as well as horizontally linking research and academic programs across schools and institutes. The lack of barriers enables us to leverage a relatively small group of faculty to innovate in new ways, discover connections between disparate fields, shorten paths from basic research to application, respond rapidly to new funding opportunities, establish unique academic program and training opportunities, and communicate and translate research beyond the university. A landmark, bold move for UC Merced could take this theme a step further to establish an integrative school (e.g., School of the Anthropocene, School of Sustainability) that leverages the interdisciplinary goals of UC Merced and innovates within the UC System, nationally, and internationally to meet our interlocking mission of research, teaching, and service. This proposed transdisciplinary, innovative school would add visibility to the strategic focus of sustainability, and overcome current academic fragmentation and poorly defined resource streams (three schools, multiple academic units). Our current structure create barriers for leveraging resources such as graduate student funding, staff support, appropriate research and office space, and faculty efforts in teaching, graduate student mentoring, and program administration. Physical unification of faculty, students, and staff in a thematic building cluster on campus would support and highlight research, education, and non-academic partnerships around sustainability. Both physical integration and administrative unification through this new School would create a hub for research and solutions to environmental problems and sustainable resource use in the Central Valley and beyond. E. What bylaw units/grad groups might participate, and how would they participate? Academic Units Graduate Programs Undergraduate Degrees Institutes & Centers Life & Environmental Sciences (LES) Environmental Systems (ES) Environmental Engineering (ENVE); Mechanical Engineering (ME) Sierra Nevada Research Institute (SNRI), Vernal Pools & Grassland Reserve Engineering (Environmental, Mechanical, Materials) Earth Systems Science (ESS); Environmental Science and Sustainability (ESSu minor) Center for Information Technology Research in the Interest of Society (CITRIS); UC Solar Cognitive and Information Sciences (CIS) Cognitive and Information Sciences (CIS) Cognitive Science (COGS) Center for Climate Communication Molecular Cell Biology (MCB) Quantitative and Systems Biology (QSB) Biological Sciences / Ecology/Evolutionary Biology (BIO/EEB) Health Sciences Research Institute (HSRI) Management (future) Management (future) Management (MGMT) Spatial Analysis and Research Center (SpARC) Faculty in ES and SNRI hold appointments mostly in the Schools of Natural Sciences (SNS) and Engineering (SOE), primarily in the LES academic unit in SNS and in the Environmental Engineering group in SOE, with affiliates from the groups indicated above. Faculty associated with this initiative teach in a range of undergraduate programs, primarily Environmental Engineering, Mechanical Engineering, Earth Systems Science, Biological Sciences, Environmental Science and Sustainability (minor). Faculty and students would participate in this initiative through the ES Graduate Group, the undergraduate degrees and graduate programs indicated above, SNRI, and related institutes and centers. F. General description of special programmatic needs (specialized space requirements, special library collections, etc.). Faculty in ES/SNRI/LES/ENVE and other disciplines represented in this strategic initiative have diverse space needs, including a mixture of high-performance analytical laboratory space (i.e., one pass air, fume hoods, access to services, emergency backup power), shared instrumentation labs, space for processing environmental samples (water, soil, air, biota), instrument development and electronic labs, and computational and visualization studies. A current critical need is for an environmental research facility consisting of a greenhouse complex, growth chambers, and related indoor and outdoor experimental areas. Environmental research mixes experiments and observations in natural systems, semi-controlled outdoor settings, and controlled laboratories, and research is currently limited by the lack of a high-performance environmental research facility. Further, ample and accessible storage space for field equipment and supplies is desperately needed. Such a facility would allow space and conditions necessary for excellence in basic and applied research in sustainability, which requires a tight linkage between experiments in the laboratory and observations in the field.
Impact Metrics: 
Other Supporting Documents: 

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Strategic Plan for the Merritt Writing Program

Proposal Status: 
Principal Authors: 

Anne Zanzucchi, Robert Ochsner, Paul Gibbons, and Tom Hothem

Executive Summary: 

The Merritt Writing Program (MWP) is distinctively focused on teaching within the guiding context of a research university that is student-centered. With research-based learning as a guiding standard, the MWP will intensify field-specific course offerings and interdisciplinary connections to develop a Writing Major and a Masters in Fine Arts. To augment interdisciplinary scholarship, the MWP will develop integrative general education programming and implement writing-in-the-disciplines curricula for institutional priority areas. With writing competence as foundational to success in our university’s degree programs and overall administration, the MWP will strengthen institutional partnerships to develop a Writing and Reading Center that provides professional, supplemental writing instruction for undergraduates, graduate students, and post-doctoral scholars. To support institutional growth at the graduate level, the MWP will expand advanced writing and pedagogy curricula and partner with academic programs to provide graduate teaching opportunities in general education.

Initiative Description: 

Strategic Vision

UC Merced’s Strategic Vision (2009) emphasizes the principles of a student-centered research university, founded on a long history of University of California educational aspirations. Influential to this vision is the Boyer Commission’s Reinventing Undergraduate Education: A Blueprint for America's Research Universities (1998), whichrecommends making research-based learning standard, removing barriers to interdisciplinary education, linking communication skills and coursework, focusing on freshman year as foundational, and educating graduate students as apprentice teachers.  Shown below, these five recommendations shape our program’s strategic vision.

  • With research-based learning as a guiding standard, the MWP will intensify field-specific course offerings and interdisciplinary connections to develop a Writing Major and a Masters in Fine Arts Program (a terminal degree offered in collaboration with English Literature and World Cultures).
  • With linking communication skills and coursework as a campus priority, the MWP will continue to coordinate significant aspects of general education -- as part of institutional and accreditation expectations to define the meaning of the undergraduate degree and attend to competencies.
  • To augment interdisciplinary scholarship, the MWP will build cross-disciplinary connections,  i) by developing integrative general education programming,  and ii) through implementing writing-in-the-disciplines curricula for institutional priority areas such as the Blum Center, Sierra Nevada Institute, and Community Engaged Scholarship program.
  • With writing competence as foundational to success in our university’s degree programs and overall administration, the MWP will strengthen institutional partnerships to develop a Writing and Reading Center that provides professional, supplemental writing instruction for undergraduates, graduate students, and post-doctoral scholars, among other constituents.
  • In preparing graduate students as future faculty, the MWP will support institutional growth at the graduate level, in particular by offering pedagogical training and teaching opportunities to graduate students. We are piloting and will continue to grow graduate-level writing courses across the disciplines (currently cross-listed in Chemistry, Physics, Applied Math, and QSB).

 

MWP Intellectual Drivers and Research Questions         

The Merritt Writing Program (MWP) is distinctively focused on teaching within the guiding context of a research university that is student-centered. Our unit includes three Senate lecturers and 65 Unit 18 lecturers, supported by only two staff members. Our program is large and represents what should be conceptualized as essentially four programs: general education, freshman composition, writing in specific disciplines, and a writing minor/major (with a proposal for the major in process). To sustain this breadth of professional responsibility, the degree backgrounds of MWP faculty are intentionally diverse, with MFA and Ph.D. degrees in creative writing, linguistics, anthropology, business, speech, rhetoric and composition, literature, foreign languages, and history to name a few.

Our attention to the scholarship of teaching and learning is evidenced in rigorous teaching portfolios for academic review, campus and UC system-wide presentations, membership on national committees, and multimedia scholarship. Our professional focus is primarily on teaching, with associated applied research and traditional publications. We publish in research areas that include creative writing, general education, instructional technology, pedagogy, rhetoric / composition, assessment, English-language learning, and writing program administration. We have been awarded several competitive Department of Education grants as well, including Title V and FIPSE grants, which funded about 20 graduate research appointments, several writing-support initiatives, and UCM’s summer bridge program that also features complementary curricular support in writing and math, with co-curricular support in learning communities and peer mentoring.

Research questions that animate our field and could strengthen our institutional mission include: When we ask students to write, what are we measuring? What are some ways to factor digital technology into a legacy of print-based teaching and learning? How does cultural expression factor into scholarly discourse and academic success? At this moment in our campus history, we see potential in connecting the undergraduate with the graduate educational experiences, especially as the strengths in undergraduate education at our campus could inform future faculty initiatives. With our campus demographics and institutional research initiatives, these composition and pedagogy research foci could distinguish our campus in undergraduate education and associated scholarship. 

The MWP is an interdisciplinary unit in theory, practice and function, with a writing minor program specific to our field[1]. Writing programs often have an institutional identity, in part because our field serves entry-level and general education requirements. The Merritt Writing Program is no exception with about 90% of our curriculum meeting general education or institutional requirements, and with the other 10% specific to specialized, elective courses in rhetoric and composition. To develop our disciplinary field further at UCM, we seek to grow a major in writing, writing and reading center, and masters in fine arts and rhetoric. Our initiatives in undergraduate and graduate education are aligned in such a way to provide opportunity to specialize in writing at various levels.

To achieve these objectives and support our campus’ next enrollment phase, the Merritt Writing Program needs two resources: (a) three LPSOE Senate lines and (b) two entry-level staff positions:

(a)    Our needed Senate lines are consistent with our 2011 Program Review resource recommendation and World Cultures FTE requests from AY 2013 (in total 3 lines for LPSOE appointments). These Senate lines have been formally endorsed internally and externally by our bylaw unit as critical to both sustaining the MWP and pursuing important institutional initiatives. Our existing and future responsibilities require self-governance and disciplinary insight from composition fields.

(b)   Further, we have requested baseline staff support with two entry-level staff positions. Our staffing and operational budget has not changed since 2005, despite growth from 12 to 65 lecturers and new associated personnel and budgetary responsibilities. This staffing need has been a priority budget request since 2007; this gap in staffing needs to be addressed.

Space would be five offices for these new appointments. The proposed Writing and Reading Center could be located in a multipurpose space, ideally in partnership with other units. For example, to support research writing and information literacy outcomes, we have proposed (AY2013 budget) cross-training instructional assistants with our colleagues in the Kolligian Library. The following sections summarize our existing needs and recommended initiatives to clarify these established resource needs.

 

A Major in Writing

With a focus on research-based learning, it is critical for us (and our campus) to develop a major undergraduate program in writing. The MWP would best serve our institution with opportunities to grow as a discipline, beyond being a support unit to other disciplines. An undergraduate major provides us with the infrastructure to provide undergraduates with specialization in a significant field, while strengthening and aligning our curriculum within our own discipline. This emphasis is consistent with national trends, as there are 68 writing major programs nationally (circa 2011) that have developed in the past two decades with clear distinctions from literature programs, emphasizing language study, rhetorical analysis, media studies, and creative/professional writing. Aspirational peers for writing major programs include the University of Minnesota, Northwestern University, and Syracuse University. With this national growth of undergraduate programs, UC Merced could be distinctive as the first Hispanic Serving Institution to offer an undergraduate program in writing. We are also the first writing program established at a research university that is designed entirely on evidence of research in our field, complemented by the broader interdisciplinary scholarship of teaching and learning. In the MWP’s 2011 periodic review, the external review team specifically noted our “highly sophisticated matrix, blending theoretical, curricular, and pedagogical innovation” that establishes a “potentially transformative national model for educating a highly diverse undergraduate population.”   We aspire to do just that.  

Unique in its curriculum nationally, the Writing Minor is currently the fourth most popular minor degree institution-wide, demonstrating an interest and need to develop this field from an enrollment standpoint. As a natural extension of this minor, the Writing Major will prepare students to be flexible as they develop abilities to research, synthesize and innovate. Emphasizing writing as a process and interdisciplinary inquiry, writing major courses will offer challenging curricula in sequences of study in creative writing, professional writing, and style study. Although specialization is part of the major, students will pursue more than one sequence, granting flexibility in process and content and maximizing employment potential or seeking a graduate degree.

Courses of study start with survey courses covering genres of writing, proceed through a foundational, process-based course (Intersections) for all writing majors, and then branch into specialized routes through thematic and genre-based seminars. Electives that round out the major include classes in writing theory, writing pedagogy, grammar and style, traditional Writing in the Disciplines courses (such as Writing for Engineering and Writing for Psychology), written discourse, and journal editing.  The major will also give students opportunities for internships in tutoring and media (electronic and print) production. Students will finish their course of study with a senior-year capstone project produced over two semesters and guided by writing faculty.

Our current LPSOE request in Composition and Rhetoric is designed to support the growth of our minor program, major program initiative, and proposed MFA project.

 

Writing and Reading Center

In close collaboration with UC Merced’s Office of Undergraduate Education, the Kolligian Library, Student Affairs, and with undergraduate as well as graduate program units, the Writing and Reading Center (WRC) will become a central location for professional tutors, graduate-teaching assistants, and MWP faculty to share and implement best practices for the teaching of academic writing with ancillary support for critical reading. 

Professional tutors with English language training who have earned at least a baccalaureate will staff the WRC. We will hire, train, and place Professional Tutors (PTs) in courses where they will provide supplemental writing and reading instruction that establishes or extends a writing-intensive course curriculum. Their training will occur as an on-site apprenticeship under the supervision of an experienced writing teacher. As a related function, we anticipate providing supplemental instruction to undergraduates as part of our curriculum that is keyed to specific lower-division and upper-division required writing courses. Consistent with that proposal but for broader objectives, the WRC will complement existing peer tutoring services offered by the Bright Center. However, unlike that peer tutoring service, the support offered by WRC professional tutors will be embedded in the curriculum of a course – an efficiency that significantly improves student outcomes. We submitted a similar funding request for a Writing and Reading Center (AY2013) to hire professional editors and consultants for upper-division undergraduates who are completing a senior thesis and graduate students who are preparing a thesis. The Writing and Reading Center will have a primary role in serving graduate students, in particular international students whose first language is not English. Special focus will be given to supporting grant proposals and research reports to address the needs of new faculty, international graduate students, and postdoctoral fellows. With approximately 30% of graduate students being international, these language support needs are critical and ubiquitous.     

Our request for a Second Languages LPSOE would serve as the WRC Coordinator to supervise PT staff and prepare annual reports documenting WRC services, costs, and specific outcomes[2]. The latter would include evidence of student performance as a result of professional tutoring; evidence of increased use of writing in discipline-area courses, with comparative data showing any gains in student academic achievement; and evidence of undergraduate research supported by the WRC. 

 

Graduate Degree (MFA) and Graduate Writing/Pedagogy Support  

Not only are we in the position to offer a writing major and launch a writing center, we are engaging in preliminary planning to develop a graduate program to support advanced composition specialization.  To that end, we anticipate collaborating with the English Literature program, Arts program and the Sierra Nevada Institute to establish our Masters of Fine Arts program in Creative Writing and Rhetoric (CW&R).[3] The dual emphasis of this CW&R degree will allow students, through a complementary set of required courses, to obtain an advanced degree in creative writing while also acquiring expertise in the theory and practice of language pedagogy. The latter training will significantly enhance career opportunities for those completing the MFA in CW&R. These opportunities include publication roles as editors, journalists, freelance or technical writers; careers in international business, government and foreign relations, public-health industries, and multicultural media.  CW&R recipients will also be well prepared for further study in law school or in doctoral programs that emphasize language study (e.g., English, foreign languages, or linguistics). Of particular significance for the degree we are proposing, prospective teachers of writing will receive strong training that prepares them for academic positions as teachers of writing.

Further, the MWP will continue to play a significant role in supporting graduate education across disciplines. To support graduate students effectively, we must collaborate with other disciplines to share our expertise, support writing-intensive curriculum, and mentor graduate students (both as scholars, with writing, and as instructors, with future faculty aspirations). We have recently piloted a World Cultures pedagogy course, which will be required in the new Interdisciplinary Humanities graduate program. Also, we have partnered with Chemistry, Applied Mathematics, Physics, and Quantitative Systems Biology to offer our campus’ first academic writing course for incoming graduate students beginning this spring (270 series). Although this course will be taught by faculty (in the MWP) with a degree in composition studies, we collaborate closely with the sciences to develop innovative curricula that support graduate-level writing. Our intention to build an undergraduate major program and a graduate MFA works in tandem with graduate education support, in that we could provide bridge or co-enrollment courses with our upper-division undergraduate offerings. For example, WRI 105: Grammar and Style could be co-enrolled by both undergraduates and graduate students or offered separately as a graduate course (WRI 205, etc.). We are not just expert teachers for undergraduates; we have a commitment to educating future faculty. Our current LPSOE request focused on digital media and rhetoric is designed to support the MFA initiative as well as interdisciplinary graduate pedagogy support.          

 

Sustaining Existing Responsibilities and Initiatives

Consistent with freshman year being foundational, we are committed to institutionally required courses and general education.  Currently, we provide 3/8 of first-year curriculum and play a significant role in undergraduate persistence and retention through frequent feedback on writing, research opportunities, and faculty contact. Our pedagogy and curriculum design provide students with integrative learning opportunities, which was highlighted in our program review report (2011). Integrative learning is a sophisticated and central undergraduate skill, in that students are able to make connections between curricular and co-curricular activities, synthesizing and transferring skills throughout courses. Our pedagogy is carefully designed for such transfer, so that students are academically successful in writing, general education, co-curricular activities, and their majors. Since transfer is such a difficult skill to foster, and writing instruction is feedback-based and very labor-intensive, a commitment to seminar style coursework at the freshman level is a critical institutional investment. Further, our curriculum is distinctively interdisciplinary, in that we teach both traditional research writing as well as quantitative literacy. Our emphasis on integrative learning is consistent with national calls from our discipline and general education associations, including the American Association of Colleges and Universities, the Reinvention Center, and the College Communication and Composition.

Similarly, many of our collaborations come from our program playing a key role in supporting general education, which constitutes one-third of an undergraduate’s academic course plan. A director from the MWP has been involved on all GE committees (ad hoc, standing, and program review) since the beginning of undergraduate enrollment in 2005. Our associate director fully supervises, assesses and staffs Core 1, a required integrative general education course. We face an ongoing challenge, however. Accreditation reports and GE committee recommendations have noted that our responsibility for general education is too localized in the MWP and not sustainable. We agree, and in various contexts we have advocated for involving graduate students in teaching Core 1 as a foundational experience for future faculty training in an increasingly interdisciplinary academic world. Further, Core 1 engages undergraduates (and graduate students as potential instructors) with institutional learning outcomes. Core 1 is writing-intensive and cross-disciplinary; the only course in higher education to integrate disciplinary knowledge, encourage students and faculty to make connections across fields, and to actively promote qualitative as well as quantitative reasoning. Following the trajectory of more established UC campuses, all other UC writing programs offer pedagogy courses and educate graduate students as future faculty to teach in writing-intensive and general education courses. UCM has an opportunity with Core 1, required first-year courses such as WRI 1 and WRI 10, and upper-division MWP writing-in-the-disciplines courses in psychology and biological fields to educate instructors. Further, we could play a central role in strengthening writing curriculum and evaluation in courses outside of our department through ongoing partnerships with Senate faculty. These efforts would strengthen writing competencies in degree programs, consistent with communication being a shared institutional mission.

As related but separate request related to institutional needs, then, we would recommend and endorse the proposed LPSOE for General Education to provide Senate leadership to manage and sustain GE programming (see General Education Strategic Vision). We are not suggesting that this Senate line be housed in the MWP; rather that a broader discussion about a home for multidisciplinary undergraduate education appointments be part of institutional planning.

The attached MWP impact metrics spreadsheet is specific to our proposed initiatives and campus growth; please note that these metrics were also bundled with our bylaw’s strategic planning (Humanities and World Cultures).



[1] UC Merced’s writing minor is the fourth most popular program on campus, with over 100 students. Nationally, writing majors (communication/rhetoric degrees) are among the top ten most heavily enrolled undergraduate degree programs -- along with Biology, Psychology, Political Science, and Literature. See the National Center on Education Statistics: College and Career Table

[2] We anticipate that the Writing and Reading Center could eventually generate revenue as it offers for-pay services to local clients including the Merced County government, city of Merced, Mercy General Hospital, and private businesses.    

[3] These collaborations do not subsume the possibility of separate MFA programs by other units, for example in performing arts.

Impact Metrics: 

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UC Merced Center for Theory and Computation

Proposal Status: 
Principal Authors: 
  • David Ardell (Molecular Cell Biology, Quantitative and Systems Biology)
  • Harish Bhat (Applied Math)
  • François Blanchette (Applied Math)
  • Mariaelena Gonzalez (Public Health)
  • Ajay Gopinathan (Physics)
  • Sachin Goyal (Mechanical Engineering)
  • Emilia Huerta-Sanchez (Quantitative and Systems Biology)
  • Hrant Hratchian (Chemistry)
  • Boaz Ilan (Applied Math)
  • Christine Isborn (Chemistry)
  • Erin Johnson (Chemistry)
  • Arnold Kim (Applied Math)
  • Karin Leiderman (Applied Math)
  • Paul Maglio (Management)
  • Roummel Marcia (Applied Math)
  • Ashlie Martini (Mechanical Engineering)
  • Teenie Matlock (Cognitive and Information Sciences)
  • Juan Meza (Dean of Natural Sciences)
  • Kevin Mitchell (Physics)
  • David Noelle (Cognitive and Information Sciences)
  • Suzanne Sindi (Applied Math)
  • Lin Tian (Physics)
  • Mayya Tokman (Applied Math)
  • Anne Warlaumont (Cognitive and Information Sciences)
  • Jeff Yoshimi (Philosophy, Cognitive and Information Sciences)
Executive Summary: 

Research in the computational sciences is one of the current and growing strengths of UC Merced. From its opening in 2003, UC Merced has attracted large extramural grants for computationally oriented research and academic programs and there is a strong computational emphasis in many of our graduate program and undergraduate majors. To progress on our upward trajectory in this area, UC Merced must capitalize on this strategic focusing opportunity by expanding the expertise, facilities, shared space and resources, and training capabilities to form a Center for Theory and Computation (CTC). Through a coordinated development of shared research computing resources on campus, the CTC will provide computational researchers the means to gain a competitive edge in using outsourced research computing resources effectively. Through theUC Merced CTC, computational science and simulation will serve as an important conduit for interdisciplinary collaboration, innovation, and knowledge exchange.

Initiative Description: 

1. Motivation

 

Over the past few decades, computational science and engineering has emerged as an important driver for all science and engineering disciplines. The US Department of Energy Office of Science asserts that: “Advances in the simulation of complex scientific and engineering systems provide an unparalleled opportunity for solving major problems that face the nation in the 21st Century.” (Scientific Discovery through Advanced Computing, 2000).

 

Computational science and engineering is an inherently collaborative and interdisciplinary endeavor. Computational researchers develop and use state-of-the art computing algorithms and technology to seek a deeper understanding of important problems spanning traditional science and engineering fields. A successful computational science and engineering education program must provide research support and training in computational skills and analytical problem solving methods. This knowledge is then synthesized to study basic and applied problems. Consequently, students require fundamental skills in mathematics, computer science, statistics, and a broad variety of areas in the social sciences, natural sciences, and engineering. Computational science and engineering does not replace or simply follow from experiments and empirical investigations; instead, theory, computation and experiment are complementary forms of scholarly inquiry and knowledge discovery. It is therefore crucial to the success of science and engineering research programs on this campus to promote and develop a comprehensive research profile that includes theory, computation, and experiment.

 

There are several strands of computational science and engineering already present at UC Merced. In fact, computational research occurs across all three schools as demonstrated by the list of faculty authoring this initiative. Data science and engineering is a new area within computational science and engineering which aims to analyze and interpret the enormous amounts of data produced by new, high-throughput technologies. Moreover, future computational faculty are key priorities for hiring in Management (business analytics), Applied Philosophy, and Life and Environmental Sciences (ecological theory/modeling). These future hires bring great potential to open new exciting avenues for on-campus collaboration with current computational scientists and engineers.

 

2. Establishing a new Centralized Research Unit

 

We propose here the formation of a new Centralized Research Unit (CRU) called the “UC Merced Center for Theory and Computation” (CTC). This CRU is a consortium of research groups and units already existing on campus. Going forward, this CRU will incorporate new research groups and units as they develop. The purpose of the CTC is to bring faculty and students together to address common research and training goals.

 

The CTC will seek to provide student support and training through undergraduate and graduate certificate programs in scientific computing. These certificate programs will supplement an existing undergraduate or graduate degree through additional courses that provide fundamental computational problem solving skills and experiences implementing and optimizing codes on high performance computing platforms. Additionally, the CTC will run a seminar series aimed at promoting computational science and engineering research on campus. Each faculty member of the CTC will contribute to this seminar series and distinguished colleagues from other universities and institutions will also be invited. In addition to providing students with exposure to computing research methodologies, this seminar series will promote collaboration among computational faculty across the disciplines.

 

Another way to leverage potential gains is through collaboration of the CTC with the national labs. There is a great interest from scientists at these labs to interact with faculty and students on campus. By providing this opportunity for lab scientists, we may facilitate new pipelines of research opportunities including student summer internships, collaborative research proposals, and access to state-of-the-art computing resources available at national labs.

 

The CTC may also partner with local CSUs that do not have sufficient on-site resources for training computationally-minded CSU students. This could serve as a recruiting strategy to bring well-trained graduate students into the computational sciences at UC Merced.

 

3. Resource requirements

 

Given the reach of this proposed CRU and its potential impact on the overall research stature of UC Merced, the resources required to launch the CTC are relatively modest. We discuss these resource requirements in detail below.

 

Research computing resources

 

To support the CTC, it is absolutely crucial to acquire and support campus research computing resources. These resources include on-site hardware, software, and administrative support staff. The CTC will develop innovative initiatives for sharing these research computing resources across all of the faculty in the CTC. At present, research computing resources are lacking in coordination and organization leading to unnecessary expenses and ineffective use. Most research computing on campus is done with individual faculty vying for space, power, and cooling resources within the limited space afforded by the server room in the Science & Engineering Building and in the absence of appropriate system administration staff. The CTC will organize and lead efforts to provide faculty a means to prioritize research computing needs for the campus and help to develop realistic plans for hardware and software upgrades as well as policies and procedures for shared research computing resources. This sharing strategy may be highly effective for purchasing software licenses and for testing scientific code on new hardware architectures, for example. For hardware, the CTC will need a few shared small- and medium-scale computing platforms for development and testing of codes, training of students, and performing scale studies required for transitioning to large-scale computing platforms. For large-scale computing needs, faculty will make use of national supercomputing centers such as XSEDE (https://www.xsede.org/).

 

The CTC should be supported by staff responsible for maintaining the computing hardware and software, ensuring stability in data storage and backup, and monitoring the security of the campus research computing systems. Initially, one full-time staff person will be required for resource support. As the CTC grows, additional staff may be necessary. This support staff can also provide bridge training to non-specialist researchers in using these computing resources, enabling researchers to obtain the necessary skills and initial results to prepare successful proposals for time on external large-scale computing platforms. A search is currently underway to hire a research computing staff person. The successful hiring of this position will go a long way toward filling in this missing resource.

 

While some may argue that all research computing can be performed off-campus at supercomputing centers or with cloud-computing resources, this is simply not correct. Computational science and engineering research encompasses faculty who are developing new simulation codes to solve complex science and engineering problems. Those developers require local computing resources to design, test, and validate programs prior to seeking supercomputing access. For example, XSEDE proposals stringently require preliminary data including verification of a working code, resource scaling studies, as well as clear identification of specific computing needs, e.g. memory, CPU, and/or communication intensive. Having medium-scale local computing resources also allows for a much faster turnaround for all research projects that require simulation or data processing, and may encourage researchers to extend the scope of their analyses leading to more rigorous computational testing of hypotheses. Moreover, local research computing resources are absolutely necessary for training of students in computational science and engineering. To deny computational science and engineering researchers on-site research computing resources is to deny the ability of these faculty members to conduct their research.

 

Full-time equivalents (FTEs)

 

We do not propose separate, formal request streams for new faculty FTEs to start and develop the CTC. Rather, the CTC will develop through support from existing research units and groups who already contribute to the CTC. For example, the entirety of the Applied Math Unit, and all of its future hires, will participate in the CTC. The Chemistry, Physics, Cognitive and Information Sciences, Quantitative Systems Biology, Electrical Engineering and Computer Science, and Mechanical Engineering and Applied Mechanics groups each have members who will participate in CTC and have future plans to hire faculty who will be potential CTC members.

 

Student certificate program in research computing

 

To develop the CTC into a student training program, we require the resources to offer classes, workshops, and seminars on topics that develop the common skillset of research computing.

 

Common space

 

The CTC space would ideally contain contiguous offices for CTC faculty, postdoctoral researchers, students, and visitors, a seminar room, and collaborative conference space for group meetings.


4. Comparison programs

 

UC Santa Barbara, UC Davis, and UC San Diego all have graduate programs in computational science and engineering. In addition, Stanford University has the Institute for Computational and Mathematical Engineering. There are additional programs throughout the nation that are comparable.

 

There are noteworthy differences in what we propose here from the examples mentioned above. One is a shared focus on undergraduate and graduate training. A recent NSF Mathematical and Physical Sciences report from the “Data-Enabled Science in the Mathematical and Physical Sciences” workshop on March 29-30, 2010 stated that these computational skills “must be percolated into lower levels of the curriculum, to train data proficient scientists in anticipation of a profound shift of research resources into data-enabled science in the future.” By providing undergraduates with training in computational science and engineering, we will become a recruiting ground for the aforementioned national programs. A strong academic program in this area will help attract well-prepared and motivated students to our campus.

 

The other significant difference is the close collaboration with the national labs. Through the development of a certificate program in computational science and engineering, lab scientists will have an immediate understanding and confidence in the abilities of our students when considering summer research opportunities, internships, postdoctoral research positions, etc. Moreover, by including lab scientists in the training process, we will create a natural means through which collaborations and working relationships will develop.

Commenting is closed.

Engaged Transformation of Poverty (ETP) REPLACED with "Community-Engaged Research" SAFI Round 2

Proposal Status: 
Principal Authors: 

Lead: Robin DeLugan (SSHA – Anthropology; Resource Center for Community Engaged Scholarship; UC Merced Blum Center)

Collaborators:

Steve Roussos (UC Merced Blum Center; Health Sciences Research Institute, Resource Center for Community Engaged Scholarship);

Elliott Campbell (ENG - Environmental Engineering; UC Merced Blum Center);

Alexander Whalley (SSHA – Economics; UC Merced Blum Center)

 

Affiliated Academic Focusing Initiatives:

Center for Comparative Inequalities

Economics

Entrepreneurship Research Institute

Hard Rock Reserves Institute

Health Sciences Research Institute

Management of Innovation, Sustainability, and Technology

Public Health

Executive Summary: 

Engaged Transformation of Poverty (ETP) in the San Joaquin Valley (SJV) aims to study and support how UC Merced addresses the impact of poverty within our immediate region through research connected to California, national, and international analogs. The term “engaged” calls for more purposeful connection and synergy between UC Merced’s academic mission and the goals of SJV stakeholders and decision-makers. ETP will strategically catalyze and facilitate faculty and student capacity for research that capitalizes on our unique opportunities to address poverty in the region. ETP is driven by the newly established UC Blum Center initiative in close collaboration with UC Merced academic units and campus and community leadership. ETP’s approach will result in exponential support for, and recognition of, UC Merced as a national leader in engaged transformation of poverty during the current historically significant time of growing regional, national and global inequality.

Initiative Description: 

Initiative Description (4 pages)

UC Merced operates under the sensitive condition of regional and state decision-makers (e.g., Regents, the state legislature, industry and civic leaders) critically questioning the value and direction of the sole UC campus in the San Joaquin Valley (SJV). All involved understand the challenges of locating UC Merced in one of the most disadvantaged regions in the USA at a time of unprecedented national financial crisis that disproportionately effects SJV including our predominantly lower SES student population. All involved understand that UC Merced cannot succeed in its academic mission without true and effective partnerships with regional and external stakeholders to address the impact of poverty. Leaders within and outside of our campus continue to face the daunting challenge of growing a Tier 1 research institution toward national ranking given the conditions of severe overall scarcity including in extramural research funding. Engaged Transformation of Poverty (ETP) in the SJV builds on the new UC Blum Center initiative attending to global poverty through the unparalleled power of UC research and research training. It will demonstrate the impact of UC Merced research expertise to address pressing regional and by extension global problems. To address the 2020 strategic plan’s goal for achieving national ranking of our campus, it would be remiss to reach this goal absent evidence that our research is contributing to the alleviation of the region’s poverty.

In September 2013, UCOP accepted UC Merced’s proposal to establish a new Blum Center in the SJV with the theme of Global California: Transformation of Poverty into Prosperity. The Blum Center is a multi-campus initiative stimulated by UC Regent Richard Blum to channel the talent and power of UC to measurably impact poverty in developing economies worldwide. The Blum Center at UC Merced joins peer centers at UCSD, UCLA, UCB, and UCD to leverage substantial extramural and intramural resources for research and training related to improving the impact of higher education on local-to-global economic, environmental and social inequities. The UC Merced Blum Center builds on the infrastructure and relationships that UC Merced’s Resource Center for Community Engaged Scholarship (ReCCES) has established throughout the region. ReCCES has evolved since 2006 with funding from the Chancellor’s office, external grants, and the General Fund.  ReCCES provides training and assistance to faculty, students and community partners interested in community engaged research.  Both Blum Center and ReCCES will support the continuum of work, from the independent faculty member proposing research on social, engineering, or even biomedical aspects of poverty to multi-site, interdisciplinary research collaboratives with direct ties to industry, civic, and legislative priorities.

The mission of ETP will be as follows.  First, there will be direct support of faculty research focused on the causes and consequences of regional poverty as well as interventions aimed at its transformation. Second, direct support of graduate student research will include training on interdisciplinary approaches to poverty transformation.  Third, to prepare and encourage undergraduates in the pursuit of graduate studies and career development, an undergraduate minor will be developed that couples engaged scholarship and service learning.  The campus research that will be supported will integrate the voice and priorities of community stakeholders to shape and implement its direction.  This will allow UC Merced to leverage existing research strengths in sustainability, public health, community empowerment and regional development to establish the best practices required to tackle extant and newly emerging problems.  We see ETP as a unique opportunity to both directly reduce local, regional, and global poverty and at the same time expand UC Merced’s capacity to be a world leader in this emerging interdisciplinary field of inquiry.  We hope that leadership will embrace poverty alleviation as a crosscutting campus-wide strategic theme. 

 

ETP strengthens UC Merced’s original commitment to be an engine for economic and human development in the region. UC Merced will be an even stronger problem solver in regional poverty and a role model for national and global poverty elimination. Several campus entities have evolved with new ones emerging (see list of affiliated strategic academic initiatives) which give an opportunity now to connect the dots, build capacity, and assist our academic research, teaching and service to be more effective in the region. Rather than propose a new theme, we underscore the importance of universities evidencing their impact.  Across the nation, research universities are urgently trying to understand how to prove their value through community engagement.  NIH, NSF, and the Department of Education are among the federal stakeholders that are calling for community-engaged institutions of higher education.  For example, NSF reports and requests for proposals throughout 2013 have explicitly called for community participation in decisions about what to study and have made funding contingent on community engagement. A 2005 UCOP sponsored report highlighted the opportunity for UC to become a leader in this. In order for ETP to take UC Merced to national ranking it is imperative that new faculty lines are established within each school and existing faculty are supported to be part of the solution. The role of Blum Center and ReCCES is to provide training and resources that make it easier for this to happen.

ETP is currently coordinated by faculty in Anthropology, Economics, Engineering, and in Public Health. ETP’s growth and influence will require diverse collaborators from across all three schools including the oft times unrecognized contributions from the humanities and arts, and efforts more commonly called public scholarship. There are a number of evolving local and regional ETP opportunities. Smart Valley Places, a competitive federally funded initiative is focused on developing a 20-year plan for economic development in disadvantaged communities. It has generated over $5 million since 2012. The Merced County Economic Development Initiative launched in June 2013 through Hospital Community Benefit Programs is convening investors and grant makers to develop a long-term plan for economic and workforce advances in Merced City and County. This initiative explicitly sees UC Merced’s presence and promise as key ingredients for making Merced County the driver of SJV’s economic success. Investments in research and development are anticipated to exceed $20 million in the first five years. ETP can coordinate UC Merced’s role in these and other initiatives to ensure future planning aligns with our university’s current and future aspirations. This initiative has

Participation in local and regional initiatives will illustrate how UC Merced helps transform poverty to prosperity joining the success of other nationally ranked universities.  Promising and inspiring peer initiatives are rare. However, some role models include The Milwaukee Idea and Oregon’s “Regional Solutions”; University of Michigan (Poverty Center) and Stanford University (Center on Poverty and Inequality). These illustrations are important because they ensure the integration or research with action for a measurable impact on poverty. 

EPT’s current status and future growth will draw on the Blum Center network across the UC system, extramural support through philanthropic and governmental funds. Our campus investment in EPT is centered around developing a team of academic and non-academic support staff, establishing on and off campus facilities for research and research training, and providing strategic operational and stimulus funds for faculty and community collaboration. Requests for personnel include:

Academic and community research liaisons for each school [Master’s level (doctoral level preferred)] to coordinate school and faculty priorities with research opportunities.  Though we are not asking for faculty lines, EPT’s success will depend on the hiring of additional relevant faculty. These liaisons will be important cheerleaders for all the things that require advancement: faculty development and promotion, recruiting new faculty, graduate student development.

Here are some activities that this initiative is undertaking and will grow through 2020:

  • Training and ETP professional development for faculty, graduate students, and undergraduates

Faculty: workshops on community engaged research methods; facilitate grant opportunities; networking on campus and off campus with community stakeholders;

Connect with research groups and advisors outside of UC Merced (e.g., UC Center for Collaborative Research for an Equitable California; Community University Research & Action for Justice); Conferences for showcasing faculty community engaged research; co-host UC Merced Research Week events on and off campus.

 

Graduate students: workshops on community engaged research methods; facilitating grant opportunities including seed grants; summer stipends; networking on campus and off-campus; support of master’s and doctoral theses.

 

Undergraduate students: internships and field experiences; facilitate service learning.

 

  • Develop the infrastructure and capacity of community organizations as effective partners in

ETP.

Workshops on community-engaged methods; facilitate grant opportunities; networking with campus stakeholders; connect with research groups and advisors outside of UC Merced (e.g., UC Center for Collaborative Research for an Equitable California; Community University Research & Action for Justice); conferences showcasing ETP research and solutions; cohost UC Merced Research Week events off campus.

 

  • Represent and advance UC Merced’s mission in regional, state, national and international efforts related to poverty transformation.

Ensuring the UC Merced is a member of various initiatives; connecting our faculty research and graduate and undergraduate training to these initiatives.

 

  •  Develop and implement independent campus projects that build the campus infrastructure for ETP and capacity and raise national attention for UC Merced

 

  • Develop a proposal for a new minor, tentatively “Community Development”

 

  • Continue developing the Research, Innovations and Solutions for Equity (RISE) program.  RISE identifies community organizations and industry partners to articulate research projects and priorities within their area of work. 

Link our faculty, graduate and undergraduate students to these community driven research priorities; develop funding, training, and other infrastructure needs to support ongoing ETP between UC Merced and community partners.

 

 

Resources need for ETP through 2020 include the following:

 

Personnel:

Community research liaison (1 FTE for each of three schools. 1) This position is a master’s level (doctoral preferred) with training and capacity to articulate and work with and advocate for faculty research and needs at each school related to ETP; 2) This person would promote and generate enthusiasm for ETP within each school with anticipation of generating new faculty lines aligned with ETP. 3) Serve as relationship builder and broker between each school and their appropriate community partners.  By 2020 we anticipate that each school would have two community research liaisons.

 

Administrative support staff (1 FTE) for community liaisons.

 

Communications staff (1 FTE) responsible for developing public announcements, managing relationship databases, managing websites and social media.  Because working with disadvantaged communities and issues of poverty require extra sensitivity to community relations, this staff member must have experience working with underrepresented communities.

 

Graduate Student Researcher (2 per school)

 

Undergraduate work-study students (4 per school)

 

Community Station Coordinators: (8 FTE) One community station per county (8); managing the activities, volunteers and events related to ETP at community stations (described below). Someone hired from the community and provided training in how to be an ETP representative for their community.  As ETP grows we expect this staff to double by 2020.

 

Facilities

On campus space appropriate to this level of initiative e.g., 3,000 sq. ft. with private offices and conference space and appropriate computing and conferencing technology.

 

Off campus facilities: Community stations that are within existing trusted organizations also allowing for private offices and conference facilities and appropriate computing and conferencing technology; one community station per county.

 

Other Necessary Resources

Funding for events including at least one conference per year; workshops; space costs; food and equipment for community events; community participant stipends; travel reimbursement for UC and community members; stipends to support grant writing and pilot and feasibility studies; appropriate transportation (e.g., vans for student research teams).

 

Between now and 2020 we anticipate that ETP’s presence and activities will attract at least three new faculty lines per school to support ETP research.  Undergraduate enrollment in the minor affiliated with ETP is expected to reach 1500 by 2020; by 2020 graduate students affiliated with ETP is expected to reach 200.

Impact Metrics: 

Commenting is closed.

Promoting Healthy Development in Underserved Populations

Proposal Status: 
Principal Authors: 

Jan Wallander

Executive Summary: 

THIS PROPOSAL HAS BEEN SUBSUMED IN THE PROPOSAL TITLED: HUMAN HEALTH SCIENCES The quest for health is fundamental to our existence and prosperity, but especially challenging in our region. Human health sciences therefore should continue to be one of the signature themes at UCM, with a focus (although not exclusively so) on the health of the diverse populations of the San Joaquin Valley (SJV). Because Psychological Sciences is foundational for understanding and improving human health, it will continue to play a central role in advancing the human health theme at UCM. For example, at least 5% of all preventable causes of death are behavioral. The contributions that Psy Sci will make towards advancing human health will be devoted specifically to Promoting healthy development in underserved populations. The future of our nation and especially that of the SJV requires advanced behavioral and biobehavioral research with practical and translational value that can support healthy, positive development. This is especially applicable to childhood.

Initiative Description: 

Psychological Sciences Strategic Focusing:

Promoting healthy development in underserved populations

The quest for health is fundamental to the existence and prosperity of humans. This inquiry is especially challenging in our region. Human health sciences therefore should continue to be one of the signature themes to which UC Merced will devote enhanced resources, with a focus (although not exclusively so) on the health of the diverse human populations of the San Joaquin Valley (SJV). In our context, this will engage inter-disciplinary collaboration and synergies among several existing and emerging programs, as shown in FIg. 1.

Because Psychological Sciences (Psy Sci) is foundational for understanding and improving human health, it will continue to play a central role in advancing the human health theme at UCM. It has been established that at least 5% of all preventable causes of death are behavioral. The contributions that Psy Sci will make towards advancing human health will be devoted specifically to Promoting healthy development in underserved populations.

The future of our nation and especially that of the SJV requires advanced behavioral and biobehavioral research with practical and translational value that can support healthy, positive development. This is especially applicable to childhood because health and development are inextricably linked in childhood, life-long health evolves from childhood, and childhood is the foundation to sustaining humanity. This requires understanding the micro and macro factors that influence health and well-being over time, including individual cognitive, emotional, and socio developmentin the family, community, and ethnic/cultural context. Critical indicators include a healthy start in early childhood and achievement of success in school, establishment of behavioral habits during adolescence that lay the foundation for health, and effective transition to prosperity in young adulthood. We are especially keen on research that promotes healthy development in the underserved, diverse (e.g., ethnicity, language, economic resources, migration history) population in SJV.

A.  What are the Intellectual Drivers and our UCM Identity?

More generally, Psy Sciaims to understand human behavior and translate that knowledge to improve the human condition. This quest is currently driven by a number of grand challenge research problems. Of relevance to our unifying theme are included: What are the best strategies for analyzing quantitative information about complex human behavior, including the “Big Data” that are increasingly being generated? How can we understand complex relationships, such as dyads, families, organizations, and communities? How do social, environmental, and cultural contexts influence human behavior? How do we improve the inequalities (e.g., in health, well-being, education, prosperity) among groups in our society? How is scientific knowledge best translated into practice to improve the human condition? How can advanced technologies be used for this purpose? How can children’s development, especially in the critical early part of life, be optimized to achieve an adulthood of health, well-being, and productivity? Faculty in Psy Sci collectively apply expertise and conduct research towards all of these questions. How can we integrate information from multiple investigations in a way that can usefully inform policy?

Clear and unique identity

The Psy Sci faculty have purposefully grown three connecting research and training tracks towards the common focus on promoting healthy development (see Fig 2): Developmental, Health and Quantitative Psychology. In addition to collaborating towards our strategic focus, each track also has an identity and the opportunity in short order to achieve national and international leadership. That is Psy Sci will achieve distinction, even the leadership position, within a few years when measured against programs anywhere in the world before 2020 in these areas:

Health Psychology track explores how mind, body, and behavior together influence health and illness and use this information to improve well-being and curedisease. Health psychology is a rare track at other research universities. In California, only UCLA has a similar program, but with which we are already approaching in size. Ours is the only PhD program with a strong focus on health issues in the SJV region, which provides an excellent laboratory to understand health processes and interventions that can be generalized to the U.S. population emerging in this century. With 4-5 more FTEs with strategically focused expertise, UCM will claim the strongest Health Psychology research and training program outside of a medical school in the world.

Quantitative Psychology creates the methods researchers use to gather and analyze data to advance the frontier of behavioral sciences by bringing theoretical statistics towards solving previously unsolved statistical and design problems. This track undergirds the application of cutting-edge methods applied to advancing our strategic focus. Moreover, all empirical scientific disciplines require access to quantitative analysis expertise, making this program central to other advances at UCM. This track has particular expertise in Bayesian statistics, one of the cutting edge areas in statistics today that can produce more accurate results for complex statistical models and situations where only small samples are available. Bayesian statistics is currently a desired area of research for federal agencies (e.g., IES). Few other research universities feature this expertise. With 4-5 more FTEs with strategically focused expertise, UCM will achieve true national prominence by 2020.

Developmental Psychology explores changes in how individuals think about and interact with the world around them from conception through adolescence, using a variety of innovative methods. Whereas this is a more common track at research universities (e.g., it is established at all UCs except UCSF), our developmental track aims for national prominence in areas pertinent to promoting healthy development in underserved populations. With a gain of 5 faculty with strategically focused expertise, this program will achieve national prominence in its niche by 2020.

Interdisciplinary collaboration

The psychological sciences is one of 7 "hub sciences" (Boyack, 2005) identified through bibilometric analysis because it “produces knowledge that is central to and widely used by other discipline.” As a hub science, psychological sciences is inherently inter-disciplinary. Our facultycollaborate broadly across disciplines, locally at UC Merced as well as at many other institutions in the U.S. and aboard. Almost all research conducted in Psy Sci is collaborative and interdisciplinary.

Moreover, Psy Sci faculty have been and continue to be leaders in developing interdisciplinary collaborations at UC Merced. For example, Psy Sci faculty : † Led the formation of HSRI, culminating in this becoming the first ORU here to result from faculty initiative, and 3 of its identified clusters are chaired by Psy Sci faculty. † Secured the 1.3 million NIH grant that established the Center of Excellence on Health Disparities, which engaged about 15 faculty and funded about 30 GR and UG students from all 3 schools and many disciplines.† Founded the Public Health program, which now enrolls many UG and an initial cohort of PhD students. † Are currently developing the interdisciplinary Center for Statistical and Quantitative Research (CeQR) in collaboration with 27 faculty in SSHA, SNS and SE, responding to the need across disciplines for access to quantitative expertise and education. Also being developed are minor curricula in Quantitative Analysis for both UG and GR students in all schools. † Led the formation of the Resource Center for Community Engaged Scholarship, which supports faculty and GR students from all schools in collaborative research with community partners to address regional concerns.

Thus Psy Sci faculty have demonstrated experience and success in growing interdisciplinary programs and research that arguably meets or exceeds that of any other group at UC Merced.

Relationships with other UCM research areas

Because Psy Sci is a hub science, several other areas at UCM have already been engaged by Psy Sci faculty. Faculty collaborate with Public Health, HSRI and its research clusters, Applied Math, Political Science, Cognitive and Information Sciences, Biology, EECS, and SNRI. Discussions are underway as well with Sociology, Economics, and Management.

Other research areas or resources that are not yet (well) developed here, but which would benefit the quest to understand human behavior and translate that knowledge to improve the human condition include: Statistics or a Statistical Consulting Center, Survey Research Center, Education Research Institute, and an Early Childhood Education Center that can explicitly support child development research.

Funding

Reflecting its central importance, research towards promoting healthy development is funded by multiple federal agencies, including: NIH, NSF, CDC, Institute of Education Sciences (IES), and the Department of Defense, including DARPA. Numerous state programs and foundations do likewise, including: the Tobacco-Related Diseases Research Program, the California Breast Cancer Research Program, The California Endowment, the California HealthCare Foundation, and the California Wellness Foundation. In addition, many human behavior research programs, especially those focused on improving the human condition, will be highly attractive to philanthropic organizations and private parties, especially in the areas of health, child development, and education.

B.  What resources, including Project 2020 can help you realize your Vision?

  1. Behavioral labs. Key will be additional behavioral research lab space on campus in relation to growth in faculty. All Psy Sci faculty at competing research universities expect a dedicated lab space (400-800 sqft). Several of these labs need to be configured as “damp” space in addition to two “wet” labs for future biobehavioral health research.
  2. Community/mobile labs. To optimize research with community participants and partners to promote healthy development, a flexibly designed behavioral research lab space in downtown Merced is strongly desired. This will also contribute to reducing the demand for on-campus lab space. For the same purpose, a mobile lab (e.g., purpose-designed RV equipped for survey, developmental, physiological/biological measurements) to take to research populations in the community/region would be highly useful,
  3. IT resources. A range of (improved) IT services are needed to advance human behavior research, including: computer server facility, clustered computer resource (CONDOR), statistics lab for UG and GR students, and computer storage for confidential data (required for much Psy Sci research).  
  4. Survey research capabilities. Highly useful would be a Survey Research Center, which could in part focus on survey research addressing regional issues. This will also benefit Sociology, Public Health, Political Sciences, Economics, and Management. Such centers at other research universities also garner money by conducting surveys for external entities.
  5. Library resources. Access to the full range of health sciences journals.

C.  Who are our realistic peers and our aspirational peers?

Current national peer programs

Developmental: Is currently underdeveloped (due to faculty turn-over and unsuccessful searches in the past) and do not usefully compare at this time to other research universities with long-standing Developmental programs; Health: UC Riverside, UC Irvine (although neither have PhD program in Health Psych); Quantitative:  UC Davis, UCLA.

Aspirational peers

Developmental: Stanford U, U Minnesota, UC Davis; Health:  U Iowa, U Miami, U Utah, UCLA (all large academic medical schools); Quantitative: U Notre Dame, Ohio State, UNC-CH.

The advantages that these programs have include: Long history, sizable total Psy Sci faculty, dedicated support staff, non-TA GR student support, internal research funds, endowment specific to department/program, Department status with budget and authority, multiple interdisciplinary ORUs of benefit to one or more areas of Psy Sci, statistical consultation center, survey research center, and other schools of relevance (e.g., Medicine, Public Health, Education)

D. How do we meet important Campus Metrics?

GR students

The Psy Sci Grad Grp currently enroll 37 GR students, which makes it 2nd largest at UCM and accounts for 10% of the total GR enrollment. Yet Psy Sci accounted for 23% of the total GR credit hour production (2012-13), by far larger than any other Grad Grp. About 33% of GR students in Psy Sci represent diversity of interest to the UC, and 4 have been awarded university fellowships in campus-wide competition. There is a large pool applying to our CCGA approved PhD program, including more qualified applicants than can be admitted each year. In 2012, 3 PhDs were awarded and 3-5 more are expected during the upcoming Carnegie evaluation period. Psy Sci faculty mentor on average 3.3 GR students.

UG students

Psy Sci accounted for 13% of the total UG credit hour production (2012-13), the largest of any academic unit bar none and 14% (n = 705) of all declared majors (including double majors; Fall 2013). The Psy Sci minor is the largest on campus by far. In addition, faculty provided 62 UG students with significant research experiences in their labs in 2012. Enrollment in Psy Sci courses and its major has grown consistently throughout the past 6 years, unabated with the growth of other majors. Therefore, projecting from this basis indicates that Psy Sci will serve about 1,260 majors in 2020 in a 9,000 UG population.

Establish UCM metrics more comparable to other UCs

Research productivity by faculty in Psy Sci at UCM is already comparable to that of other UCs, especially when adjusting for the unusual skew here towards junior faculty. In 2012, faculty published an average of 7+ items (peer review journal articles, books/chapters/national reports, conference proceedings). Each faculty mentors an average of 3.3 GR students. Faculty held external grants in 2012 totaling over $11 million in total costs, and submitted 15 new external grant applications, requesting $8.9 million dollars in new funding.

Psy Sci UG credit hour production is heavily dependent on non-ladder rank faculty for instruction, currently at 79% of total. Likewise, there are a large number of UG majors to serve, resulting in a very poor ratio of ladder-rank faculty-to-UG-majors compared to other SSHA disciplines and UC standards. To correct the underserved UG curriculum and majors in Psy Sci will require an additional allotment of ladder-rank faculty positions beyond “normal” growth, without which the imbalance will be perpetuated or worsened. In addition 3 LSOEs will significantly help meeting the large demands for our GE courses (e.g., PSY1, PSY10).

Therefore to bring the ratio of UG majors per faculty to a 50:1, which is still well above the average at UCM not to mention the UC system, will require a ladder-rank faculty in Psy Sci of 25 by 2020. A significant benefit from this projected growth is that the GR program will grow substantially, with resulting growth in research productivity.  Maintaining a ratio of faculty-to-GR student mentoring of 1:3.3, will result in a GR enrollment in 2020 of about 82 and produce about 16-18 PhD degrees per year in the Psy Sci Grad Group.

Psy Sci Is an Excellent Investment

Psy Sci has also proven to be an excellent investment for advancing research, GR training, and UG education at UCM. Psy Sci faculty:

  • Are highly productive in research
  • Secure large grant funding
  • Mentor a large group of quality PhD students
  • Sponsor important and large undergraduate education programs
  • Provide significant leadership at UC Merced, especially in developing interdisciplinary programs

 

Impact Metrics: 
Other Supporting Documents: 

Commenting is closed.

Hard Rock Reserves Institute

Proposal Status: 
Principal Authors: 

Elliott Campbell (ES), YangQuan Chen (EECS/ME), Yihsu Chen (ES/ECON),
Ricardo Cisneros (Public Health), Robin DeLugan (WC), Dan Hirleman (ME/BEST),
Paul Maglio (EECS/COG/MGT/MIST), Ashlie Martini (ME), Peggy O’Day (ES),
Fanis Tsoulouhas  (MGT/SSHA), Erik Rolland (EECS/MGT/MIST), Steve Roussos (HSRI/Blum),
Josh Viers (ES/CITRIS), Alex Whalley (ECON)

Executive Summary: 

Advances in production of oil and gas from unconventional reserves (shale rock) in the last few years have had a dramatic world impact.  In the US that includes reduced CO2 emissions, progress towards energy independence, and resurgence in manufacturing.  Global geopolitical ramifications involving Europe, Russia and the Middle East are equally profound. Improvements in hydraulic fracturing (fracking) are responsible, but concerns remain including possible groundwater contamination, long-term impact on low-carbon economy, and economic and social impact on regional communities.

 

These developments could be of huge consequence for UCM, as the Monterey Formation under Merced/SJV holds an estimated 40% of the hard rock reserves of the US.  Development of this energy resource in a way that minimizes impacts on water, air, and ecosystems, and that realizes economic and social benefits for SJV, requires fundamental research across all disciplines.  UCM should be the research leader and “honest broker” in this space.

Initiative Description: 

See supporting document pdf

Commenting is closed.

California Institute of Drone Engineering Research (CIDER)

Proposal Status: 
Principal Authors: 
  • Stefano Carpin (EECS/ME),
  • YangQuan Chen (ME/EECS/SNRI/CHASE),
  • Qinghua Guo (ES/SNRI/SPARC),
  • Chris Kello (CIS/CHASE),
  • Joshua Viers (ES/CITRIS/SNRI)
Executive Summary: 

90 percent of potential markets for UAVs (unmanned aerial vehicles, or commonly known as drones) will be accounted for by public safety and precision agriculture including agriculture and environmental engineering. UAVs will inject $82 billion in economic activity and generate up to 100,000 new jobs between 2015 and 2025. (http://www.auvsi.org/econreport)

 

UC Merced is uniquely geographically located to establish CIDER (California Institute of Drone Engineering Research) with significant national and international prominence and local and regional economic impacts. Our ultimate vision is to build “Data Drone Valley” between Silicon Valley and Yosemite National Park through this unique intellectual and engineering platform – CIDER. UC Merced already has a significant preparation for this “Data Drone Valley” vision to become true. It could also be expected to symbolize “data drones” as one of the distinguishing aspects of UC Merced from other campuses.

Initiative Description: 

Description of the Initiative:

 

  1. Background

            Over the past five or so years, small UAVs (unmanned aerial vehicles) have shown much promise in their future role as a primary tool to collect critical information for decision making. Whether used as a smart farmer’s companion or a co-ecologist, personal remote sensing via “data drones” with associated system applications is rapidly increasing in number and sophistication. We are limited only by our imagination for potential future applications, much like the dawn of personal computing.

These “personal data drones” often weigh less than 55 pounds, but have the ability to capture remarkably high resolution thermal, near infrared (NIR), and red-green-blue (RGB) standard video and imagery and LIDAR for 3D mapping. These data can then be used for a variety of timely decisions, such as determining not only the species of plants, but also their water and nutrient stress status. This type of applications is only the beginning, as we believe there are many more untapped agriculture and environmental research abilities, such as to take air samples, track plumes of gases, monitor water, health-check for forests, pest management and much more.

Data drones are in effect an Unmanned Aircraft System (UAS), which is an autonomous aircraft, capable of not only flying without a human pilot onboard, but can also include advanced intelligence to conduct search, tracking and rescue mission without the need for human control. Industry experts predict a significant surge in UAS deployment, especially within the agricultural industry (AUVSI Economic Report, 2013). This exponential increase is expected from two major developments: the increase in availability of advanced sensor technology and the pending implementation of U.S. Federal Regulations allowing commercial use of UASs. As the use of UAS in the National Airspace (NAS) increases, the need to develop meaningful scientific and environmental research sUAS also increases. To improve the Central Valley’s economy and environmental sustainability, a leading effort through CIDER must be established.

 

The California Institute of Drone Engineering Research will prove to be beneficial not only for the University of California, Merced, but for the Great Valley and beyond. We propose that UAVs can be utilized in an effort to tackle difficult agricultural and environmental monitoring and actuation problems (such as cropdusting drones, invasive weed management, stochastic bird chasing etc.) that are currently boundaries in the field of Environmental Science and in high demand.

 

  1. Intellectual Drivers and Research Questions:

Intellectual drivers are 1) local, regional and global demand for more real-time and finer spatial resolution remote sensing products, 2) technological progress in navigation and control performance and cost reduction, 3) FAA (Federal Aviation Agency) rule making allowing for integration of UAS (unmanned aerial systems) into NAS (National Air Space).

 

We plan to focus on various drone engineering research questions driven by regional demands, mainly for agriculture and environmental sectors, but will also include urban applications, such as natural hazard mitigation and real-time emergency response. Compelling scenarios where original research questions can be asked and answered when UAS drones are routinely deployed include, but are not limited to, the following topics (which are presently being asked of UCM faculty):

  • Early detection of crop stresses due to drought, nutrient, heat/frost, salinity, pests, heavy metal etc.
  • Search and rescue, aftermath assessment of major disasters such as earthquakes
  • Human dimensions in drone engineering i.e. drone control and human compatibility, human-robot teams, etc.   
  • Forest health monitoring using airborne LIDAR
  • Migratory Bird Monitoring; Ground Squirrel Tracking and Monitoring
  • Gas Leak Detecting
    • UC Merced in Conjunction with MESA Lab and PG&E have begun these efforts in Spring of 2013. In that scenario, leaks from pipelines were the source of natural gas. In the Central Valley, there has been efforts to increase oil shale fracking, which has many unknown environmental impacts. In an effort to monitor fracking sites and the surrounding areas, UAVs can be deployed in search of potential leaks and ground compromises.
    • Factory Emissions and Fugitive Emission Detection and Monitoring
    • Water Discharge and Pollution Monitoring
    • Data Capture (aka “Flying Data Mules”) for Weather Stations or Environment Stations
      • Current methods for weather station and environmental field station data collection is through either satellite and cell reception transmission, or by hiking-in to the station and extracting data manually. A UAV is able to fly to the station, circle above head while downloading data, and finally fly home with the data.
    • Multi-UAV Crop-dusting Network
      • In an effort to minimize harmful fertilizers and insecticides/pesticides into the environment, a multi-UAV crop-dusting network can be developed. 
    • Vernal Pool Mapping and Water Sampling to understand the pool dynamics and its coupling to the nearby ecosystems.
    • Sierra Nevada Wildfire Monitoring and Mitigation
    • Air Quality Monitoring and Aerial Microbial Sampling
      • Valley Fever

 

  1. 2.      Campus Initiative Metrics
  • Graduate Education and Research

Drone-based remote sensing and remote application (or spraying, actuation) are becoming an enabler of new multidisciplinary research opportunities. Graduates from multiple graduate programs such as EECS, ME, CIS, ES, CSE, BIOE, BEST etc. will benefit from CIDER’s broad research programs.

  • Undergraduate Education

Currently, MESA Lab hosts over thirty undergraduate students in an effort to educate and spur meaningful involvement at the undergraduate level. We expect CIDER will attract even more undergraduate researchers for their capstone projects, independent research credits, and pure research experiences etc. CIDER will excite our student body and serve an active role for student recruitment and retention, in addition to enriching existent curriculum education.

 

Investment needed

Given the promising future of data drones, it is very reasonable to expect that CIDER will be soon in a self-sustaining mode of growth in both research and development. Timing is also perfect as FAA will be opening NAS in Fall 2015. We will be having full momentum if at the beginning, we have the following:

 

Space:

  • Castle would be a good place for a drone research and development center. CIDER could make shared use of UC MERCED’s Castle Research Facility with UC Solar. Future development will include showcase with CITRIS Hub, and use of workshop facilities for extension and STEM education events.
  • A locked barn/building at UC Merced’s Vernal Pool UC Reserve for flight tests on the Reserve.

FTEs: Full Time Equivalent 3

  • Field Engineer
    • Responsible to lead a group of interested undergrad students for real missions and create revenue to CIDER.
    • Research Engineer/Drone Scientist
      • Responsible for mission based systems integration, R&D, deploy data drones in shortest time, highest reliability, lowest cost.
      • Data Engineer
        • Giving a mission with one data source is not enough, data fusion is necessary for truly “decision-quality” data. Generate decision quality data and decision quality information, for end user to make decisions easier and faster. Explore cloud computing, big data technology to make our CIDER data drones remote sensed data an integral part of big data that can create new type of services.

 

Concluding Remarks:

Using an analogy to the “personal computer” of the 1970s, we are now at the entrance of the era of “personal remote sensing.” Timing is very good for UC Merced to invest and foster the next generation “Bill Gates” and “Steve Jobs” here  in Central Valley, not far from Silicon Valley.

Impact Metrics: 

Commenting is closed.

Molecular and Cell Biology Strategic Academic Vision: 2013-2020

Proposal Status: 
Principal Authors: 

Jennifer O. Manilay, Ph.D. (Chair), in consultation with the faculty of the MCB Unit, School of Natural Sciences

Executive Summary: 

The Molecular and Cell Biology (MCB) Unit is currently comprised of 16 faculty members whose research is focused in 1) Biochemistry, Physiology and Molecular Biology, 2) Cell and Developmental Biology, 3) Microbiology and Immunology and 4) Neurobiology.  We currently serve 1084 undergraduate students in the Biological Sciences (BIO) major and 45 masters and doctoral students in the Quantitative and Systems Biology Graduate Group.  Our research focus is a natural fit to the 2009 Strategic Vision theme of “Human Health”, and as we progress forward to 2020, we envision that basic biological research in the core MCB disciplines will continue to foster this theme.  Here, we present our vision and strategy to build the MCB Unit to 30 faculty with 90 graduate students to achieve excellence in disciplinary and interdisciplinary research, and simultaneously improve the quality of the BIO undergraduate major by 2020.

Initiative Description: 
THIS INITIATIVE IS BEING REPLACED BY Molecular Cell Biology Strategic Academic Vision – Round Two (MAY 2, 2014)

A.  Introduction:  The MCB Unit in the School of Natural Sciences is currently comprised of faculty whose research is focused in four main interdisciplinary areas:  1) Biochemistry, Physiology and Molecular Biology, 2) Cell and Developmental Biology, 3) Microbiology and Immunology and 4) Neurobiology.  We currently serve the majority of undergraduate and graduate students in the School of Natural Sciences:  an estimated 1084 undergraduate students in the Biological Sciences (BIO) major in these emphasis tracks:  Human Biology, Developmental Biology, Microbiology/Immunology, and Molecular and Cell Biology; and 45 masters and doctoral students in the Quantitative and Systems (QSB) Graduate Group, and we have proposed a new Molecular and Cell Biology Graduate Group (under review).  We anticipate that the BIO major will continue to be popular, but we require additional faculty and graduate students to achieve our research goals for 2020.  Here, we present our Strategic Academic Vision for the MCB Unit, in which we strategize for our growth to 29 research track faculty and 3 L(P)SOE faculty members.  To improve the quality of the BIO major, we propose to cap the number of BIO majors at its current number, which will improve student: faculty ratios and allow for the development of more teaching laboratory courses and undergraduate research opportunities.  The addition of 2 new L(P)SOE faculty members will help to facilitate this UG program.  At the same time, we propose to aggressively increase graduate student recruitment, as we grow our research faculty across the core MCB disciplines at a rate of about 2 per year until 2020.  In addition to the human resources, MCB research requires addition physical spaces for new teaching labs, new faculty research labs and offices, core facilities, and collaboration spaces. 

B. Our Vision: 

 

The 2009 Strategic Academic Vision included “Human Health” as a major research theme, with 3 objectives:  1) to establish the Health Sciences Research Institute (HSRI), which now exists, 2) establish a School of Medicine, and 3) evaluate the potential for a School of Public Health.  Basic research in the biological sciences has been a primary driver for these initiatives at UC Merced.  As we progress forward to 2020, we envision that the Molecular and Cell Biology (MCB) Unit’s research foci will continue to feed into the development of these objectives, through its research strengths in the core disciplines of biochemistry, cell biology, microbiology and immunology, molecular biology, neurobiology, and physiology.  

 

There are several “grand challenge” research questions in MCB, such as:

  • What are the biochemical mechanisms that control cellular metabolism and is dysregulation of  these mechanisms the cause of obesity, cardiovascular disease and diabetes?
  • How can we identify and manipulate the genes that control stem cell differentiation to regenerate diseased tissues and organs?
  • How do microbes communicate with each other to form communities, and during fungal infections can we use this knowledge to prevent biofilm contamination in medical devices?
  • What are the molecular and cellular mechanisms that control immune cell recognition and response to viral, bacterial and fungal pathogens, and do these mechanisms also initiate autoimmune disease?
  • Can we predict the evolution of antibiotic and antiviral resistance and use this knowledge to design novel vaccines and chemical inhibitors to prevent and treat infection?
  • What are the molecular and cellular processes that are affected in brain cells to cause mental disorders such as autism, addiction, and dementia?

 

These grand challenge questions are likely to be best answered using an interdisciplinary approach, contextualized in these broader questions:  What are the evolutionary and systems-level causes of diseases like cancer, cell fate decision pathways, and other questions in the organization and dynamics of cells, molecular networks and cellular networks?

 

The composition of the current MCB faculty provides unique and key opportunities for intellectual contributions by combining their personal expertise in the core disciplines and applying them to these grand challenge questions.   All MCB faculty research to date has made significant impacts in their respective core disciplines (as demonstrated through our publications and research grants, which are key indicators of the development of a successful institutional program).  In addition, we already have examples of interdisciplinary collaborations within the MCB Unit, as well as between the MCB Units and other research groups (such as QSB, COGS).

 

These collaborations are fostered by the enthusiasm of our MCB faculty to build from a solid successful foundation in core disciplines, and then to combine their disciplinary strengths to create novel approaches to challenging scientific questions that seem impossible to tackle.  By supporting the growth of an interdisciplinary, quantitative and systems-oriented MCB Unit, our program will have a unique opportunity to benefit from and synergize with other units and programs to lead the MCB discoveries of tomorrow.  Interdisciplinary collaborations, both on and off campus, will play an important role in the continued success of the MCB program.  We envision that these interdisciplinary studies will not only help to solve these questions, but also contribute to the scholarly development of our faculty, and ultimately, to imbed this intellectual desire into our graduate trainees, as well as into our undergraduate curriculum.

 

UCM consists of a diverse group of collaborative individuals that appreciate considering diverse approaches to their research problems.  There are numerous opportunities for collaboration, including mathematical modeling, metabolic modeling, exploring microbial interactions with the immune system, exploring how cellular communities evolve, comparative studies across model organisms,  structure-function analyses .   This rich resource of colleagues gives us an advantage over other institutions, as we have the ability to more rapidly incorporate “higher-order” types of data analysis into our thinking and research plans.   Medical practitioners in the Central Valley are motivated and interested in contributing to research that investigates the causes and predicts disease progression within our community, which has been understudied. The MCB Unit is poised to take advantage of this community interest and is already providing lay seminars on our research and collaborating with local physicians to research medical issues within the community to foster this additional unique source of partnerships. 

 

Extramural funds are absolutely required to support our research.  Financial support for MCB faculty research comes from federal and state organizations (such as the National Institutes of Health, the National Science Foundation, California Institute for Regenerative Medicine), nonprofit and private sponsors (UC Cancer Research Coordinating Committee, American Heart Association, American Diabetes Association, National Kidney Foundation, Autism Speaks, Simons Foundation, American Cancer Society, Gates Foundation), local community research grants, industry partnerships, and philanthropists.  One of our faculty members is exploring “crowd funding” as an additional funding mechanism.   Interdisciplinary collaborations, both on and off campus, will play an important role in the continued success of the MCB program, especially if economic drivers of funding agencies are pushed to support a move from basic to translational research questions.

 

C.  Our Strategic Plan:    The following resources are needed for the MCB unit to realize these research goals by 2020:

a. Increase current number of MCB faculty from 16 to 30, with specific growth in experimentalists (i.e. “wet lab” scientists) in biochemistry, cell biology, developmental biology and metabolism, as well as target faculty recruitment for MCB growth in computational (i.e. “theoretical”, computational biology, bioinformatics) within all the MCB research subareas.  We are in major need of senior-level researchers with their strong scientific connections, mentoring capacity and general understanding/overview of our research programs. We envision that these scientists will also bring the capacity for more funding, are usually well-respected in their fields, and can facilitate invitations to renowned speakers to our research seminar series. Senior-level faculty can also elevate the overall quality of graduate programs by attracting the highest quality students and postdoctoral researchers to UCM.  We also see a need to add L(P)SOE faculty members to our unit to help manage and provide leadership in the improving the rigor and quality of the undergraduate BIO major.

b. Build new faculty research space.  We are currently in a deficit in terms of wet labs for experimentalists in MCB, and even with the opening of the new Science and Engineering-2 Building, all wet lab spaces will be full until an additional new building is constructed.  The lab spaces for current MCB faculty do not allow for adequate growth for the addition of appropriate numbers of graduate students (our target graduate student to faculty ratio is 3:1), postdoctoral trainees and research staff. New wet laboratories will require temperature and air control, gas and vacuum lines, tissue culture rooms, and common work areas for chemical handling, shared equipment, glassware and consumable storage, and electrical capabilities to handle power -20C and -80C freezers, refrigerators, centrifuges, incubators and microscopes.   Shared computing resources are currently constrained and MCB faculty will need access to central planning for computational resources, including server room space, time and staff support for research computing, and infrastructure to support servers, cloud computing, and sharing large data sets, and specialized computing (such as structural biology).  It is envisioned that MCB will participate in the proposed Center for Theory and Computation (CTC) to fulfill some of these needs.  To facilitate interdisciplinary collaborations, these labs would be co-housed in a building that is connected or in close proximity to faculty within the QSB program, which includes faculty researchers in biophysics, mathematical biology, and systems biologists.

c. Core research facilities:  UCM currently has an excellent vivarium, facilities for flow cytometry, confocal microscopy and genomics.  However, additional core facilities are needed.  These cores need to be sustained and be located within close proximity to the faculty research labs that utilize them.  Future core facilities should include:

 

  • Protein engineering/biochemical analysis core:  one room for a mass spectrometer and another room for equipment for N-terminal sequencing, amino acid analysis, and for making new antibodies; space for proteomic and metabolomic analyses
  • Bioinformatics core:  space for a core of 3-5 bioinformaticians and biostatisticians (staff, not to be confused with the tenure-track faculty) dedicated to assisting faculty with experimental planning and data processing (especially for large RNA-sequencing);
  • Histology core:  space for cryostat/microtome, large sink and fume hood for histological analysis of tissue specimens, and possibly a human tissue repository to store human tissue samples from healthy and diseased individuals. 
  • Machine shop for creating custom equipment.
  • Transgenic mouse facility to be housed in the vivarium, including space for equipment of microinjection of cells and mouse embryos to create transgenic, knockin and knockout mice, collection of gametes and their cryopreservation
  • Animal behavior core:  various cognitive tests, locomotor activity, motor performance tests, etc.)
  • Extended imaging facility: laser microdissection microscope, stereology, and real-time, in vivo functional imagery
  • Expanded genomics core: to house current DNA sequencing and genomics core, and add oligonucleotide synthesis service and next-generation sequencing equipment
  • Standalone BSL2+ to BSL3 facilities for the study of pathogens that could cause severe or lethal human disease.   Such facilities are usually confined to a specific area of a building with appropriate positive air pressure controls, ventilation, equipment for decontamination and biological safety cabinets. 
  • Robotics core consisting of useful equipment for high throughput experiments, such as genetic and small molecule screens.  Some examples of equipment in this core could be liquid handling robots like the Beckmann Fx, cell analyzers, plate readers, bulk liquid dispensers, plate washers and dispensers like the Biotek EL406, and colony plating robots.

 

d. Common physical spaces that promote interactions and collaborations, such as a dedicated large amphitheater/lecture hall for the seminars for the School of Natural Sciences outside of the main buildings that house the faculty labs.  Reorganization and renovation of existing labs to shared spaces between faculty to promote efficiency through the use of shared equipment and facilities, as well as promote close interaction among collaborating labs, and laboratory safety.

 

e. Increase graduate student recruitment. Currently, most of the graduate students in MCB faculty labs are recruited within the QSB Graduate Group.  We have proposed the formation of a new additional graduate group (MCB) that we anticipate will permit for the growth and strengthening of graduate education at UCM.   We aim to reach a goal of 3 graduate students to each faculty member by 2020.

 

e. Physical spaces to promotion of the scientific work ethic and culture that is required for scientific success.  Biological research does not follow the traditional “9 to 5” business hours. Secure spaces on campus within science buildings that encourage and support students for round-the-clock experiments and intensive study are necessary (such as a science library, with graduate student library/lounge with kitchenette, couches, coffee, and workstations/wireless internet access).

 

f. Research funding:  NIH, NSF, Department of Defense, Army, DOE, UC internal funds, state and federal agencies, philanthropic donors, professional societies, international government funds (such as JSPS, UCMEXUS)  industrial biomedical industry.  Funding for interdisciplinary/multidisciplinary research is very difficult to obtain, institutional resources such as the Research Development Services could be leveraged to make UCM more competitive in this area to provide administrative support for faculty in grant preparation, and to maintain an updated database and search for UCM-specific funding opportunities.  Given the current low funding climate, bridge funding programs to sustain faculty research progress as they work to re-establish extramural funding need to be established.  This bridge funding program is also important for faculty retention at UCM. 

 

D. Targeted faculty recruitment strategy:  We are committed to reaching our goal of 30 tenure-track faculty by 2020.   However, after the 2013-14 academic year, we will be unable to hire faculty that require experimental wet labs without allocation of space in SE2 or construction of new buildings.  Table 1 shows the current MCB faculty by subdiscipline, and planned hires for each type.  Table 2 shows the space needs for our proposed recruitment plan.


 

Table 1. Current and Proposed Future MCB Faculty by Subdiscipline

Biochem/Mol Bio/

Physiology

Cell and Development

Microbiology and Immunology

Neurobiology

Computational,

Bioinformatics

Choi

Cleary

Barlow

Cleary

Ardell

Filipp

Hoyer

Choi

Kitazawa

Barlow

Liwang

Manilay

Garcia-Ojeda (LPSOE)

 Saha

Huerta-Sanchez

Ortiz

Oviedo

Hoyer

 Wolf

AY13-14: Molecular Sys Bio

Recruit: AY16-17 Metabolism

Recruit:  AY17-18 cancer cell biologist

Manilay

Recruit:  AY17-18

Genomics

AY14-15: Computational Cell Biologist

Recruit: AY16-17

Structural biochemist

Recruit: AY18-19

Developmental biologist

Nobile

Recruit:AY18-19:

Neurobiology

AY14-15:

Bioinformatics#1

 

 

Ojcius

 

AY14-15:

Bioinformatics#2

 

 

AY13-14 Immunologist

 

 

 

Recruit AY15-16: LPSOE (Human Biology BIO major and develop teaching labs in biochemistry

Recruit AY18-19:LPSOE (Cell and Development, Neurobiology)

 

Table 2.  Proposed MCB Recruitment Plan with Space Needs*

Recruitment Year

Type of recruitment

Space needs

2013-14

1) Immunology

2) Molecular Systems Biology

Wet

Wet/Dry

2014-15

1) Computational Cell Biologist

2) Bioinformatics #1

3) Bioinformatics #2

Dry

Dry

Dry

2015-16

1) L(P)SOE

No research hires (we need new wet lab space to be under construction)

Office

2016-17

1) Structural biochemist

2) Metabolism

Wet

Wet

2017-18

1) cancer cell biologist

2) genomics

Wet

Wet

2018-19

1) L(P)SOE

2) developmental biologist

Office

*this is a proposed plan based on current space constraints; our preference is to grow dry and wet labs simultaneously

 

E.  The Potential Impact of our Vision and Strategic Plan:    In our plan, we have included projections of faculty and graduate student growth through AY2020 (please see the attached “MCB Impact Metrics Worksheet”).  In addition, we have proposed to cap the number of BIO majors as lectures are currently impacted, and teaching laboratories are currently scarce.  We wish to improve the quality of our undergraduate major by the creation of new upper division specialized lab courses to complement our junior and senior level courses and to provide specialized experiential learning and practical skills to our BIO majors within their disciplinary emphases.  We have added 2 LPSOE positions to our plan to enhance faculty support to the undergraduates.  As is shown in the Impact Metrics, this reduces the undergraduate: MCB faculty ratio to 36:1 by AY2020, (currently at 77:1).  Clearly, more will have to be done to reduce this to the target ratio of 24:1.  We have projected graduate student enrollment to grow with faculty recruitment to achieve a graduate: MCB faculty ratio of 3:1 as early as AY17-18, although we would like this to increase to 4:1.

F. Peer Institutions:  The following peer institutions were selected using data collected by the National Research Council: http://sites.nationalacademies.org/PGA/Resdoc/.  The research programs of the peer institutions mirror what we wish to achieve for UC Merced MCB by 2020.

Table 3. Realistic Peer Institutions

Institution

Number of faculty

Number of grad students

Website

Rice University

Wiess School of Natural Sciences

Biochemistry and Cell Biology

21

60

http://natsci.rice.edu/ShowContent.aspx?id=800

 

UC Santa Barbara Molecular Cellular and Developmental Biology

26 faculty, 3 lecturers

52

https://www.mcdb.ucsb.edu/research

 

UC Santa Cruz

Molecular Cellular and Developmental Biology

26

46

http://mcd.ucsc.edu/faculty/index.html

 

 

Table 4. Aspirational Peer Institutions

Institution

Number of faculty

Number of grad students

Website

Caltech – Biology

30

77

http://biologyoption.caltech.edu/people/index.html

 

Cornell University Graduate Field of Biochemistry, Molecular and Cell Biology

52

91

http://bmcb.cornell.edu/program/index.html

 

UC Irvine Cellular and Molecular Sciences

139

??

http://cmb.uci.edu/

 

Commenting is closed.

Public Health At UC Merced

Proposal Status: 
Principal Authors: 

Prepared by Paul Brown on behalf of the Public Health Advisory Group

Executive Summary: 

Public Health is a multidisciplinary area of research and study focusing on measuring, understanding and improving the health of the population, including the health needs of vulnerable populations, the causes and determinants of poor health, and ways to improve the public health system and the health of the population. As described below, by 2020, UC Merced will have an accredited School of Public Health that offers MPHs and PhDs in Public Health, a popular undergraduate program that prepares students for careers in the SJV and graduate study, an active funding base to support public health researchers, and faculty helping to deliver a unique Medical Education program training doctors to address the challenges in the SJV. The model that we propose is interdisciplinary and takes advantages of existing resources and strengths on campus. We are well on our way to realizing the goal laid out in the 2009 Strategic Academic Vision.

Initiative Description: 

I. Advances in Public Health since 2009 Strategic Academic Vision:

The 2009 Strategic Academic Vision included “Human Health” as a major theme, with 3 objectives:  1) to establish the Health Sciences Research Institute (HSRI), 2) establish a School of Medicine, and 3) evaluate the potential for a School of Public Health.  The develops involving human health research and Medical Education are addressed in more detail in the Health Sciences Research Institute's (HSRI) Strategic plan. The purpose of this plan is to address developments in Public Health and to argue that in accordance with the 2009 Strategic Academic Vision, UCM should establish a School of Public Health. 

 

It is well known that the San Joaquin Valley has some of the most dire health statistics in the country, with health disparities and levels of poverty comparable to the poorest Appalachian regions, and comparable to developing countries. The region also includes numerous communities that are federally designated as a Health Professional Shortage Area (HPSA), meaning that the population of this region has significant health issues and restricted access to health care. UC Merced is located in one of the most ethnically diverse regions in the country, with significant underserved populations (e.g., Hmongs, Latinos, lower SES) who are typically underrepresented in clinical trials and without access to most advanced medical treatments and public health interventions., it is crucial that UC Merced establishes a School of Public Health to serve this region..

 

At the time of the last Strategic Academic Vision, Public Health did not exist in any formalized way at UC Merced. In the last four years, Public Health has become a well-established research and teaching entity, and is serving as the catalyst for health-related training and research on campus and in the region. Currently the Public Health Group, in conjunction with UCSF Fresno, other UCM departments, and local public health departments, is spearheading a research project on Valley Fever, a understudied fungal infection which is predominant in the SJV, but is understudied. HSRI and members of the Public Health Group have submitted a grant to the National Institutes of Health to develop infrastructure regarding addressing obesity in the SJV.  Public health group members are currently active in developing multi-disciplinary and multi-department grants which address health issues in the region and will be submitted to state and national level funders.  By growing and developing a School of Public Health, UCM will be poised to rapidly respond to health issues in SJV as they are identified.

 

Academic demand for Public Health degrees at UCM also points to the need to develop a School of Public Health that offers accredited undergraduate and graduate public health degrees.  Since its introduction in 2010, the Minor in Public Health has proven to be extremely popular with students, and is currently the 7th most popular minor at UC Merced. Public Health has continued to advance with the hiring of a Professor of Public Health, the formation of a multi-disciplinary Public Health Advisory Group (PHAG; see Appendix A for current membership), the hiring of three Assistant Professors of Public Health, and three more positions set to begin in the Fall of 2014. In addition, the Public Health Graduate Group (PHGG) admitted our first group of graduate students in 2012 (through the Social Sciences Graduate Group) and, as described below, is proposing to form its own graduate program (PhD in Public Health), its own Bylaw 55 unit, and introduce both a Bachelor of Arts and a Bachelor of Science in Public Health.  Establishing a formal School of Public Health would provide crucial infrastructure to maintain these programs.

 

Currently, Public Health encompasses many of the key features being promoted by UC Merced: Inter-disciplinary course of study, addressing a major issues in the region, producing graduates that are demanded by government, university, and private employers, and is integral to the future development of medical education at UC Merced.

 


 

II. Goal for 2020

Our goal is to have UC Merced recognized by 2020 as a top 20 Public Health program in the US. 

We will achieve this through:

  • Increased research productivity - We will focus on research areas in which we can achieve a high volume of research output, large income from grants and foundational support, and international reputation as a research leader in specific areas.  By focusing on the research areas described below, we will be able to achieve international recognition.
  • Research influence - In addition to citations, research influence in Public Health is also determined by the extent to which the researcher and the Public Health group has regional and national exposure in areas pertinent to the SJV.   
  • Teaching and training - We will provide undergraduate and graduate education that focuses on research excellence while providing students with the skills required to succeed after graduation. 

 

As stated previously, the Public Health group is currently engaged in intra-departmental and inter-disciplinary research that focuses on health issues in the SJV.  Members of Public Health are actively seeking grant and foundational support for research in the SJV.  In addition, Public Health is rapidly growing a core undergraduate and graduate curriculum that integrates research on local public health issue areas with traditional public health course offerings.

 

III. What will Public Health look like in 2020?

By 2020, Public Health would look as follows:

 

Key Focus Areas

 

Public Health at UC Mercedwill have developed a School of Public Health that focuses on researching key issues in the SJV region - including improving access and quality of care, developing strategies for researching hard-to-reach communities, providing interventions and treatments that are appropriate for diverse communities, developing effective health promotion and awareness campaigns.

 

Public Health programs consist of five core Public Health subject areas: Epidemiology, Health Services Research & Policy, Biostatistics, Environmental Health, and Social and Behavioral Health --  - The core Public Health subjects are taught in all schools; however, top Schools of Public Health have concentrated expertise for which they are renowned.  For example, as the University of North Carolina is renowned for international health management; Northwestern for urban health issues; Johns Hopkins for international health and urban health; and the University of Kentucky for working with Public Health Departments. As a new institution, UC Merced has the luxury of being able to choose the area or areas in which to grow between now and 2020. The UC Merced Public Health Group has chosen to target those areas that offer the best opportunities for addressing pressing health issues in the region and has identified five areas for focus on developing by 2020:

 

  • Prevention Sciences – Public Health at UC Merced will emphasize understanding the social determinants of disease and developing interventions for the prevention of illness and promote good health in order to address major non-communicable diseases endemic in the region including obesity, diabetes, cancer, and other metabolic diseases.
  • Infectious disease – Public Health at UC Merced will also focus on infectious disease transmission and control, including the social determinants impacting who gets sick and public health strategies aimed at prevention. There are many communicable diseases, such  as Hepatitis B and C, West Nile Virus, HIV/AIDS, and Sexually Transmitted Diseases, that are prevalent in the SJV and whose etiology and transmission need to be addressed.  This includes addressing so called “orphan diseases,” such as Valley Fever, that are endemic to the SJV region but do not receive wide attention because it is confined to smaller areas of the US.
  • Public Health Services Research and Administration – Public Health at UC Merced will work to improve access to health care, quality of care, and the organization and cost of health services. This area is critical to ensuring that the people of the SJV region have access to good, quality, affordable care that is offered in culturally appropriate ways. 
  • Environmental Health – Members of the UC Merced School of Public Health will seek to understand the contribution of our physical environment to human health and identify ways that we can ensure people live in a healthy environment. This is critically needed in the region given the multitude of environmental problems we face in the SJV, including air pollution, pesticide use, ground water contamination, and indoor air quality.
  • Public Health Genetics - The genetic diversity in this region provides a tremendous opportunity to explore the interaction between genetic makeup, environmental factors, and health behavior. This is a growing and promising area of Public Health that will allow cross-disciplinary research between various departments at UC Merced.

 

Given the issues in our region, we would be remiss if we did not focus our training and research on the issues that are likely to improve the health of the people in the region. This is part of UC Merced's mission. Focusing on these areas also provides a strategic advantage for UC Merced to develop a unique identity. UC Merced is the only UC located outside of a (mostly wealthy) urban setting, and we were put here in part to help provide the benefits of a research institution to the more than 4 million people in our catchment region. By focusing on these areas, we could become world-renowned and would be able to offer a program that was unique not just among the other UC schools, but in the world.

 

Graduate, Undergraduate, and Medical Training at UC Merced

 

By 2020 Public Health will have established a BA and BS in Public Health, a graduate program in Public Health, and be active participants in the UC Merced Medical Education Program.  These degrees and programs would be located in a UC Merced School of Public Health.

 

Undergraduate training -Public Health is currently proposing the introduction of two undergraduate programs for the Fall of 2014: BA focusing on Prevention Sciences, and a BS focusing upon Infectious Disease or Genetics (see Appendix B for proposed course of study).   While once relatively rare, undergraduate public health degrees are now commonplace at universities with active Public Health Departments or Schools. For instance, UC Berkeley undergraduate program is so popular that they have had to cap enrolment and institute a minimum GPA requirement.   As a result, we anticipate a high demand for offering Public Health training at the undergraduate level.

 

Initially, students who complete our undergraduate degree will be encouraged to focus on one of two areas:

  • Prevention Sciences - Provides students with an understanding of health disparities and the social determinants of disease, with an emphasis on developing interventions that can promote prevention of illness.  This track of study is being developed in conjunction with the Psychology and Sociology Departments.
  • Infectious disease - Students will emerge with an understanding of the biology of infectious disease transmission and control, as well as social determinants impacting who gets sick and public health strategies aimed at prevention.  This track of study is being developed in conjunction with the MCB group.

 

By 2020, we will have at least three other areas of study, including Environmental Health, Public Health Genetics, and Health Services Research.  These programs of study will be developed in conjunction with other departments here at UC Merced.

 

As part of our program, we are introducing a Research/Service Learning requirement whereby students learn about health issues facing people in the San Joaquin Valley and then either engage in research relevant to the region or work with a community organization on a project relevant to a health issue in the region.  We are integrating regional health research projects into core undergraduate classes as well.  Graduates with an undergraduate degree in Public Health from UC Merced will be prepared to pursue careers in health organizations in the region and for graduate study in either Medicine or Public Health.

 

Graduate degree offerings - Beginning in the Fall of 2014, we will admit our first group of graduate students interested in pursuing a Master of Science and PhD in Prevention Sciences (see Appendix  C). This program has been developed in concert with Sociology and Health Psychology, and we expect that Public Health students will interact closely with graduate students in these areas in the coming years.

 

Initially, our graduate program will be administered through the Social Science Graduate Group. However, we are in the process of proposing our own graduate group and degrees: Master of Science (Public Health) and PhD (Public Health). Depending on the speed of approval, we expect this to be formally available in Fall of 2015.

 

Among the UC campuses, Davis, Berkeley, and UCLA offer MPHs and PhDs in Public Health. UC Irvine has an agreement with Long Beach State to provide public health training for its medical residents, and UCSD and SDSU have a unique joint PhD program in Public Health (students take their MPH courses at SDSU, have joint supervision between UCSD and SDSU faculty, and get their PhD through UCSD). In our region, Fresno State offers an MPH in three accredited areas (Health Administration, Community Health, and Environmental Health), although their program is mostly vocationally focused (not a research degree).

 

The PHAG has concluded that there is sufficient student and employer demand for UC Merced to ultimately offer a research based MPH and PhD in Public Health. Our consultations with providers (e.g., Public Health Departments and healthcare providers) in the region suggest that UC Davis and UC Berkeley programs do not train students who are going to work in the region. Furthermore, our program would compliment rather than compete with Fresno State's program, and their Department of Public Health has expressed an interest in exploring a UCSD/SDSU type arrangement. Stanislaus State's  Nursing and Kinesiology Program have also expressed interest in a similar type of arrangement. While such endeavors will require significant time to develop, it does signal the important role that other institutions in the region see for UC Merced in training graduate students in Public Health.  Establishing a School of Public Health at UC Merced would provide a linkage point where joint school programs could be housed.

 

Over the coming months, we will look to introduce a Public Health graduate courses of study in Health Services Research (in concert with Economics), Infectious Disease and Public Health Genetics (in concert with MCB), and Environmental Health (in concert with Environmental Systems). Thus, by 2020 UC Merced will have an active Public Health graduate program that trains students in areas that are important to the region and thus consistent with UC Merced's mission.

 

Note that being accredited and thus being able to offer an MPH (as opposed to a Master of Science (Public Health) requires a sufficient critical mass of faculty in the five areas of concentration.

 

Medical education - As described in HSRI's Strategic Plan, the proposed UCSF-Fresno/UC Merced Joint Medical Program would involve students spending three years at UC Merced, having case-based learning sessions led by UC Merced faculty and selected people from the region, receiving their initial clinical training at Mercy and/or Golden Valley,  emerge with a Master of Science in either Public Health or Biomedicine, and then complete their clinical training at UCSF-Fresno. This program is modeled on the UC Berkeley/UCSF JMP, with the Berkeley program being administered by the School of Public Health.

 

The PHAG is enthusiastic about the prospect of UC Merced adopting this type of Medical Program. Our focus on the health of our diverse communities would fit perfectly with the focus of the proposed JMP. Our faculty look forward to adapting the case-based learning programs for our diverse communities, thereby providing the opportunity to train Medical Students in how to work with our communities. This would make the JMP unique in the world.

 

School of Public Health - At the present time, Public Health is part of the Psychological Sciences Bylaw Unit with SSHA. The Faculty and Dean of SSHA have been very supportive in promoting the development of Public Health, and we thank them for creating a fertile environment to initially grow.

 

By 2020, however, there should be a School of Public Health. The multidisciplinary nature of public health means that the administration of the programs requires faculty from across the campus. In addition, Schools of Public Health tend to operate differently from schools of Natural Science or Humanities. Rather than expecting these other organizations to accommodate two different groups of faculty and programs, most universities have concluded that Public Health programs become Departments within Medical Schools or independent schools. Since we are not likely to have a Medical School in the foreseeable future  and since there are good reasons why Public Health groups do better outside of Medical School, we should aim to establish a School of Public Health by 2020.

 

Growing a Public Health at UC Merced

 

 If you look at most Schools or Departments of Public Health around the country, most are stand alone units that hire their own researchers, teach their own students, and have relatively little involvement with researchers from other disciplines.  . So despite being 'multidisciplinary' in theory, Public Health is often siloed and isolated in practice. Public Health is a unique field in that it is truly interdisciplinary. UC Merced has chosen to develop via an inclusive model, and the establishment of a truly interdisciplinary School of Public Health could make UC Merced a model for other universities who wish to establish a School of Public Health.

 

Growing a Public Health Group: UC Merced Public Health has chosen to become an inter-disciplinary research and teaching group that seeks to integrate members from other departments and other schools. Even before the formation of the PHAG, UC Merced had a number of researchers located in differing departments with teaching and/or research interests relevant to Public Health. These researchers, as well as other more recent hires, have joined together to develop an interdisciplinary Public Health Group. Given this unique start, Public Health seeks to develop first a Program, then a School that will become a home for all faculty with an interest in Public Health and that will promote inter-departmental and inter-disciplinary health-related research.

 

We propose to do this by continuing to integrate existing faculty with interests in Public Health in the PHAG and then the Public Health Bylaw unit. We expect that there will be a core group of faculty with 100% appointments in Public Health, but a larger, more diverse group of faculty with 0% appointments in Public Health and 100% appointments in their home disciplines. As we develop strategies to expand our offerings and faculty positions, we will explore joint positions in which the faculty would be located in a discipline (e.g., sociology) but have teaching and research interests relevant to Public Health as well as faculty with areas unique to Public Health.

 

Research growth - We would expect that by 2020 there will be a large number of Public Health Research Scientists. Public Health is one of those areas where there is the potential for large amounts of research funding, particularly if paired with a Medical Education program. As noted in the HSRI Strategic Plan, UCSF-Fresno, Fresno State, and UC Merced (HSRI) have different areas of strength - UCSF-Fresno has clinicians, patients, and access to clinical partners, Fresno State has a research infrastructure that can provide access to hard to reach communities, and HSRI has academics with diverse areas of expertise and the time to do research. Public Health research is likely to be a major area of research growth within HSRI, and our strengths complement the other partners in the region.

 

How big might this research infrastructure get? It is difficult to find information regarding the specific funding levels for Schools of Public Health, but note that most major public health schools require their tenured faculty to bring in between 50% and 80% of their salary at all times....and the faculty are able to achieve this. That means that, unlike other disciplines, there is funding available. 

 

What will the School of Public Health look like by 2020? Summary of resource needs:

The UC Merced School of Public Health will have a Dean with overall responsibility for administering the Public Health Undergraduate and Graduate Programs, oversight (either joint or sole) of the UC Merced/UCSF-Fresno JMP, be responsible for a core group of Public Health faculty, and oversee a large cadre of Public Health Research scientists. The faculty would sit within the new Health Sciences Research and Education Building (HSREB) in which house HSRI, the Public Health administrative staff (10 to 15 staff members) and faculty (15 to 20 faculty), and a large number of post-doctoral students and Research Scientists (10 to 15).

 

  • Feasibility plan for new School of Public Health (est. $20,000)
  • New Dean of School of Public Health
  • 10 to 14 new FTEs (2 per year) in areas of core with particular interests in helping develop unique case based JMP model for SJV
  • Office space in HSREB (45 to 50 offices)

 

IV. Summary - This strategic plan has outlined a vision of what Public Health could look like in 2020. In order to realize this vision, UC Merced needs to do the following steps:

  • Introduce Public Health Undergraduate Programs (Submit Fall 2013 for Fall 2014)
  • Introduce Public Health Graduate Program (Prevention Sciences) (Fall 2014)
  • Undertake feasibility plan for new School of Public Health (Spring 2014)
  • Propose new Graduate Group and Graduate Program (Submit in Spring 2014 for Fall 2015)
  • Hire core faculty in Public Health (Spring 2013 to 2020)
    • Epidemiology, Health Services Research, Health Communication, Environmental Health 
    • Hire Dean - Advertise in Fall 2014 to being Fall 2015
    • School of Public Health - Fall 2016
    • Public Health faculty work with JMP staff to develop case based JMP model for Medical Education - Fall 2016 onward
    • Achieve accreditation - Fall 2018
Other Supporting Documents: 

Commenting is closed.

Entrepreneurship Research Institute (ERI) (second round)

Proposal Status: 
Principal Authors: 
  • Fanis Tsoulouhas, Ruiz Family Professor of Entrepreneurship, SSHA
Collaborators, Affiliates and Endorsers:
  • Paul Almeida, Associate Professor of Sociology, SSHA
  • Brian O'Bruba, Director of Career Services Center
  • Christopher Butler, Assistant Dir. of The Foster Family Center for Engineering Service Learning
  • Elliot Cambell, Associate Professor of Environmental Engineering, SOE
  • YangQuan Chen, Assistant Professor of Mechatronics, SOE
  • Yihsu Chen, Associate Professor of Energy and Environmental Policy, SOE and SSHA
  • SA Davis, Lecturer of Management, SSHA
  • Robin Delugan, Associate Professor of Anthropology, SSHA
  • Sarah Depaoli, Assistant Professor of Quantitative Psychology, SSHA
  • John Kennedy Haner, Lecturer, Merritt Writing Program
  • Mark Harris, Lecturer of Management, SSHA
  • Evan Heit, Professor of Cognitive Science, SSHA
  • Dan Hirleman, Dean of Engineering, SOE
  • Diane Howerton, Regional Director, UC Merced SBDC Regional Network
  • Haifeng Huang, Assistant Professor of Political Science, SSHA
  • Roummel Marcia, Associate Professor of Applied Mathematics, SNS
  • Steve Roussos, Interim Executive Director, The Blum Center
  • William Shadish, Professor of Quantitative Psychology, SSHA
  • Gorge Sirogiannis, Lecturer of Management, SSHA
  • Jian-Qiao Sun, Professor of Mechanical Engineering, SOE
  • Alex Theodoridis, Assistant Professor of Political Science, SSHA
  • Zulema Valdez, Associate Professor of Sociology, SSHA
  • Craig Vilhauer, Lecturer of Management, SSHA
Executive Summary: 

The Entrepreneurship Research Institute (ERI) can be the University’s vehicle for: (a) the promotion of research in Entrepreneurship, broadly defined; (b) fostering interactions and developing partnerships with the business community; and (c) engaging the local community. The institute will undertake cutting edge research in Entrepreneurship, raise the profile of UC Merced in the business community and facilitate student placement and fund-raising, as well as engage the local community in entrepreneurship activities and related opportunities in the area. UC Merced can become an entrepreneurship hub and a business incubator. Whereas we may not be able to replicate the success of Silicon Valley, it does cost a lot less to start up a company in Central Valley than in Silicon Valley.

Initiative Description: 

A. Executive Summary
The Entrepreneurship Research Institute (ERI) can be the University’s vehicle for: (a) the promotion of research in Entrepreneurship, broadly defined; (b) fostering interactions and developing partnerships with the business community; and (c) engaging the local community. The institute will undertake cutting edge research in Entrepreneurship, raise the profile of UC Merced in the business community and facilitate student placement and fund-raising, as well as engage the local community in entrepreneurship activities and related opportunities in the area. UC Merced can become an entrepreneurship hub and a business incubator. Whereas we may not be able to replicate the success of Silicon Valley, it does cost a lot less to start up a company in Central Valley than in Silicon Valley.

B. Thematic Area
The primary thematic area is “Innovation and Entrepreneurship”, but our proposal spans across other themes such as “Information, Computational and Data Sciences, and Engineering”, “Disparities: Equity, Diversity, Social Inequality”, “Environmental Sustainability”, and “Energy and Energy Systems”.

C. Intellectual Components of the Strategic Initiative
The Entrepreneurship Research Institute (ERI) aims at providing a collaborative and interdisciplinary environment fostering new research contributions related to Entrepreneurship and Business Administration, including small business administration and agribusiness, along the lines of business organization and governance, decision making, financial management, uncertainty, risk-taking and enterprise risk management, business strategy and game theory, economics of information, team-building, innovation and information diffusion, human resource management and incentive provision, environmental policy and sustainability, organizational behavior, business ethics and business communication. Emphasis will be placed on agribusiness and agricultural product processing, winery operations management, management of sustainable energy and water technologies, and micro-financing. We aim at stimulating new sources of funding facilitating research which will lead to publications in major scientific journals, supporting existing funded research, and supplying research techniques or services to faculty groups. We will also emphasize quantitative methods (including modeling, optimization, numerical data analysis, simulation techniques and statistical estimation) in our research, which is rapidly becoming a uniform theme across campus (see related proposals, such as the Statistical and Quantitative Research initiative of the Center for Statistical and Quantitative Research (CeQR)). Quantitative Methods can be a cross-campus initiative that will bring distinction to UCM.

The research focus of the institute stems from the existing expertise of the collaborators in this proposal, as well as from their future research plans. Specifically, the collaborators in this proposal have a proven track record in research related to executive promotion and compensation, performance pay and incentives, relative performance evaluation, limited liability and bankruptcy, organizational structure, labor and credit contracts, capital structure, individual and group decision making, computational modeling and data sciences, stochastic systems, Monte Carlo simulations and multi-objective optimization.

The collaborators and affiliates in this proposal are also interested in pursuing research on micro-finance and crowd-funding with applications to Central Valley. Some of the collaborators submitted a grant proposal to CITRIS focused on micro-financing in Central Valley as a facilitator of growth. Another group of collaborators recently submitted a grant proposal to USDA-NIFA-HSI on innovation and entrepreneurship programs for Hispanic College students to be involved in the agricultural (precision agriculture and unmanned drone programs) and food processing industry (Gallo and Foster Farms) of the Central Valley. And other members are engaged in the areas of knowledge diffusion, data sciences, interactive uses of technology, as well as Federal relations in general.

We will work closely with the Office of Research to seek funding from sources such as CITRIS, Blum Center, NSF etc. in order to undertake research projects in the research focus areas above. We will seek industry funding to establish conferences and workshops on innovation, entrepreneurship and finance.

We will work with COR, GC, CAPRA, UGC and DivCo to create a research center that will operate as an organized research unit (ORU) and will be open to all faculty and students across disciplines with an interest in research related to all aspects of innovation, entrepreneurship and the management of organizations, as well as staff that deals with businesses in their University capacity. We will request the Chancellor to appoint an Advisory Committee. We envision working with a variety of business organizations and recognized business leaders nationally and in the state, along with the Office of Research and Economic Development, so that UC Merced becomes an entrepreneurship hub and a business incubator. Whereas we may not be able to replicate the success of Silicon Valley, it does cost a lot less to start up a company in Central Valley than in Silicon Valley. If we focus on our competitive advantage, producing innovations in the areas of agribusiness and agricultural product processing, winery operations management, and management of sustainable energy and water technologies, we will put Merced on the map.

Whereas several units on campus are engaged with entrepreneurship issues, there is no uniform representation of these activities. The institute we propose will provide an umbrella to coordinate all these activities, facilitate cooperation and enable seeking additional funding. We aim at working with all three schools on campus, as well as with SNRI and HSRI to this end. Given the University’s mission, we will also provide an environment were diversity in all its forms is embraced.

As acknowledged by the Management Program Review, UC Merced’s Management Program must develop reciprocal relationships with business and community leaders. In this respect, we propose to work closely with the Career Services Center, Development and Alumni Relations, Corporate Relations, CITRIS, the Margo F. Souza Leadership Center, the Small Business Development Center at our Fresno facility, the Engaged Transformation of Poverty (ETP) in the San Joaquin Valley initiative, the “Global California: The World at Home” initiative, the Blum Center and the Foster Family Center along the following lines: (i) investigate the needs of the state businesses; (ii) support small businesses in the area; (iii) organize business days on campus with Career Services and Development for various businesses that include a panel discussion of the employment needs of the company and of what UC Merced has to offer (similar to the Gallo day Career Services recently organized), with student involvement and recent recruit involvement; (iv) organize classroom visits and interactive sessions for business community members; (v) facilitate student involvement with business projects; (vi) facilitate faculty and student internships with local companies similar to the ones recently secured with Gallo and HotChalk; (vii) investigate fund-raising possibilities with Development among local businesses and entrepreneurs; and last but not least (viii) engage the local community to embrace business development opportunities. We also propose to work closely with students and support their efforts (for example, the student led Entrepreneurial Society Club, the Investment Club (sponsored by Mark Harris), the Business Society, and a new student publication in the works entitled Management Review).

As part of the functions of the institute, we propose to create distinguished speaker series, in cooperation with Career Services and Development, and with financial support from the local business community, which may include: (a) a Leadership Series designed for high-profile business or community leaders; (b) an Entrepreneurship Series designed for entrepreneurs and business managers. We will also support academic, community and student conferences on themes in entrepreneurship, including (for example) the annual Entrepreneurial Seminar and Pitchfest in collaboration with the Merritt Writing Program and the Entrepreneurial Society of UCM (TESUM), a student led club.

Last but not least, the institute will work closely with all existing Schools (SSHA, SOE and SNS) as well as with the E&J Gallo Management program, and will operate under the auspices of the new School of Innovation, Management & Economics when it is established.

D. UCM’s Relative Role
UCM is uniquely positioned to becoming an entrepreneurship hub for Central Valley given its focus on cutting-edge research embracing innovation and entrepreneurship. The emphasis of our proposal on small business administration, agribusiness and agricultural product processing, winery operations management, management of sustainable energy and water technologies, and micro-financing not only will distinguish UC Merced from other UC campuses, but it will spearhead development and growth in Central Valley. Our proposed institutions and programs will exploit all synergies across campus and build on existing strengths in technology, engineering and natural science fields.

Programs that relate to what we propose are the Yale Entrepreneurial Institute, the Entrepreneurship and Innovation Institute at Cornell University, and the Deloitte Institute of Innovation and Entrepreneurship at the London Business School. However, none of these institutes have the unique focus we propose above on small business administration, agribusiness and agricultural product processing, winery operations management, management of sustainable energy and water technologies, and micro-financing.

E. Faculty Participation
The Gallo Management program has about 370 undergraduate students currently. With a projection of 9,000 undergraduates, Management should have about 800 students who can benefit from the proposed initiatives. Related fields in Economics, Applied Math, Engineering, Sociology, Political Science and Psychology can also benefit. We will explore all possible links to undergraduate and especially graduate education. Specifically, we will work with Economics, MBE and MIST in curriculum planning.

F. Special Programmatic Needs
Distinguished programs require distinct foci and distinguished faculty. However, Institutes cannot hire faculty directly (however, we do encourage hiring in fields related to Entrepreneurship such as Financial Management or Asset Pricing and Investments or Marketing). Administrative support, space, and operating funds will be needed for the Institute. University, grant, and endowment support will be sought for the Institute's activities.

Other Supporting Documents: 

Commenting is closed.

General Education

Proposal Status: 
Principal Authors: 

Anne Zanzucchi, Jay Sharping, and Elizabeth Whitt

Representing General Education reports written by Linda Cameron, Gregg Camfield, Henry Foreman, Gregg Herken, Tom Hothem, Kelvin Lwin, Laura Martin, Valerie Leppert, Robert Ochsner, Peggy O'Day, Rose Scott, Michael Spivey, Wil Van Breugel, Jack Vevea, and Christopher Viney

Executive Summary: 

Our campus has much to gain with continuing to plan GE as among the intellectual drivers at our campus. GE could be the coordinating entity for lower-division elective course outcomes, typically overlooked in planning or reviewing major programs. Community engaged scholarship, including service learning initiatives and curricula, could have a home and means for ongoing sustainability. Multidisciplinary undergraduate programs and co-curriculum would have the ability to coordinate, collaborate, and plan – much like current graduate programming now at our campus. Finally, as graduate programs grow, a GE program (with dedicated faculty governance) in partnership with the Merritt Writing Program could employ and educate graduate students to teach GE courses to strengthen future faculty preparation. To accomplish these goals and address fundamental sustainability issues for GE, our proposal recommends i) re-constituting College One's Executive Committee, ii) funding a GE LPSOE appointment, iii) designing co-enrollment options for lower-division at-risk courses, iv) providing a FTE % reward system for Senate faculty to participate in GE programming, and v) creating opportunities for graduate students to teach general education courses.

Initiative Description: 

At a research university, General Education programming provides insight into the “big picture” of scholarly inquiry and academic work. Three GE frameworks inform our campus’ program: required institutional courses, integrative GE (core), and a school-based menu system[1]. Our campus’ GE design, particularly the core series, has been informed by national priorities to enrich disciplinary outcomes and provide an integrative undergraduate experience. A thriving and developed GE program is coordinated to align with an institutional vision, with thoughtful integration into the campus’ research and teaching priorities. As noted in several external reports, our campus’ approach to general education has the potential to be innovative and transformative.

 

As our campus grows, so too does our need to examine and sustain general education as an institutional priority. Every campus will face infrastructural issues related to GE, as its institutional scale is significant to coordinate and sustain. A truly multidisciplinary general education requires institutional insight and coordination—particularly in rethinking fundamental frameworks for academic inquiry to prepare our students for a range of interdisciplinary challenges in a changing world. In constituting one-third of undergraduate course credit, general education is a significant portion of the undergraduate experience, and thus can provide an “institution-oriented thread” for fruitful exchange among disciplines, programs, and co-curricular activities.

 

The following elements are part of a strategic vision of General Education:

(1)    Innovative GE programming blends cutting edge research with a commitment to educating each undergraduate as a “whole person;”

(2)    GE allows our campus to build across traditional disciplines and “think like an institution,” reflecting what it means to attend a research university;

(3)    A core model, combined with a deliberate and well defined GE menu of defined outcomes, provides our campus with a rich, innovative and robust GE program;

(4)    By preparing students to engage with complex problems, GE can foster scholarly inquiry of both integrative breadth and discipline-specific depth.

 

We are at a critical moment, then, as our campus has recently hired a permanent Vice Provost and Dean of Undergraduate Education. With this momentum, we have the opportunity to address structural barriers to multidisciplinary endeavors that benefit not only GE but all collaborative programming. Our upcoming GE program review process is certainly one important means to plan and evaluate GE, with insights from an external team. Some GE needs are immediate and fundamental, however – in need of immediate attention. Addressing a set of foundational issues that UCM GE reports have identified since 2002 would address immediate campus needs and strengthen the GE program review process.  In sum, coordination of GE curricula and infrastructure would allow Senate faculty to define and strengthen institutional learning opportunities, to evaluate GE learning outcomes, and to unify concepts about UCM’s undergraduate degree.

 

Based on GE reports from 2002 to present, national models, and education scholarship, our strategic vision involves five high priority recommendations. Fundamentally, these recommendations promote multidisciplinary educational opportunities for undergraduates and graduate student instructors:

 

(1)    Constitute the College One Executive Committee with representative GE faculty from all Schools, parallel to the process of forming graduate groups;

(2)    Coordinate foundational lower-division courses into GE co-enrollments to strengthen multidisciplinary learning outcomes as well as foundational discipline-specific knowledge[2].

(3)    Develop a L(P)SOE position for General Education to coordinate co-enrollments, supervise institutional GE curricula and communicate GE educational outcomes via the Senate, VPDUE, Student Affairs, and School Deans.

(4)    Initiate a % FTE reward system for participating Senate faculty in institutionally-focused GE programming (Core 1 module planning, learning communities, service learning projects, etc.).

(5)    Support future faculty with graduate instructor opportunities to participate in teaching GE courses, including interdisciplinary pedagogical training and GE teaching assignments.

 

The above recommendations would address fundamental issues and advance our campus’ decade of GE planning. In sum, not only do we need to consider the position of GE outcomes relative to disciplines and the institution, we also need to define the undergraduate experience. As the 2011 GE committee suggests, our general education curriculum “is considered by many to be the world’s best, blending cutting edge research with a commitment to educating each undergraduate as, in John Dewey’s words, a whole person.”

                                                                                                                                         

If our campus acts on this strategic vision and recommendations, our campus has much to gain with continuing to plan GE as among the intellectual drivers at our campus. GE could be the coordinating entity for lower-division elective course outcomes, typically overlooked in planning or reviewing major programs. Community engaged scholarship, including service learning initiatives and curricula, could have a home and means for ongoing sustainability. Multidisciplinary undergraduate programs and co-curriculum would have the means to coordinate, collaborate, and plan – much like current graduate programming now at our campus. Finally, as graduate programs grow, a GE program (with dedicated faculty governance) in partnership with the Merritt Writing Program could employ and educate graduate students to teach GE courses to strengthen future faculty preparation.

 

Many promising outcomes can come from identifying a sustainable means to “think like an institution,” particularly with undergraduate programming. We recommend, then, that our campus acts on these long-standing recommendations so our campus can grow a vibrant and integrative GE program.

 

 

 



[1] In a survey of Association of American Colleges and Universities member institutions, Hart Research Associates (2009) find that 80 percent of GE courses “employ a distribution model in their general education program, but only 15 percent use this model alone. Many institutions also incorporate common intellectual experiences (41%), thematic required courses (36%), upper-level requirements (33%), core curriculum (30%), and/or learning communities (24%) into their general education curricula” (pp. 2–3).

 

[2] This co-enrollment strategy would address “at-risk” courses and improve student success. UCM has a long-standing pattern of 45% of first year undergraduates failing at least one course, typically STEM courses with large lectures. Integration of learning experiences would address this troubling pattern and improve course outcomes.

Commenting is closed.

Health Research At UC Merced

Proposal Status: 
Principal Authors: 

Prepared by Paul Brown on behalf of the Health Sciences Research Institute

Executive Summary: 

The 2009 Strategic Academic Vision included “Human Health” as a major theme. This Strategic Plan outlines how HSRI can help make UC Merced  a top health research institute by 2020. We will achieve this by helping to creating world renowned health researchers, providing a leadership role in helping introduce a Medical Education program, helping to identify and fund  strategic health research facilities, working with regional partners to create a Translational Research Center, and advocating for the development of a building dedicated to health research and teaching on campus. With nearly 1/3 of the faculty already members of HSRI and involved with health research, the campus is well placed to achieve this goal. 

 

Initiative Description: 

I. Advances in Human Health since 2009 Strategic Academic Vision:

The 2009 Strategic Academic Vision included “Human Health” as a major theme, with 3 objectives:  1) to establish the Health Sciences Research Institute (HSRI), 2) establish a School of Medicine, and 3) evaluate the potential for a School of Public Health.  We are well on the way to achieving each of these goals.  

 

1) HSRI became an Organized Research Unit in 2012, with the goal to foster health related research.  

2) HSRI has played a leading role in discussions regarding the future of Medical Education at UC Merced and in the San Joaquin Valley (SJV).

3) HSRI works closely with the Public Health Advisory Group to develop and promote public health research on campus.

 

II. Goal for 2020

HSRI's primary mission is to promote the development of Human Health research on campus, with the aim by 2020 of having UC Merced be recognized as a top-40 institution in health research in the US.  Achieving this goal will require that we support faculty to:

  • Increase research productivity - Promote a high volume of research output, large income from grants and foundational support, and international reputation as a research leader in specific areas. We will do this through:
    • Providing the research support, facilities, and infrastructure required to secure external funding,
    • Assisting with the development of new research collaborations and projects that take advantage of the assets already in place at UC Merced,
    • Identifying and coordinating research around specific areas (e.g., Valley Fever) that are likely to result in significant advances in knowledge and improved health, marked in part through publications and grant funding.
  • Research influence - Research influence is traditionally determined by citations. However, because of our special mission in the region, influence might also include improvements in health status of the region, influence on local, state or national policies, and prominence in the region.
  • Teaching and training - Promoting a learning environment that nurtures undergraduates and graduate students who are successful in promoting human health related research.

As HSRI grows, we will work with the Provost and Office of Research  & Economic Development to determine a formula for indirect cost return rate.  Combined with our other revenue generating proposals, including the Translational Research Center (see below) and donations resulting from our progress toward Medical Education, we anticipate being financially sustainable well before 2020.

 

III. Human Health and HSRI by 2020:

The future of the signature theme of Human Health at UC Merced might look as follows:

  1. 1.      Health researchers and interdisciplinary health research programs with national and international reputations;
  2. 2.      Medical education program modeled on the UC Berkeley/UCSF Joint Medical Education model that engages faculty from across the campus;
  3. 3.      Research facilities on UC Merced's campus, including research infrastructure in areas where there is clear cross-disciplinary effort or linkages with external research partners (e.g., UCSF-Fresno, local Health Departments, community groups, or biomedical research firms).
  4. 4.      Translational Research Center located in Fresno, administered jointly with UCSF-Fresno and other regional partners (e.g., Fresno State, CSU Stanislaus, regional health providers, and local health departments) focusing on promoting T3 (moving evidence based guidelines into practice) and T4 (ensuring that patients and their families benefit from the medical innovations) translational research.  
  5. 5.      HSRI physical presence would include a Health Sciences Research and Education Building (HSREB) in which would be housed HSRI infrastructure, shared resources, and staff (15 to 20), the Medical Education program (one floor of the building), and the School of Public Health faculty (20 to 25).

 

1. Health researchers and interdisciplinary health research programs with national and international reputations - The key to our achieving the goal of being a top-40 institution in health research by 2020 is to have successful biomedical and behavioral science researchers at UC Merced. HSRI has and will promote health related research and support faculty in a number of ways, including:

  • Facilitating health related research on campus through our research clusters and role in organizing research initiatives,
  • Assisting with the development of applications for external funding,
  • Mentoring junior faculty and supporting emerging researchers,
  • Forming research partnerships with regional health providers (such as Children's Hospital, UCSF-Fresno, Mercy Hospital), and
  • Identifying and promoting research that would improve the health status and access to health care for people in the region, and

One avenue for developing a national and international reputation is to develop and foster health research programs that will attract research funding, address critical needs in the region, utilize the existing expertise at UC Merced, and lead to national recognition and prominence. These programs will emerge organically through faculty efforts, but possible examples are: Valley Fever; changing the health disparities in San Joaquin Valley populations; applying cutting-edge technology to make health communications impactful; and human genetics.

 

2. Medical Education - Since UC Merced's inception, there have been proposals to start a Medical School. These initial discussions were not altogether fruitful, and left a bitter taste with many faculty members regarding the potential for UC Merced to have a medical education program. Among the concerns/comments were:

  • The campus is too new to develop a Medical School;
  • Medical Education will divert resources away from other areas;
  • It will stretch our already over-committed biomedical faculty;
  • The cost will be exorbitant;
  • The program will struggle to meet the specific needs of the region;
  • The potential regional partners are not prepared to host clinical training.

 

These concerns are valid for the model of medical education that was initially proposed. Fortunately, there is an alternative model of medical education that is exemplified by the Joint Medical Program at UC Berkeley/UCSF, which overcomes all these concerns. Over the past year, HSRI has led a process of examining alternative models of medical education. After much consultation and consideration of alternative models, a group of faculty consisting of representatives from all three schools recommended that UC Merced pursue a model similar to the UC Berkeley/UCSF Joint Medical Program (JMP; see below) in partnership with UCSF-Fresno.

 

The UC Merced-UCSF-Fresno model might involve students spending three years at UC Merced, completing case-based or problem-based learning sessions led by UC Merced faculty and selected people from the region and initial clinical training at Mercy Hospital and/or Golden Valley Health Centers. Students would emerge with a Master of Science in either Public Health or Biomedicine, and then complete their clinical training at UCSF-Fresno. The advantages of the model include:

  • Relatively low cost and quick start-up - The case based approach does not involve a significant investment in laboratory facilities and the entire program could be housed on a floor of a building. It could be up and running within 5 years.
  • High probability of success - This model is already in existence within the UC system (UCSF/UC Berkeley), UCSF-Fresno is already providing medical training and has the patient base to expand its medical training program, and regional health providers (particularly Mercy Hospital and Golden Valley Health Centers) would be appropriate for the initial clinical training. UCSF-Fresno can coordinate the provision of the anatomy lab. UC Berkeley has been very supportive and is eager to help us adapt their model for our use.
  • Takes advantage of our current faculty - The case based learning model is perfect for our faculty as it works best when different backgrounds and perspectives are represented; moreover, it does not require physician instructors.
  • Would be unique in the world - The case based learning model could be developed by us to provide health professionals specifically with training in working with diverse (e.g., culture, ethnicity, language) disadvantaged communities in rural areas, such as the SJV. Training specifically for work with culturally/ethnically diverse populations at the start and throughout medical school, rather than as a secondary add-on to pre-existing programs, would be unique in the country. Thus UC Merced would be able to offer a program that would be recognized around the world as a leader in training health professionals to provide appropriate care to disadvantaged and  diverse peoples and communities in the U.S.

 

Because HSRI is not a Bylaw 55 Unit, we will continue to facilitate discussions on campus but look to develop an administrative structure involving groups from all three schools.

 

A key question to consider is "Why now?" There are several reasons why this is an appropriate time to move forward with medical education: maturation of UC Merced as a campus, closer ties between UC Merced and UCSF-Fresno, critical mass of health research on campus, and change of attitudes among UC Merced faculty. However, one reason that cannot be ignored is the views and expectations of UC Merced supporters and the broader community around us. Many have long advocated for us to move forward with Medical Education, and many are frustrated with the lack of progress. This includes the groups that would be our partners and financial backers in this venture. A decision to move forward does not commit us to action, and there are many factors that would have to fall in place for Medical Education to become a reality, Yet the alternative of delaying this decision would ultimately be a decision to kill the idea for a long time.

 

In summary, when HSRI was approved, Chancellor Leland asked us to help guide discussions regarding Medical Education on campus.  To this end, HSRI has:

  • Coordinated UC Merced's efforts relating to the SJV PRIME Program,
  • Led the development of fund raising strategies for Medical Education with the Office of Development,
  • Led discussions of the future of Medical Education with regional partners, including UCSF-Fresno, Mercy Hospital, Children's Hospital, regional and state medical associations, and other universities in the region.
  • Held a Medical Education forum in which representatives from UC Berkeley, UCSF, UC Davis, and the Office of the President met with UC Merced faculty to discuss options for Medical Education,
  • Developed a report and recommendations summarizing the options for Medical Education at UC Merced that was subsequently presented to and discussed with the Provost and the Chancellor, and
  • Developed a plan for continuing our development of Medical Education at UC Merced.

We are prepare to continue providing a leadership role for Medical Education going into the future.

 

3. Research facilities - A key decision facing the university over the next several years is what type of research facilities should be provided for faculty. We anticipate that the Office of Research & Economic Development will work with Schools and with the ORUs to develop plans for efficient and rational investment in core facilities that will benefit faculty across campus. HSRI sees its role as providing leadership in identifying resources in four areas to support human health research:

  • Facilities that promote multidisciplinary research - One limitation of a School or Graduate Group approach to identifying resource needs is that there can be too little investment in resources that span across resource groups. An example of this would a High Performance Computing facility. While this high performance computing facility is not directed at health related research per se (it is a more directed at promoting basic science), the members of HSRI will benefit from having this capacity on campus. HSRI’s role is to help identify these types of facilities and advocate with the Office of Research & Economic Development for investment.
  • Facilities that promote biomedical research with outside organizations - As we promote research collaborations with external partners, members of HSRI will be identifying research facilities that would add to the resource base through the region and be used by multiple partners. The High Performance Computing facility is one example (researchers at Fresno State and Stanislaus State would benefit from having access to this type of facility), and another is a mobile BL3 lab that was identified by regional partners (e.g., UCSF-Fresno and the Public Health Departments in the San Joaquin Valley) as being key to addressing the Valley Fever epidemic in our region.
  • Facilities that promote behavioral health research – the social and behavioral sciences (e.g., Public Health, Sociology, Psychology) contribute critical knowledge towards addressing health threats, especially in the population in our region. At least 50% of preventable causes of death in the US represent behaviors and social conditions, even more so in this region. This research however requires special lab facilities and equipment, possibly including a Survey Research Center to monitor health and health threats.
  • Facilities that promote translational research -  One of the key challenges and opportunities in this region is to give people access to innovative new treatments and interventions. The diversity and significant health disparities in the region provide the opportunity to quickly test the efficacy and effectiveness of new treatments, interventions, and approaches to delivering healthcare. This will require establishing a network of contacts (e.g., partners in rural areas) and procedures (e.g., joint IRB protocols) that will allow UC Merced researchers to quickly access rural and diverse populations.

HSRI will work with the Office of Research & Economic Development on developing research facilities that will promote growth in health research. HSRI will also work with the Office of Development & Alumni Relations and faculty members to identify funding sources for these research facilities.

 

4. Translational Research Center - The San Joaquin Valley is an underserved area with tremendous health disparities. It is also a region with significant diversity on multiple dimensions, making it a unique laboratory for examining the efficacy and effectiveness of new interventions and treatments in underserved, hard-to-reach populations. This has not been unnoticed by others in California, with both UC Davis and UC Irvine looking to establish networks for providers in the region. Their efforts are motivated by a recognition that the SJV is an underserved area that is rife for expansion, and by pressure from funding agencies (e.g., NIH) to expand their study populations to include more ethnic and socioeconomic diversity.

 

This confluence of needs by outside groups and by UC Merced researchers for access to diverse patient populations creates an opportunity for UC Merced to develop a Translational Research Center in conjunction with our regional partners. At present, HSRI and UCSF-Fresno have a small grant from UCOP to develop a translational center. The goals of this center will be to provide UC Merced and UCSF-Fresno researchers and clinicians with the support they need to involve hard to reach, low socioeconomic, and ethnically diverse communities in clinical trials and intervention research.

 

While HSRI will play a large part in the organization and development of this center, it is expected be a true partnership between UCSF-Fresno, CSU Fresno, and HSRI. Each comes with different areas of strength - UCSF-Fresno has clinicians and access to clinical partners, CSU Fresno has a research infrastructure that can provide access to hard to reach communities, and HSRI has faculty with diverse areas of expertise and the commitment to research. These areas of strength complement each other and provide us with the opportunity to form a working partnership that will benefit the region.

 

We expect that the infrastructure underlying this Translational Research Center will be in Fresno. Fresno has a wider patient and community base than Merced, and thus it makes sense for the main facilities to be housed at UCSF-Fresno. But we anticipate HSRI having a presence in Fresno as well, and will work with our partners to develop this space as the initiative progresses.

 

5. HSRI physical presence - As health research grows on campus, we anticipate there being two centers of operations: A Health Sciences Research and Education Building (HSREB) at UC Merced and a Translational Research Center at UCSF-Fresno. In Merced, HSRI envisions three types of staff:

  • Administrative and support staff - includes staff who can assist with pre and post award grant development and support. Anticipated: 8 FTEs.
  • Research support - providing faculty members with project management, help in facilitating research with community groups and health care providers in the region, data management, and biostatistical expertise. We collaborate with our regional partners to develop our capacity in this area, but we would expect UC Merced to be the central location for this support. Anticipated: 8 to 10 FTEs.
  • Research Scientists, Post-docs, and Visiting Academics - As with other research institutes, HSRI will host a number of grant-funded Research Scientists, post-doctoral fellows, and visiting academics. A conservative estimate would be that by 2020, we would have 6 to 8 Research Scientists, 4 to 6 post-doctoral fellows, and 4 visiting researchers. Anticipated: 16 FTEs.

Given this, HSRI is anticipated to require between 30 and 35 offices, one large meeting room, several smaller breakout rooms, and a central area for informal gathering.

 

IV. Summary

This strategic plan has outlined a vision for Human Health as a signature theme at UC Merced through 2020. In order to realize this vision, UC Merced needs to be prepared to continue to invest in health research and education. The specific steps include:

Health researchers and interdisciplinary health research programs  

  • HSRI will continue to support faculty in securing grant funding and developing successful research projects
  • HSRI will continue to work with faculty to develop interdisciplinary health research programs
  • Resource needs:
    • Continued funding of HSRI through the annual budget cycles

Medical Education

  • HSRI works with the Senate to convene a committee of UC Merced faculty to explore the feasibility of adopting a JMP-style Medical Education model for UC Merced/UCSF-Fresno. (Spring 2014)
  • As part of this process, HSRI commissions a feasibility study to identify more fully the resources that would be required to implement the model and the financial support that is available in the region to support such a model. (Fall 2014)
  • Once the plan is finalized, UC Merced hires a faculty member with the appropriate background to lead the development of the program (advertise in Fall 2014 to start in Fall 2015)
  • HSRI commits to assisting in process until and after the introduction of the Medical Education program (Fall 2017)


Resource needs

    • Funding for feasibility study
    • Majority of funding should be provided by donors/external sources
    • Research facilities
  • HSRI works with the Office of Research & Economic Development to develop a committee to review health-related facilities needs (Spring 2014)
  • For those facilities identified as meeting the needs of external partners, HSRI works with faculty and external agencies to develop business plans including recharge rates, host institution, and funding sources (ongoing)
  • HSRI works with Office of Development & Alumni Relations to identify foundation and donor support for key research facilities (ongoing)
  • Resource needs:
    • The management of facilities will need to be coordinated with the Office of Research.

Translational Research Center

  • HSRI will work with regional partners to develop a translational research center (ongoing, with proposed center by September of 2014)
  • Resource needs:
    • Can be provided with HSRI's existing resources

HSRI physical presence

  • Health Sciences Research and Education Building (HSREB) that would house the groups associate with Medical Education or health research.
Impact Metrics: 
Other Supporting Documents: 

Commenting is closed.

Applied Philosophy

Proposal Status: 
Principal Authors: 

Peter Vanderschraaf

Executive Summary: 

(This Initiative is being replaced by another initiative called "Applied Philosophy" that was first submitted on May 2, 2014). Abridged Executive Summary

 

We at UC Merced are building our entire philosophy program around interdisciplinary linkages. Our Applied Philosophy program is both exceptional in the UC system and consistent with UC Merced’s commitment to applied and interdisciplinary research. This program overlaps with several current or planned initiatives at the undergraduate and graduate levels: an established philosophy minor, with plans for an undergraduate major in philosophy; a separate undergraduate minor and major in PPE; and a graduate track in philosophy of cognitive science. As we continue to grow our program and contribute towards fulfilling UC Merced’s 2020 vision, we plan to develop specifically in the following areas:

(1) Politics, Philosophy, and Economics (PPE)

(2) Philosophy and Cognitive Science

(3) Gender and Race Studies

(4) Applied Ethics

Initiative Description: 
(This Initiative is being replaced by another initiative called "Applied Philosophy" that was first submitted on May 2, 2014).

 

Executive Summary

At UC Merced each of our current ladder-rank philosophy faculty teach courses and perform research spanning two or more disciplines. We view ourselves as the founding core faculty of an Applied Philosophy program that is unique among American philosophy programs. Mathematical modeling, laboratory experiments and computer simulations are as important to our work as conceptual analysis and reasoning, and we aim to share this vision of philosophy with our students. Both in terms of our continuing research and teaching and in terms of our vision for our program, we see ourselves as contributing to and drawing strength from academic programs across campus, including Cognitive Science, Economics, Management, Political Science, and Sociology. Some philosophy departments in American universities offer specialty degree programs in philosophy and the social sciences,[1] or in cognitive science and philosophy[2], in addition to their more traditional degree programs in philosophy. Yet unlike these or any other American departments, we at UC Merced are building our entire program around interdisciplinary linkages. Our Applied Philosophy program is both exceptional in the UC system and consistent with UC Merced’s commitment to applied and interdisciplinary research. This program overlaps with several current or planned initiatives at the undergraduate and graduate levels: an established philosophy minor, with plans for an undergraduate major in philosophy; a separate undergraduate minor and major in PPE; and a graduate track in philosophy of cognitive science. As we continue to grow our program and contribute towards fulfilling UC Merced’s 2020 vision, we plan to develop specifically in the following areas:

(1) Politics, Philosophy, and Economics (PPE)

(2) Philosophy and Cognitive Science

(3) Gender and Race Studies

(4) Applied Ethics

Area Initiatives

(1) Politics, Philosophy, and Economics (PPE).

PPE combines insights from moral and political philosophy with the mathematically theoretical and empirical results of political science and economics. PPE programs have been established for decades in the United Kingdom in prestigious institutions such as Oxford University and the London School of Economics (currently 35 members of the British parliament have PPE degrees)[3]. In the United States, PPE programs have begun to emerge in recent years and there is evidence that they attract high enrollments.[4] Still, PPE remains underrepresented in American universities. A PPE program is yet to be established in the UC system, although UC Irvine is in the late stages of approval for PPE undergraduate major and masters programs. We believe that a PPE program at the UC Merced campus would serve the university mission well for several reasons, especially given that such a program would be the first of its kind in the San Joaquin Valley and the first or second of its kind in the entire UC system. Further, a PPE program would complement existing undergraduate major programs in economics, management and political science, as these programs have a strong empirical orientation and their majors who are interested in gaining additional background in political theory, economic theory, or moral and political philosophy could be served by the PPE program. The PPE research theme complements several proposed initiatives, including Management of Innovation, Sustainability, and Technology (MIST), which emphasizes quantitative research at the organizational levels, and the Center for Human Adaptive Systems and Environments (CHASE), which studies human activity at multiple scales, but has focused primarily on the level of individual behavior. Faculty in PPE study the dynamics of groups of agents, from small groups interacting in model games to societies as a whole. A PPE program at UC Merced would also complement UC Irvine’s proposed PPE program, since students who complete our undergraduate program could advance smoothly into UC Irvine’s PPE master’s program. We are situated to establish a PPE minor very quickly[5] and an undergraduate major in the near future, given the proposed hire in political philosophy.

(2) Philosophy of Cognitive Science / Experimental Philosophy

Philosophy is one of several disciplines in the interdisciplinary field of cognitive science and philosophy and cognitive science are currently well integrated at UC Merced. Philosophy is part of the Cognitive and Information Sciences Academic Unit, and two of the three philosophy faculty are core members of the Cognitive Science graduate group and are involved in advising students. The Philosophy and Cognitive Science curricula are highly integrated both at the undergraduate and graduate levels (cf. the discussion of teaching below). Plans are in place to launch a graduate track with the Cognitive Science graduate group in philosophy of cognitive science. In this track, computational, experimental, and mathematical methods will be used in the research and analysis of traditional philosophical questions. Philosophers in cognitive science at UC Merced currently focus on neural networks, computational modeling, dynamical systems theory and the analysis of experimental data concerning attention, perception, action, and consciousness. All of these areas correspond to active research projects among other Cognitive Science faculty as well as faculty in other programs. They also resonate with emerging campus wide themes and proposed hires, in particular the emphases on computation and network science in the proposed Cognition, Computation, and Human Data Science initiative. To complement these lines of work and prepare for a graduate track, we aim to attract a researcher at open rank in experimental philosophy or philosophy of cognitive science in the next several years.

(3) Race and Gender Studies

Gender and race studies are emerging research topics in philosophy that intersect with research in cognitive science, psychology, anthropology, sociology, and political science. Some central questions include whether gender and race are natural kinds (i.e. according to Simone de Beauvoir in The Second Sex, “One is not born a woman, one becomes one”); the interrelations of gender, race, and objectivity (i.e. according to Helen de Longino in Philosophy of Science, “Gender, race, and class structure are features of a scientific community that must be taken into account when assessing its epistemic reliability”); and the intersection of gender, race, and justice (i.e. according to Tommie Shelby in Fordham Law Review, “In most modern democratic societies…the socioeconomic disadvantages that racial minorities currently suffer are caused by racial injustice perpetrated in the past”). These questions have enormous social, cultural, and political import, and are thus both research-rich and highly attractive to students. We aim to contribute to this research topic by supporting the proposed Women’s, Gender, and Sexuality Studies program, described in a separate strategic vision document. As that document notes, other UC campuses offers study in areas related to Women’s, Gender, and Sexuality Studies. In that vein, we hope to add a tenure-track line in feminist philosophy and critical race theory in the next few years to support the development of an undergraduate program in Women’s, Gender, and Sexuality Studies

(4) Applied Ethics

Ethics is a central area of philosophical research that is vital to the practice of other disciplines. For example, the National Institutes of Health (NOT-OD-10-019) and the National Science Foundation (FR Doc No: E9-19930) require institutions to provide training and mentoring in the Responsible Conduct of Research (RCR) to students and post-doctoral researchers. We aim to support UC Merced’s RCR program in years to come by hiring a tenure-stream specialist in applied ethics. With this additional faculty member, we hope to teach students to apply ethical theories and conceptual analyses to real world cases in a manner that is also informed by research in disciplines outside of philosophy. In concert with this new faculty member, we hope to secure an Ethics Education in Science and Engineering grant from the National Science Foundation to help establish specialized training in applied ethics, which will support the strategic initiatives of the Center for Climate Communicationas well as the Environment Systems group. Since three major subfields of applied ethics include biomedical ethics, environmental ethics, and business ethics, UC Merced’s early investment in the fields of biomedical science (especially stem-cell research), environmental engineering, earth systems science, and management should make this campus an especially attractive location for an applied ethicist.

Hiring Plan

In 2014 -2015 we propose to search for an assistant professor of political philosophy to support the emerging PPE program. Between 2015 and 2020 we propose to search for four additional lines: (1) an assistant professor in PPE, focusing on philosophy of social science or philosophy of economics, (2) an assistant professor specializing in philosophy of race and gender, (3) an assistant professor specializing in an area of applied ethics, and (4) a professor at open rank specializing in philosophy of cognitive science or experimental philosophy.

 

 

Space Needs

The space needs associated with these areas of applied philosophy are minimal. Each faculty line will require office space only, with the possible exception of an experimental philosopher, who might require minimal or shared lab space. Though no dedicated high performance computing resources would be needed, the resources described in the initiative for a Center for Theory and Computation will be useful to those faculty members who otherwise use high-performance computing resources off-site (Yoshimi).  

Contribution to Campus-Wide Teaching Needs

Applied Philosophy is well suited to help serve the 2020 vision of 10,000 students and 1,000 graduate students, since all four areas of Applied Philosophy involve overlapping clusters that will contribute to the undergraduate and graduate teaching needs of our institution. Currently all three philosophy faculty teach in at least two of the following three areas: PHIL, COGS, and ECON. For example, Philosophy of Cognitive Science (PHIL / COGS 110), Free Will in Philosophy and Cognitive Science (PHIL 171/COGS 160), Philosophy of Neuroscience (PHIL 111), and a planned Experimental Philosophy course (PHIL 172/COGS 161) are all either cross-listed or are slated to be cross-listed with Cognitive Science. Moreover, Vanderschraaf teaches Game Theory (ECON 170) and Yoshimi teaches Neural Networks (COGS 103). We plan to continue to teach in multiple areas, and in this way contribute to multiple undergraduate and graduate programs. Further, courses from across campus satisfy the philosophy minor requirement, which has been developed with these ideas of application and interdisciplinarity in mind. Our proposed additions in PPE and applied ethics would be able to contribute to programs campus-wide. The anticipated areas of curricular overlap for applied ethics include Biological Sciences, Bioengineering, Environmental Engineering, Earth Systems Science, and Management, all of which include applied ethics as a standard part of the undergraduate curriculum (bioethics, environmental ethics, and business ethics, respectively). A new faculty member specializing in race and gender studies could teach courses cross-listed in SOC, ANTH, and COGS, while also contributing to the new Women’s, Gender and Sexuality Studies program.

Diversity

Each of the four areas we emphasize in this initiative has a clear history of attracting diverse student populations, including individuals from underrepresented minority backgrounds. The evidence is perhaps strongest for Race and Gender studies, which tends to attract highly diverse students and faculty. In the NCES Digest of Education Statistics of 2011, Table 290 shows the proportion of female undergraduate students in Women’s Studies to be 95% (compared to 57% across all fields), whereas the 2003 report shows the proportion of faculty of color for Women’s Studies to be 30% (compared to 19% across all fields). Cognitive science and disciplines relating to PPE and applied ethics achieve at least gender parity (the proportion of female to male students is 48% in cognitive science, 45% in political science, 50% in ethics, and 40% in applied and professional ethics). These numbers are better than the numbers for philosophy as a whole, which is, according to those data, 37% female. There is less data directly about PPE. However, according to Oxford’s 2012 undergraduate admissions statistics[6], PPE is the most popular majorat Oxford in terms of applicants, and the third-most popular major for female applicants.



[1] Some of these include the philosophy, politics and economics programs at the University of Pennsylvania and the University of Notre Dame and the program in Philosophy, Politics, Economics and Law at the University of Arizona.

[2] Notably, UC San Diego’s joint degree in cognitive science and philosophy, Oxford University’s Psychology, Philosophy, and Physiology program, and Washington University in St. Louis’ Philosophy Psychology, and Neuroscience Ph.D. program.

[4] Examples: (1) The University of Pennsylvania’s PPE program graduates over 100 undergraduate majors a year. (2) The University of Arizona’s recently established PPEL (philosophy, politics, economics and law) program has a selective process where 30 students per year are admitted to advanced standing as prerequisite to completing the major and currently over 200 students are declared PPEL majors aspiring to achieve advanced standing.

[5] To create the PPE minor, we propose creating a second PPE course led by current faculty and linking the two PPE courses with currently established courses in economic theory, formal political theory and moral and political philosophy. With an additional hire in political philosophy we would be well situated to create the additional courses needed for a PPE undergraduate major.

 

Other Supporting Documents: 

Commenting is closed.

Center for the Study of Education

Proposal Status: 
Principal Authors: 

Nella Van Dyke (lead, Sociology), Irenee Beattie (Sociology), Jeffrey Gilger (Psychology), Laura Hamilton (Sociology), Mayya Tokman (Math)

Executive Summary: 

Faculty from multiple disciplines across campus propose that the campus establish a Center for the Study of Education on campus within the next 6 years.  An education research center would foster interdisciplinary collaboration and grant writing on a topic of critical importance to California's Central Valley and nationally, with affiliated faculty from psychology, economics, sociology, public health, applied math, and the natural sciences.  UC Merced is unlikely to start an Education School any time soon, and therefore the proposed center would fill an important niche on campus and in the region.

Initiative Description: 

The Center for the Study of Education would foster research on all levels of education—from preschool to graduate school. It will address educational processes on a cognitive level, an interactional level (e.g. between teachers and students), and on an organizational level.  The presence of an education center would facilitate interdisciplinary research on educational topics such as retaining women and minorities in STEM fields, evaluation and identification of most effective teaching and learning practices in STEM subjects, and the relationship between social inequality and education, including how social class, race/ethnicity, gender, and immigration status all influence individual experiences within the educational system. The center will be open to scholarship using a variety of methods, including qualitative techniques (ethnography, in-depth interview, content analysis) and quantitative techniques—especially utilizing the many large-scale datasets offered by the National Center for Educational Statistics (NCES).

 

Given this broad vision, the proposed education center will incorporate educational scholarship in the humanities, social sciences, and natural sciences. UC Merced has multiple faculty pursuing research on education, and the proposed center would foster research collaboration and interdisciplinary graduate training.  Economics faculty at UCM study the development of universities (Alex Whalley), sociology faculty are studying issues of race, gender, and class inequalities in education (Irenee Beattie and Laura Hamilton), a number of psychology faculty study early child social, health and cognitive development (Jeffrey Gilger, Jan Wallander, others), a consortium of scholars—including those in the natural sciences—study STEM-field retention of women and minorities, public health scholars study how to best education communities about health issues (Susana Ramirez), and cognitive scientists study the human-computer interaction that defines much of the future movement toward digital education (Paul Maglio). The Center for the Study of Education will bring all of these scholars together in one space, and promote the formation of new intellectual synergies in the study of education.  There is not currently any campus infrastructure to connect the various individuals groups interested in educational scholarship with one another, so this Center would fill an important niche on campus that builds on existing strengths. The Center would also likely develop research and funding collaborations with other existing and proposed centers on campus, such as the Center for Humanities, Health Sciences Research Institute, Center for the Study of Comparative Global Inequalities, the Quantitative research center, and the Center for Research on Teaching Excellence.

 

In addition, the Center will help broaden and grow current educational programs on campus and partnerships with local community schools. In particular, since its inception in 2006 UC Merced CalTeach/Science and Mathematics Initiative (SMI) has attracted 563 undergraduate students and have been highly rated by both UC Merced participants and the local school district partners.  The program is focused on offering undergraduates opportunities to explore careers in secondary STEM education as well as improve their own learning strategies, problem solving and presentation skills.  The program works closely with local school districts and enables UC Merced undergraduates not only to experience teaching in K-12 classrooms during their fieldwork but also enables them to complete both their Bachelor’s degrees and teaching credential simultaneously.  CalTeach is a UC-wide initiative which partner programs across 9 campuses which has an extensive research component.  A Center for the Study of Education could draw on already existing resources within the CalTeach initiative as well as help broaden the research component of the UC Merced SMI program across a complete spectrum of STEM education levels. 

 

The Center would also facilitate further collaboration and engagement between UC Merced and the Merced public schools.  The proposed Center could facilitate grant application partnerships between UC Merced faculty and school district employees, thereby providing the research and grant writing expertise of the university to local school districts, who are eligible for various educational grants but lack the resources to pursue them.  The Center could manage and facilitate UC Merced student internships with local schools, either in the classroom or as data management and analysis assistants. It could also serve as a hub for student volunteer efforts in local schools, such as the highly successful Project 10%, and integrate research and training components into such endeavors.  In addition, one of us (Gilger) has been in the initial planning process for a community engagement, resource and research facility aimed specifically at children and families dealing with learning and developmental disorders in the schools. This facility would fit nicely with an education center and also link this center with other health related units planned for the university (e.g., HSRI, a possible med school or school of public health).


A Center for the Study of Education would be a valuable resource to the Central Valley, which has the worst educational outcomes in the state of California. This is reflected across multiple measures, including high school completion, college enrollment, and bachelor’s degree attainment. Furthermore, Latinos—a group that is heavily represented in both California, and the Central Valley in particular—have the lowest levels of educational attainment in the country. For example, around 40% of all Latino parents have less than a high school degree. Schools in the Central Valley are not well equipped to serve these populations, as they are among the most poorly resourced in the state. Students from low income communities and families, with little access to educational capital, face serious barriers in educational persistence. UC Merced serves the Central Valley, and a significant population of first-generation, largely minority students. Of all the campuses in the system, ours is most critically positioned to address education, especially educational inequities.

 

An interdisciplinary education center has the potential to bring in a substantial amount of grant money. Grants to study education are available from both federal agencies (e.g. Institute for Education Sciences) and foundations such as the Spencer Foundation, the Gates Foundation and more.  These agencies are especially interested in educational issues like those faced by the Central Valley. A Center like this could facilitate interdisciplinary collaborations between faculty, and provide support for faculty in grant applications.  Additional hires in education, including a Center Director, would also provide assistance to the University in pursuing grants, such as the NSF ADVANCE grant, which was considered this fall but abandoned due to a lack of senior faculty interested in education available to work on it.  Further, as mentioned above, the Center could help develop grant writing partnerships between UCM faculty and local school district administrators.

 

The Center will require a laboratory space/office.  Ideally, the Center would begin with a part time staff person who could help organize events and workshops as well as assist faculty with grant preparation.  Eventually a Center like this would easily fund itself with grant money.  We propose that a faculty line be established in order to hire a Center Director.  An interdisciplinary search could be conducted, involving faculty from sociology, psychology, and other affiliated disciplines.  Seed money would be helpful to help the center apply for external funding in order to remain functional and become self-sustaining in the future.

 

Commenting is closed.

Sustainability, Energy, Climate and Communications

Proposal Status: 
Principal Authors: 

Martha Conklin, Roger Bales, Elliott Campbell, Henry Forman, Qinghua Guo, Tom Harmon, Stephen Hart, Dan Hirleman, Kathleen Hull, Paul Maglio, Teenie Matlock, Erik Rolland, Josh Viers, Anthony Westerling

Executive Summary: 

UC Merced contributes to a sustainable future in California and related regions worldwide in part through research integrating the natural and social sciences and engineering. Faculty and other researchers affiliated with the Sierra Nevada Research Institute (SNRI) carry out research that is relevant to understanding linkages between the Sierra Nevada and the Central Valley, a region that leads the nation in agricultural production and many natural resource and recreational sectors. Despite its importance, the region’s health and sustainability face increased threats from rapid population growth, competition for natural resources, changing climate and land use, and air, water and soil pollution. We offer a multidisciplinary approach that will enable UC Merced to sustain and expand research that supports California’s vital infrastructure and resources, including water and energy, and to develop new and more effective ways of evaluating and communicating information about risk management and resource sustainability. This strategic initiative outlines six specific areas of growth that build on core strengths at UC Merced: i) agricultural sustainability; ii) renewable energy; iii) climate and atmosphere; iv) ecosystem services; v) risk communication and management; and vi) environment and health. These areas represent opportunities within the UC system, are central to building a sustainable future for California, and finding solutions for such resource issues will serve as a model for sustainability in other areas of the world. This proposal complements that submitted jointly through the Life and Environmental Sciences faculty cluster and the Environmental Systems Graduate Group, primarily through its focus on engineering and sustainability solutions as well as science.

 

 

 

Initiative Description: 

see attached pdf file.

The latest version posted on May 2, 2014. File name: snri_focus_snri_0514a.pdf.

Original version: snri_focus_snri_111513_submit.pdf

 

Impact Metrics: 

Commenting is closed.

Spatial Analysis and Research Center (SpARC) and Spatial Science Initiatives (revision)

Proposal Status: 
Principal Authors: 

 Ruth Mostern, Shawn Newsam, Qinghua Guo, Erin Mutch

Executive Summary: 

The Spatial Analysis & Research Center (SpARC) at UC Merced fosters interdisciplinary research in the spatial sciences and supports education through training and curriculum development.  SpARC is the campus-wide hub for spatial science research, analysis, education, visualization, spatial data archiving, and access to spatial science software and equipment for UC Merced and its partners.  SpARC leads faculty and community partner grants for research and other activities with a spatial aspect and collaborates on ongoing projects.  SpARC also participates in the development of expanded undergraduate and graduate curriculum in geography and spatial sciences.  In addition to research, UC Merced uses GIS to analyze land-use, landscape, circulation and utilities for the growing UC Merced campus.  On campus, SpARC collaborates with SNRI, HSRI, CITRIS, the Great Valley Center, ReCESS/Blum Center, and other centers.  SpARC’s unique niche derives from UC Merced’s proximity to the Sierra Nevada Region and San Joaquin Valley.

Initiative Description: 
Please review the attached PDF for the SpARC Initiative Description.
Other Supporting Documents: 

Commenting is closed.

Center for the Study of Comparative Inequalities

Proposal Status: 
Principal Authors: 

Tanya Golash-Boza, Zulema Valdez, Sean Malloy, David Torres-Rouff, Mario Sifuentez, and Nigel Hatton.

Executive Summary: 

We are a group of SSHA Faculty and are proposing the development of a Center for the Study of Comparative Inequalities that will be global in scope, unique in the country, and directly serve the interests of the Central Valley. There are Centers around the world that focus on immigration, race, ethnicity, gender, class, and sexuality. We are proposing a center that focuses on the intersection of these matrices of inequality. Although most scholars of inequality today claim to be intersectional, most academics are trained in primarily one area: race or gender, for example. In the spirit of transdisciplinarity and crossing borders, we propose to develop a center that transcends these divides and serves as a hub for scholars who desire to better understand and overcome deeply entrenched inequalities. Finally, we study these inequalities not only for intellectual pursuits, but also because we find convincing the evidence that these inequalities are detrimental. A key part of our mission will be to develop strategies to combat inequalities.

Initiative Description: 

1. What refinements to the 2009 Strategic Academic Vision are needed-both in terms of more narrowly focusing or removing current research themes or adding new ones? Consider collaborative, multidisciplinary research themes that can help to forge UC Merced’s identity.

 

“Interdisciplinary research is a mode of research by teams or individuals that integrates information, data, techniques, tools, perspectives, concepts, and/or theories from two or more disciplines or bodies of specialized knowledge to advance fundamental understanding or to solve problems whose solutions are beyond the scope of a single discipline or area of research practice.”

Committee on Facilitating Interdisciplinary Research, Committee on Science, Engineering, and Public Policy (2004). Facilitating interdisciplinary research. National Academies. Washington: National Academy, p. 2.

The Center for the Study of Comparative Inequalities (CSCI) addresses the program development of multi, inter, and trans-disciplinary research and collaboration as outlined in the 2009 Strategic Academic Vision (pg. 25). CSCI has the potential to unite two core research themes: (4) Community Culture and Identity and (5) Dynamics of Social and Economic Progress. These two core research themes are currently identified in the Strategic Academic Vision (2009) under two separate disciplinary areas, the humanities and social sciences. CSCI offers a transdisciplinary approach to fostering research collaboration and program development in these areas.  The Center will facilitate individual and collaborative multidisciplinary and interdisciplinary research that seeks to explain intersectional, comparative inequalities from micro-level perspectives, such as the social and economic inequalities that individuals confront based on intersectional identities rooted in race, class, gender, sexuality, and the like, and at the same time, the Center is committed to understanding larger, macro-level systems of comparative inequality, such as the role of capitalism, patriarchy, and racism in fostering structural inequalities in the United States and abroad, or examining  global systems of inequality rooted in colonialism, human rights, and international migration. A signature area of development will revolve around Comparative Inequalities in the Central Valley, from micro-level concerns relating to, for example, food insecurity, poverty, health, and discrimination among individuals and/or groups, to the relationship between communities and institutions, especially with regard to issues of sustainability and environmental justice, and to macro-level concerns of international and transnational scope, such as the implications for persistent international migration, border security, and concerns related to human rights. The Center’s focus on Comparative Inequalities builds bridges across traditional fields, such as sociology and history, while at the same time, outlining a new field of knowledge that moves well beyond single-group concerns, which typify institutions that focus on gender, ethnicity, or race, separately, or those that focus on US-based research without a global or cross-country reach. The Center for the Study of Comparative Inequalities is transformative, innovative, timely, and a one-of-a-kind center that will garner immediate interest from academicians, policy makers, politicians, NGOs, and community organizers concerned with growing inequality among individuals and groups, within institutions and across countries. It offers a unique contribution to the UC system and beyond, which is why we believe the Center for the Study of Comparative Inequalities deserves consideration in UC Merced’s strategic vision, and we hope to get started in creating this center as early as the Fall of 2014.

 

2. What are the important research problems or questions in your field(s) and, relative to your response to question one, what research themes does your disciplinary or interdisciplinary field contribute to?

 

The United States is changing, with more women attending college than ever before, large states such as California becoming “majority-minority,” same-sex marriage being legalized in several states, and economic inequality and poverty increasing at steady rates. Understanding these trends requires an intersectional analysis – one that acknowledges the linked forces of white supremacy, patriarchy, hetronormativity, and capitalism.  Whereas scholars are traditionally trained in critical race or gender studies, few scholars can claim expertise in race, class, gender, and sexuality studies. The need for a center that brings all of these scholars together is thus pressing.

 

A center that focuses on understanding inequalities must further be transnational and comparative. We cannot fully understand race and gender formations in the United States without a serious consideration of these dynamics in Latin America, for example. The persistence of economic inequality in the United States also requires an understanding of migration flows from Asia and Latin America as well as the rise of manufacturing in Asia and Africa.

 

Each scholar must approach their topics of interest from their own position in the status quo and with an acknowledgement of their own biases. In this vein, we propose to develop a center that puts at the forefront a radical critique of the status quo that avoids the pitfalls of corporatized liberal multiculturalism and is willing to directly engage practices within the academy itself that perpetuate systems of inequality and oppression.  We further plan to serve as a training ground that produces radical scholar/activists who would seek to change both the academy and the larger society. 

 

3. Within the context of the 2020 Project, what sort of resources are realistically needed for you to address these important research themes, problems, or questions?

 

The center would require funding for an Executive Director, Assistant Director, and administrative staff, as well as a physical space to house them. The space should also include office space for potential visiting professors, post-doctoral and dissertation fellows, meeting space for seminars, board meetings, and guest lecturers. The space should also have the necessary administrative equipment, computers, photocopiers, printers, and phone/fax.

 

 

4. What national programs align most closely with yours today and what are the programs (if any) to which you aspire to be like by 2020? If you aspire to establish a unique program, what differentiates it?

 

There are centers and institutes around the country that focus on one or two aspects of inequality related to class, gender, religion or sexuality. These centers are often urban based, intra-disciplinary, paradigmatically limited, focused on research solely within national or regional boundaries, and normative in their approach to knowledge production, solidarity and inter-subjectivity. Centers that focus explicitly on the intersection of these inequalities in transnational and community collaborative frameworks, however, are rare. To the best of our knowledge, an interdisciplinary center geographically located in a space of disenfranchisement that focuses on the intersection of these inequalities in a global perspective will be the first of its kind. The spatial and economic realities of the San Joaquin Valley, the demographic profile of UC Merced, and the global expertise and networks of our faculty, can combine to create an unprecedented center for the study of inequality and prevent the institutional replication of the same societal structural divides we aim to interrogate through intellectual work. While we value and engage with the work of the many centers and institutes focused on inequality that already exist (such as those listed below), we understand our own approach to be unique and intervening.

 

- Center for New Racial Studies (UC Santa Barbara)

 

- Center for the Study of Race and Gender (UC Berkeley)

 

- Kirwan Institute for the Study of Race and Ethnicity (Ohio St.)

 

- Center for Race and Ethnicity (Rutgers)

 

- Center for the Study of Gender and Sexuality (U Chicago)

 

- James Weldon Johnson Institute for the Study of Race and Difference (Emory)

 

- Program for the Study of Race & Gender in Science & Medicine (Harvard)

 

- Stanford Center on Poverty and Inequality

 

- Center for the Study of Inequality (Cornell)

 

- The Center for the Study of Race, Ethnicity, and Gender (Bucknell)

 

- Centre for Critical Research on Race & Identity (University of Kwazulu-Natal)

 

- Centre for Ethnicity and Racism Stuies (Leeds)

 

- Center for the Study of Race and Law (U.Va.)

 

- Center for the Study of Race, Ethnicity and Politics (UCLA)

 

- Critical Race Studies Program (UCLA)

 

- Center for the Study of Race and Democracy (Tufts)

 

- Center for the Study of Race, Politics, and Culture (Chicago)

 

- Center for Comparative Studies in Race and Ethnicity (Stanford)

 

- Center for the Study of Race and Ethnicity (Columbia)

 

- Center for the Study of Race and Ethnicity in America (Brown)

 

- Center for the Study of Race and Ethnicity (Middlebury)

 

- Center for the Study of Race, Ethnicity and Gender in the Social Sciences (Duke)

 

- Center of the Study of Race and Democracy (Arizona St.)

 

- The Institute for the Study of “Race” and Social Justice (New Mexico)

 

- The Center for Race, Ethnicity, and Sexuality Studies (Oregon)

 

- Center on Race and Inequality (Louisville)

 

- Centre for the Study of Equality and Multiculturalism (U. of Copenhagen)

 

5. How does your program help to meet important campus metrics of campus enrollments (undergraduate and graduate students), research productivity, student retention rates, reliance on non-ladder rank faculty, etc.?

 

The Center for the Study of Comparative Inequalities would allow UCM to build on its existing strengths in fields including Literature, History, Anthropology, Sociology, Psychology, Health Sciences, and Hmong Studies and support faculty and graduates in conducting interdisciplinary research.  Much of the most exciting new work in these overlapping fields deals with intersectionality and the way in which structures of power and oppression (including white supremacy, patriarchy, and heteronormativity) combine to produce institutionalized inequality.  Older and more established universities are often limited in the way in which they can fund and promote this kind of truly interdisciplinary work.  By gathering our existing interdisciplinary experts under one roof, the Center for the Study of Comparative Inequalities would leverage our unique situation to help promote the collective and individual scholarly productivity and visibility of the participating faculty and students.  By reaching out to colleagues in the sciences, the center can also help faculty tap into new sources of funding for researches relevant to the study of comparative inequalities, including, where relevant grants administered by the National Science Foundation (NSF) and National Institutes of Health (NIH). 

 

As part of its institutional mission, UC Merced actively addresses the interests of our student population. In 2013, the undergraduates at UC Merced are 40% Latino, 28% Asian American, 17% white, and 7% African American. Sixty percent of the undergraduates at UC Merced are first-generation immigrants.  As we expand to a target of 1,000 graduate students and 9,000 undergraduates, the Center for the Study of Comparative Inequalities will produce scholarship and sponsor speakers and events to speak directly to our diverse student body.  More broadly, the goal of the center is to raise fundamental questions not only about the society at large, but also about the institution of the university itself.  As part of this process, the Center for the Study of Comparative Inequalities will promote an active and critical examination of the “metrics” that constitute success at the University of California.  The reductionist drive to quantify the value of higher education is part and parcel of the privatization of knowledge that has been accompanied by the gradual erosion of public funding for state universities.  Rather than accede to this trend, the center will seek to reposition our discussion to include the goals of social justice as a core educational function.   

 

 

UC Merced Faculty who support the proposed Center for the Study of Comparative Inequalities

 

Paul Almeida,

Associate Professor, Sociology

 

Susan Amussen,

Professor, Humanities and World Cultures

Director, UC Merced Center for the Humanities

 

Irenee Beattie,

Assistant Professor, Sociology

 

Paul Brown

Professor of Public Health and Health Economics

Director, Health Sciences Research Institute

 

Linda Cameron

Professor, School of Social Sciences, Humanities, and Arts

 

J. Elliott Campbell

Associate Professor, School of Engineering

 

Ricardo Cisneros

Assistant Professor, Health Sciences Research Institute

 

Michael Dawson

Associate Professor, School of Natural Sciences

 

Robin DeLugan

Associate Professor, Humanities and World Cultures

 

Kyle Dodson

Assistant Professor, Sociology

 

Fabian Fillip

Assistant Professor, School of Natural Sciences

 

Mariaelena Gonzalez

Associate Professor, Public Health

 

Jan Goggins

Associate Professor, Humanities and World Cultures

 

Laura Hamilton,

Assistant Professor, Sociology

 

Thomas C. Harmon

Professor, School of Engineering

 

Dalia Magaña,

Assistant Professor, Humanities and World Cultures

 

Teenie Matlock,

Associate Professor, Cognitive Science

 

A. Susana Ramirez

Assistant Professor,  Social Sciences, Humanities, and Arts

 

Stergios (Steve) Roussos, PhD, MPH

Executive Director, The Blum Center

Community Research Director, Health Sciences Research Institute (HSRI)

 

Jitske Tiemensma

Assistant Professor of Health Psychology

 

Jessica Trounstine,

Associate Professor, Political Science

 

ShiPu Wang

Associate Professor, Humanities and World Cultures

 

 

 

 

Commenting is closed.

Materials Science and Engineering (MSE) Graduate Group

Proposal Status: 
Principal Authors: 

Christopher Viney (Lead Author)

Valerie Leppert (MSE), Jennifer Lu (MSE), Vincent Tung (MSE), Lilian Davila (MSE), Min-Hwan Lee (ME), Ashlie Martini (ME), Tao Ye (CHEM), Kara McCloskey (BIOE)

Executive Summary: 

This initiative is being replaced by "Materials Science and Engineering: a focus on energy, sustainability, and manufacturable devices"

UC Merced’s research themes (i) Environmental Sustainability and (i) Human Health would benefit significantly from an increased focus on MSE.  Accordingly, we propose the formation of an MSE graduate group that will educate graduate students and drive innovation in the fundamental and emerging areas of the subject.  Because of the envisioned strong ties with this new graduate group, a nearly identical proposal document is being submitted on behalf of the MSE undergraduate program.

         MSE is a “central” discipline – a link between fundamental sciences (physics, chemistry, mathematics) and other engineering specialties (mechanical, computing/electrical, environmental, bio, chemical, civil).   It is an intrinsically multidisciplinary, collaborative endeavor, a natural base for the growth of research and teaching in nanotechnology, and a home for structure and property characterization facilities that serve not only the discipline but also users across campus and the state. 

         Several recent influential government-funded reports, from agencies in the USA and abroad, have headlined how commitment to materials research and education is vital for technological advancement and future prosperity.

Initiative Description: 

1.     What refinements to the 2009 Strategic Academic Vision are needed?

 

A focus on Materials Science and Engineering (MSE)

 

Two of the five research themes identified in the 2009 Strategic Academic Vision would benefit significantly from an increased focus on MSE.  These themes are Environmental Sustainability and Human Health.  Accordingly, we propose

•   the formation of an MSE graduate group that will educate graduate students and provide innovation in the fundamental and emerging areas of the subject;

•   strengthening and growth of the undergraduate major in MSE, to develop the skills that several international studies (e.g. see Refs. 1 and 2, and reports collated therein) have identified as central to technological advancement and economic prosperity; and

•   development of a minor program in MSE, in collaboration with colleagues in physics, chemistry, biology, bioengineering, mechanical engineering, and environmental engineering; relevant existing and planned MSE courses include nanotechnology and nanoscience, nanofabrication, materials characterization, polymeric materials, electron microscopy, x-ray diffraction, materials sustainability, energy materials, and semiconductor materials.

 

Because of the envisioned strong ties between the new graduate group and the undergraduate major, nearly identical proposal documents are being submitted on behalf of these two self-assembled groups.  The proposals differ mainly in regards to their description of aspirations and metrics.

 

The drivers for strength in MSE, and the unique attributes of MSE that can help to forge UCM’s evolving identity, include:

•   Existing and potential connections to

     -   Energy Materials (harvesting, transducing, transporting and storing energy)

     -   Self-Assembly (sustainable; uses much less energy than conventional materials processing)

     -   Quantum Computing (lower energy than conventional data processing; reduced instances of hacking, identity theft and consequent loss of productivity)

     -   Environmental impact of materials (sustainable materials and manufacturing processes)

     -   Biomaterials (connects both sustainability and human health themes).

•   MSE is a “central” discipline – a link between fundamental sciences (physics, chemistry, mathematics) and other engineering specialties (mechanical, computing/electrical, environmental, bio, chemical, civil). 

•   MSE is intrinsically a multidisciplinary, collaborative endeavor.  The current core MSE faculty delivering the undergraduate major have degrees and/or professional recognition in materials science and engineering, macromolecular science and engineering, chemistry, physics, and biology.  This breadth will be expanded in the proposed MSE graduate group; colleagues in other disciplines who have already agreed to join the nucleus of this effort will add further expertise in physics and chemistry; and new expertise in bioengineering, mechanical engineering and chemical engineering.

•   MSE is a natural home for the growth of research and teaching in nanotechnology.  Two popular electives in nanotechnology for UCM students across many science and engineering disciplines have been developed by an MSE faculty member.

•   MSE is a natural home for extensive characterization facilities, spanning the range of structure and properties, that serve not only the discipline but also users across campus and the state.  For example, UC Merced’s Imaging and Microscopy Facility, under the direction of a MSE faculty member, has been providing characterization services (optical and electron microscopy, X-ray diffraction) to campus users, industry (Hewlett-Packard, Grundfos), state agencies (SJV Air Pollution Control District, CAL-EPA), and universities (UCLA, UC Davis, Columbia).   With the opening of SE2 and move of all IMF equipment to one location, as well as increased campus support for centralized facilities, it is anticipated that internal and external users will grow.

 

Comments on Themes in the 2009 Strategic Academic Vision

 

•   Sustainability

     -   In general, this research theme has seen growth on campus.  It appears that objectives 1 (expanding role of SNRI) and 2 (establishment of MERI) are well on their way to being met, although objective 3 (establishment of a school of design) has not gained traction. 

     -   For the immediate future, it seems that our resources would be better placed in fleshing out the sustainability theme beyond SNRI (which tends to focus on policy issues) to programs that deal with sustainability solutions at a more foundational level (e.g. energy materials, and sustainable manufacturing processes).  Robust dialog between the policy perspective of SNRI and technically-focused graduate programs would be desirable.

•  Human Health

     -   It would be desirable to expand HSRI and the nascent Public Health program to new participants

     -   MSE faculty conduct research in air pollution that is highly relevant to the SJV, where 6 of 10 of the worst polluted cities in terms of particulate matter are located; they have strong ties with other universities and state agencies engaged in similar research.

     -   MSE faculty are engaged in other health related work, e.g. responsive biopolymers, biosensors, and scaffolding for regenerative medicine, that could leverage and/or be leveraged by other human health efforts on campus.

     -   School of medicine should be given a low priority as it is too expensive to build a school of medicine and a general campus at the same time.  Engagement of UC Merced faculty in medical school instruction (as has been rumored for San Joaquin Valley PRIME Medical Program) needs to be thought out carefully, to ensure that there are no surprises in regard to accreditation and infrastructure costs.

•  Cognitive Science and Intelligent Systems – This theme has grown beyond its initial base in CS and EECS programs.  Interestingly, one of the areas in which it has expanded is visualization as used in MSE modeling.  There would appear to be need – and scope – for expanding the program further.

 

2.   What are the important research problems or questions in your field(s)?

 

A global view

 

A recent report from an influential research evaluation provider (Ref. 3) envisages the 21st century as an era of revolutionary discoveries in materials research that result in far reaching changes for society and how we live.  The authors note that Asian nations and institutions are clearly focusing their research efforts on new materials, and that there does not appear to be a similar commitment to this research on the part of Europe and North America — especially on the part of the USA which has seen its world share of materials sciences research papers not only fall by half in the last three decades but actually decline in output in the late 1990s and in the early years of the last decade. It is only now that the USA’s output of such papers is returning to the level of 1996.  “However, materials research in particular is closely tied to economic growth. Therefore, US and European Commission policy makers and elected representatives may wish to consider whether it is important, even vital, to make a larger commitment to materials research for the sake of future prosperity — even beyond that provided by the US National Nanotechnology Initiative and similar funding by the European Commission.”

         Even more recently, the UK Engineering and Physical Sciences Research Council (EPSRC) has recognized (Ref. 1) several contemporary reports from the USA and Europe, highlighting the importance of materials and materials research. These reports include the USA’s Materials Genome Initiative for Global Competitiveness (Ref. 4).  A majority of the fourteen grand challenges in engineering issued by the National Academy of Engineering require that materials and material systems with properties and performance superior to today’s materials be developed (Ref. 2).

         A clear consensus emerges on where materials have the potential to impact significantly on societal issues. These areas of significant impact are centered on sustainable economic growth, manufacturing, energy, healthcare and the environment – coinciding with the strengths in Sustainability and Human Health that UC Merced has been most successful at developing and that have the greatest potential for growth (see Question 1).  The reports also tend to agree on the technologies that will be required to realize these goals: they include nanotechnology and advanced materials.  There is also agreement on some of the generic requirements to advance the area such as modeling and simulation, as well as on research areas that are especially worth pursuing (areas of existing strength in MSE are in italic font):

•   advanced materials with novel or improved properties

•   development of rational approaches in the design of advanced materials or in their integration into structures and systems

•   inspiration by nature (eco-design, bio inspiration and use of natural materials,  polymers from non-petrochemical sources)

•   anticipation and control of the performance of materials during the life cycle (including self-sensing and self-healing); replacing scarce elements

•   inorganic materials for photonics and energy (e.g. energy transport, storage)

•   non-organic materials for advanced multifunctional microsystems

•   materials based on novel functionality though molecular organic compounds and polymers

•   meta-materials and nanostructured materials

•   functional and multifunctional oxide films

•   materials to support healthcare (biomaterials, stem cells, regenerative medicine)

 

Current Local Expertise


Within the current five MSE core faculty, we already have expertise in several of the above-listed themes.  Specifically looking at the themes of Sustainability and Human Health, we identify expertise that includes:   

•   “Green” synthesis; all-carbon photovoltaics (Vincent Tung)

•   Materials for energy transduction, transport and storage (Jennifer Lu)

•   Characterization of nanomaterials for energy applications, and of nanoparticulate air pollutants (Valerie Leppert)

•   Rational design of advanced materials through multi-scale computation (Lilian Davila)

•   Bio-inspired and natural materials (Christopher Viney)

 

The proposed MSE graduate group will expand this pool.  To date, commitment to participate as founding members of the group has been received from experts in:

•  Electrochemical energy conversion and storage devices (Min-Hwan Lee, ME)

•  Control of materials performance: wear and  lubrication; materials for extreme environments (Ashlie Martini, ME)

•   Materials for regenerative medicine; tissue engineering (Kara McCloskey, BIOE)

•  Characterizing biomolecules for development of artificial functional biomolecular structures and ultra-sensitive biosensors (Tao Ye, CHEM).

 

Further growth of this research talent pool will occur by recruiting additional members of the current faculty, and by new hires as detailed in Question 3.

 

3.   What resources are needed for your field?

 

Faculty Hires

 

•   Materials Sustainability – ensuring materials availability, or finding acceptable substitutes; minimizing environmental impact; materials life cycle development.

•   Solid state structure characterization – focus on x-ray diffraction and spectroscopy; develop in-house labs and capitalize on nearby synchrotron facilities.

•   Nanodevice Fabrication – provide a complement to Jennifer Lu’s and Vincent Tung's research, and teach semiconductor fabrication classes. 

•   Next Generation Solid State Memory Devices to complement Min-Hwan Lee’s work.  A  February 2013 market report by Yole Développement Corp. forecasts conservatively that the solid-state non-volatile memory chip market will see growth at an average annual rate of 46% in the next five years.(http://ebookbrowsee.net/yole-emerging-nvm-february-2013-report-flyer-lau...)

•   Biological Materials Engineering – biosensors and/or nanoscale materials from viruses and bacteria (search currently underway).

 

We hope that one or more of these can be senior faculty appointments.  It is worth noting that the existing senior MSE faculty were among the first UCM hires, and have been especially concerned with program building and service for the campus and school; there has been no addition to the MSE senior faculty since UC Merced opened its doors to students. 

 

Other Resources

 

•   Adequate staffing to support undergraduate research (grant writing and program management), student outreach and recruitment, and collection of data for assessment metrics.

•   Adequate computational and IT resources for

     -   research (e.g. a community cluster where the infrastructure and maintenance are supported by the School, but the compute nodes are purchased by individual faculty)

     -   developing and hosting online courses (one way for a small program to stay near the frontier, is to offer online resources in traditional areas of materials education, leaving faculty the ability to concentrate on emerging areas)

     -   robust internet and videoconferencing facilities to develop teaching and research collaborations with other institutions

•   Investment in adequate centralized spaces for functions that can be carried out efficiently through sharing by all disciplines that need them; examples include nanofabrication, synthesis, thermal analysis, mechanical testing, polymer and other soft material characterization, and microscopy (optical, electron, AFM).

•   Investment in adequate space for current and future MSE faculty.

 

4.     What national programs align with yours and what programs do you aspire to be like by 2020?

 

Unique Aspirations

 

•   A focus on sustainability threaded throughout the undergraduate and graduate curricula, and flexible integration with other disciplines on campus. 

•   A research environment that encourages and facilitates the transition from undergraduate student researcher to graduate student researcher, especially among underrepresented groups in the professoriate.

 

MSE Graduate Group

 

•   The core principles should be inclusive of the relationships between (1) structure, (2) properties, (3) processing, and (4) application/performance of materials.

•   Educate students in the evolving computational methods, characterization protocols and data management skills that will enable them to function effectively as the next-generation workforce as envisioned in the Materials Genome Initiative. 

•   Provide continuing education opportunities for people in the existing research and industrial workforce.

•   Incorporate and sustain interdisciplinary research and training into the program.  We will leverage courses from other disciplines to enrich our curriculum (and we will ensure that our courses are appropriate for other disciplines).

 

5.   How does your program help to meet important campus metrics?

 

Several influential, high profile reports (see references) point to the national and international need for accelerated growth in undergraduate materials teaching and enabling materials research.  There does not appear to be a “model” program that is held up as an example of what we might become, because no program is yet meeting these challenges.  The best we can do in regard to metrics, is to select those that are more universally recognized as indicators of excellence, along with those (e.g. diversity indicators) that characterize the sort of academic environment that we want to be known for.  In regard to the quantitative indicators of excellence, we aspire to placing in the top 10% nationally.

         While recruiting (retaining) graduate students in-house is traditionally minimized in favor of external recruitment, UCM can benefit from retaining well-trained undergraduates as we address the challenge of growing our graduate student numbers.  (This was a common practice at UC Davis during the late 1990s and early 2000s, when the campus was expanding its engineering programs in terms of number of students and quality while at the same time experiencing difficulty recruiting nationally and internationally.)  Thus, MSE will not discourage its undergraduates who wish to stay in the area, often due to family/community reasons, from continuing on to graduate studies at UC Merced – although they will be informed of the benefits of graduate study elsewhere.

 

Metrics for MSE Graduate Group: Possible metrics include (as per NRC practice and UC Merced aspiration): percent of faculty with grants, successful applications for large, cross-disciplinary funding opportunities(e.g. MRSEC, STC), percent interdisciplinary, percent minority faculty, percent female faculty (currently 60% for the MSE undergraduate program), percent students receiving full first year support, percent first-year students with external funding, average annual PhDs graduated (correlates with graduate enrollment).

         We are less enthusiastic about using the GPAs and GREs of students accepted into the program as metrics (although many of our students evidence high ranking in these areas), since questions remain as to how well these numbers demonstrate capacity for success in graduate school.  It would be better to measure the output and achievements of our graduate students, e.g. how many papers they publish, weighted by the appropriate journal impact factors.   Also, a measure of our success will be provided by the ranking of the programs from which our incoming students received their undergraduate degrees.

 

We are not providing projected numerical values of metrics with the present document, because of uncertainties in assembling reliable data that fully describe the status quo.   We look forward to developing our quantitative measures of success as we establish robust mechanisms for collecting plausible input.

 

References

1.   Materially Better: Ensuring the UK is at the Forefront of Materials Science, EPSRC (UK Engineering and Physical Sciences Research Council) 2013.

2.   The Future of Materials Science and Materials Engineering Education: a report from the Workshop on Materials Science and Materials Engineering Education sponsored by the National Science Foundation, September 18-19, 2008 in Arlington, VA.

3.  Global Research Report: Materials Science and Technology (Jonathan Adams and David Pendlebury, Evidence Ltd, Thomson Reuters, June 2011).  ISBN: 1-904431-29-1.

This is the first Thomson Reuters Global Research Report to have a topical focus rather than a geographical one.

4.  Materials Genome Initiative for Global Competitiveness, National Science and Technology Council, June 2011.

 

Commenting is closed.

2020 vision for Electrical Engineering and Computer Science at UC Merced (Revised Version)

Proposal Status: 
Principal Authors: 
Stefano Carpin, Miguel Carreira-Perpinan, Alberto Cerpa, YangQuan Chen, Dan Hirleman, Ariel Escobar, Sungjin Im, Changqing Li, Marcelo Kallmann, Paul Maglio, Shawn Newsam, David Noelle, Erik Rolland, Florin Rusu, Mukesh Singhal, and Ming-Hsuan Yang.
Executive Summary: 
Establishing Electrical Engineering and Computer Science (EECS) as a strategic focus area at UC Merced will: 1) expand the research excellence the University already has in these increasingly important fields; 2) allow the campus to achieve its goal of enrolling 1,000 graduate students by 2020; and 3) benefit the Central Valley through economic stimulation and highly employable undergraduate educational programs. The foundation to achieve these goals already exists in the form of the EECS graduate emphasis area and Computer Science and Engineering (CSE) undergraduate program. Additional resources, primarily in the form of faculty FTEs and adequate research space and instructional space, are needed to grow the campus’ EE component to: 1) expand into new but synergistic research areas, and 2) create an undergraduate program in EE.
Initiative Description: 
See attached file.
Impact Metrics: 

Commenting is closed.

Materials Science and Engineering (MSE) Undergraduate Program

Proposal Status: 
Principal Authors: 

Christopher Viney (Lead Author)

Valerie Leppert, Jennifer Lu, Vincent Tung, Lilian Davila

Executive Summary: 

This initiative is being replaced by "Materials Science and Engineering: a focus on energy, sustainability, and manufacturable devices"

UC Merced’s research themes (i) Environmental Sustainability and (i) Human Health would benefit significantly from an increased focus on MSE.  Accordingly, we propose to strengthen and grow our undergraduate major in MSE, developing relevant skills that several international studies (e.g. see Refs. 1 and 2, and reports collated therein) have identified as central to technological advancement and economic prosperity.  Also, we propose to develop a minor program in MSE, in collaboration with colleagues in related disciplines.  MSE is an intrinsically multidisciplinary, collaborative endeavor, and a natural base for the growth of research and teaching in nanotechnology,  We have been successful in exposing undergraduate students to formative research experiences, and seek to provide such an opportunity for all students in our undergraduate major and minor programs.

         Because of the envisioned strong ties with these undergraduate programs, a nearly identical document is being submitted on behalf of a proposed MSE graduate group.

Initiative Description: 

1.     What refinements to the 2009 Strategic Academic Vision are needed?

 

A focus on Materials Science and Engineering (MSE)

 

Two of the five research themes identified in the 2009 Strategic Academic Vision would benefit significantly from an increased focus on MSE.  These themes are Environmental Sustainability and Human Health.  Accordingly, we propose

•   the formation of an MSE graduate group that will educate graduate students and provide innovation in the fundamental and emerging areas of the subject;

•   strengthening and growth of the undergraduate major in MSE, to develop the skills that several international studies (e.g. see Refs. 1 and 2, and reports collated therein) have identified as central to technological advancement and economic prosperity; and

•   development of a minor program in MSE, in collaboration with colleagues in physics, chemistry, biology, bioengineering, mechanical engineering, and environmental engineering; relevant existing and planned MSE courses include nanotechnology and nanoscience, nanofabrication, materials characterization, polymeric materials, electron microscopy, x-ray diffraction, materials sustainability, energy materials, and semiconductor materials.

 

Because of the envisioned strong ties between a proposed MSE graduate group and the undergraduate program, nearly identical proposal documents are being submitted on behalf of these two self-assembled groups.  The proposals differ mainly in regards to their description of aspirations and metrics.

 

The drivers for strength in MSE, and the unique attributes of MSE that can help to forge UCM’s evolving identity, include:

•   Existing and potential connections to

     -   Energy Materials (harvesting, transducing, transporting and storing energy)

     -   Self-Assembly (sustainable; uses much less energy than conventional materials processing)

     -   Quantum Computing (lower energy than conventional data processing; reduced instances of hacking, identity theft and consequent loss of productivity)

     -   Environmental impact of materials (sustainable materials and manufacturing processes)

     -   Biomaterials (connects both sustainability and human health themes).

•   MSE is a “central” discipline – a link between fundamental sciences (physics, chemistry, mathematics) and other engineering specialties (mechanical, computing/electrical, environmental, bio, chemical, civil). 

•   MSE is intrinsically a multidisciplinary, collaborative endeavor.  The current core MSE faculty delivering the undergraduate major have degrees and/or professional recognition in materials science and engineering, macromolecular science and engineering, chemistry, physics, and biology.  This breadth will be expanded in the proposed MSE graduate group; colleagues in other disciplines who have already agreed to join the nucleus of this effort will add further expertise in physics and chemistry; and new expertise in bioengineering, mechanical engineering and chemical engineering.

•   MSE is a natural home for the growth of research and teaching in nanotechnology.  Two popular electives in nanotechnology for UCM students across many science and engineering disciplines have been developed by an MSE faculty member.

•   MSE is a natural home for extensive characterization facilities, spanning the range of structure and properties, that serve not only the discipline but also users across campus and the state.  For example, UC Merced’s Imaging and Microscopy Facility, under the direction of a MSE faculty member, has been providing characterization services (optical and electron microscopy, X-ray diffraction) to campus users, industry (Hewlett-Packard, Grundfos), state agencies (SJV Air Pollution Control District, CAL-EPA), and universities (UCLA, UC Davis, Columbia).   With the opening of SE2 and move of all IMF equipment to one location, as well as increased campus support for centralized facilities, it is anticipated that internal and external users will grow.

 

Comments on Themes in the 2009 Strategic Academic Vision

 

•   Sustainability

     -   In general, this research theme has seen growth on campus.  It appears that objectives 1 (expanding role of SNRI) and 2 (establishment of MERI) are well on their way to being met, although objective 3 (establishment of a school of design) has not gained traction. 

     -   For the immediate future, it seems that our resources would be better placed in fleshing out the sustainability theme beyond SNRI (which tends to focus on policy issues) to programs that deal with sustainability solutions at a more foundational level (e.g. energy materials, and sustainable manufacturing processes).  Robust dialog between the policy perspective of SNRI and technically-focused graduate programs would be desirable.

•  Human Health

     -   It would be desirable to expand HSRI and the nascent Public Health program to new participants

     -   MSE faculty conduct research in air pollution that is highly relevant to the SJV, where 6 of 10 of the worst polluted cities in terms of particulate matter are located; they have strong ties with other universities and state agencies engaged in similar research.

     -   MSE faculty are engaged in other health related work, e.g. responsive biopolymers, biosensors, and scaffolding for regenerative medicine, that could leverage and/or be leveraged by other human health efforts on campus.

     -   School of medicine should be given a low priority as it is too expensive to build a school of medicine and a general campus at the same time.  Engagement of UC Merced faculty in medical school instruction (as has been rumored for San Joaquin Valley PRIME Medical Program) needs to be thought out carefully, to ensure that there are no surprises in regard to accreditation and infrastructure costs.

•  Cognitive Science and Intelligent Systems – This theme has grown beyond its initial base in CS and EECS programs.  Interestingly, one of the areas in which it has expanded is visualization as used in MSE modeling.  There would appear to be need – and scope – for expanding the program further.

 

2.   What are the important research problems or questions in your field?


A global view

 

A recent report from an influential research evaluation provider (Ref. 3) envisages the 21st century as an era of revolutionary discoveries in materials research that result in far reaching changes for society and how we live.  The authors note that Asian nations and institutions are clearly focusing their research efforts on new materials, and that there does not appear to be a similar commitment to this research on the part of Europe and North America — especially on the part of the USA which has seen its world share of materials sciences research papers not only fall by half in the last three decades but actually decline in output in the late 1990s and in the early years of the last decade. It is only now that the USA’s output of such papers is returning to the level of 1996.  “However, materials research in particular is closely tied to economic growth. Therefore, US and European Commission policy makers and elected representatives may wish to consider whether it is important, even vital, to make a larger commitment to materials research for the sake of future prosperity — even beyond that provided by the US National Nanotechnology Initiative and similar funding by the European Commission.”

         Even more recently, the UK Engineering and Physical Sciences Research Council (EPSRC) has recognized (Ref. 1) several contemporary reports from the USA and Europe, highlighting the importance of materials and materials research. These reports include the USA’s Materials Genome Initiative for Global Competitiveness (Ref. 4).  A majority of the fourteen grand challenges in engineering issued by the National Academy of Engineering require that materials and material systems with properties and performance superior to today’s materials be developed (Ref. 2).

         A clear consensus emerges on where materials have the potential to impact significantly on societal issues. These areas of significant impact are centered on sustainable economic growth, manufacturing, energy, healthcare and the environment – coinciding with the strengths in Sustainability and Human Health that UC Merced has been most successful at developing and that have the greatest potential for growth (see Question 1).  The reports also tend to agree on the technologies that will be required to realize these goals: they include nanotechnology and advanced materials.  There is also agreement on some of the generic requirements to advance the area such as modeling and simulation, as well as on research areas that are especially worth pursuing (areas of existing strength in MSE are in italic font):

•   advanced materials with novel or improved properties

•   development of rational approaches in the design of advanced materials or in their integration into structures and systems

•   inspiration by nature (eco-design, bio inspiration and use of natural materials,  polymers from non-petrochemical sources)

•   anticipation and control of the performance of materials during the life cycle (including self-sensing and self-healing); replacing scarce elements

•   inorganic materials for photonics and energy (e.g. energy transport, storage)

•   non-organic materials for advanced multifunctional microsystems

•   materials based on novel functionality though molecular organic compounds and polymers

•   meta-materials and nanostructured materials

•   functional and multifunctional oxide films

•   materials to support healthcare (biomaterials, stem cells, regenerative medicine)

 

Current Local Expertise


Within the current five MSE core faculty, we already have expertise in several of the above-listed themes.  Specifically looking at the themes of Sustainability and Human Health, we identify expertise that includes:   

•   “Green” synthesis; all-carbon photovoltaics (Vincent Tung)

•   Materials for energy transduction, transport and storage (Jennifer Lu)

•   Characterization of nanomaterials for energy applications, and of nanoparticulate air pollutants (Valerie Leppert)

•   Rational design of advanced materials through multi-scale computation (Lilian Davila)

•   Bio-inspired and natural materials (Christopher Viney)

 

The proposed MSE graduate group will expand this pool.  To date, commitment to participate as founding members of the group has been received from experts in:

•  Electrochemical energy conversion and storage devices (Min-Hwan Lee, ME)

•  Control of materials performance: wear and  lubrication; materials for extreme environments (Ashlie Martini, ME)

•   Materials for regenerative medicine; tissue engineering (Kara McCloskey, BIOE)

•  Characterizing biomolecules for development of artificial functional biomolecular structures and ultra-sensitive biosensors (Tao Ye, CHEM).

 

Further growth of this research talent pool will occur by recruiting additional members of the current faculty, and by new hires as detailed in Question 3.

 

3.   What resources are needed for your field?

 

Faculty Hires

 

•   Materials Sustainability – ensuring materials availability, or finding acceptable substitutes; minimizing environmental impact; materials life cycle development.

•   Solid state structure characterization – focus on x-ray diffraction and spectroscopy; develop in-house labs and capitalize on nearby synchrotron facilities.

•   Nanodevice Fabrication – provide a complement to Jennifer Lu’s and Vincent Tung's research, and teach semiconductor fabrication classes. 

•   Next Generation Solid State Memory Devices to complement Min-Hwan Lee’s work.  A  February 2013 market report by Yole Développement Corp. forecasts conservatively that the solid-state non-volatile memory chip market will see growth at an average annual rate of 46% in the next five years.

     (http://ebookbrowsee.net/yole-emerging-nvm-february-2013-report-flyer-lau...)

•   Biological Materials Engineering – biosensors and/or nanoscale materials from viruses and bacteria (search currently underway).

 

We hope that one or more of these can be senior faculty appointments.  It is worth noting that the existing senior MSE faculty were among the first UCM hires, and have been especially concerned with program building and service for the campus and school; there has been no addition to the MSE senior faculty since UC Merced opened its doors to students. 

 

Other Resources

 

•   Adequate staffing to support undergraduate research (grant writing and program management), student outreach and recruitment, and collection of data for assessment metrics.

•   Adequate computational and IT resources for

     -   research (e.g. a community cluster where the infrastructure and maintenance are supported by the School, but the compute nodes are purchased by individual faculty)

     -   developing and hosting online courses (one way for a small program to stay near the frontier, is to offer online resources in traditional areas of materials education, leaving faculty the ability to concentrate on emerging areas)

     -   robust internet and videoconferencing facilities to develop teaching and research collaborations with other institutions

•   Investment in adequate centralized spaces for functions that can be carried out efficiently through sharing by all disciplines that need them; examples include nanofabrication, synthesis, thermal analysis, mechanical testing, polymer and other soft material characterization, and microscopy (optical, electron, AFM).

•   Investment in adequate space for current and future MSE faculty.

 

4.     What national programs align with yours and what programs do you aspire to be like by 2020?

 

Unique Aspirations

 

•   A focus on sustainability threaded throughout the undergraduate and graduate curricula, and flexible integration with other disciplines on campus. 

•   A research environment that encourages and facilitates the transition from undergraduate student researcher to graduate student researcher, especially among underrepresented groups in the professoriate.

 

Undergraduate Program in MSE

 

In light of the recommendations in Refs. 2 and 4, we additionally aspire to the following:   

•   Research, internship, and industrial experiences, both domestic and foreign, are important for the preparation of future materials scientists and engineers in both industry and academia.  Undergraduate students need research experiences even as early as the freshman year.  MSE has provided exceptional undergraduate research experiences to well over one hundred UCM students over the past ten years, due to its leadership in the NSF Nanoscale Science and Engineering Center – Center Of Integrated Nanomechanical Systems.

•   Curriculum revision should seek novel ways to include biology, business, project management, leadership, entrepreneurship, and international experiences into undergraduate education – and to integrate/leverage resources for training across disciplines.

•   Educators should consider online educational programs to continue teaching traditional materials areas as faculty expertise in these areas is lost and these courses are displaced to accommodate ones in emerging areas.  (Many UC Merced students engage especially well with these traditional areas, because they are relevant to everyday life experiences.)

•   To attract more students to the discipline, materials programs should change the message used to engage prospective undergraduates. The discipline is an enabling one and one that has the potential to provide technological solutions to critical societal issues. This type of message needs to be used to excite students about opportunities in the field.

•   Provide training and professional development opportunities for K-12 teachers to improve their knowledge of materials concepts and applications that are relevant to their classrooms.

•   Educate students in the evolving computational methods, characterization protocols and data management skills that will enable them to function effectively as the next-generation workforce as envisioned in the Materials Genome Initiative. 

•   Provide continuing education opportunities for people in the existing research and industrial workforce.

 

5.   How does your program help to meet important campus metrics?

 

Several influential, high profile reports (see references) point to the national and international need for accelerated growth in undergraduate materials teaching and enabling materials research.

There does not appear to be a “model” program that is held up as an example of what we might become, because no program is yet meeting these challenges.

         The best we can do in regard to metrics, is to select those that are more universally recognized as indicators of excellence, along with those (e.g. diversity indicators) that characterize the sort of academic environment that we want to be known for.  In regard to the quantitative indicators of excellence, we aspire to placing in the top 10% nationally.

         While recruiting (retaining) graduate students in-house is traditionally minimized in favor of external recruitment, UCM can benefit from retaining well-trained undergraduates as we address the challenge of growing our graduate student numbers.  (This was a common practice at UC Davis during the late 1990s and early 2000s, when the campus was expanding its engineering programs in terms of number of students and quality while at the same time experiencing difficulty recruiting nationally and internationally.)  Thus, MSE will not discourage its undergraduates who wish to stay in the area, often due to family/community reasons, from continuing on to graduate studies at UC Merced – although they will be informed of the benefits of graduate study elsewhere.

 

Metrics for Undergraduate Program in MSE: percent of students participating in research opportunities (currently helped by COINS funding), percent of students enrolling for graduate degrees, growth of enrollment in MSE electives, contribution of faculty to interdisciplinary courses, participation of faculty in outreach and recruitment activities, contribution of faculty to general education.   MSE faculty have made significant contributions in all these respects.

 

We are not providing projected numerical values of metrics with the present document, because of uncertainties in assembling reliable data that fully describe the status quo.   We look forward to developing our quantitative measures of success as we establish robust mechanisms for collecting plausible input.

 

References

1.   Materially Better: Ensuring the UK is at the Forefront of Materials Science, EPSRC (UK Engineering and Physical Sciences Research Council) 2013.

2.   The Future of Materials Science and Materials Engineering Education: a report from the Workshop on Materials Science and Materials Engineering Education sponsored by the National Science Foundation, September 18-19, 2008 in Arlington, VA.

3.  Global Research Report: Materials Science and Technology (Jonathan Adams and David Pendlebury, Evidence Ltd, Thomson Reuters, June 2011).  ISBN: 1-904431-29-1.

This is the first Thomson Reuters Global Research Report to have a topical focus rather than a geographical one.

4.  Materials Genome Initiative for Global Competitiveness, National Science and Technology Council, June 2011.

 

Commenting is closed.

Economics Strategic Initiative 2013

Proposal Status: 
Principal Authors: 

Robert Innes

Kurt Schnier

Alex Whalley

Executive Summary: 
This proposal is now subsumed in the new proposal for a School of Innovation, Management, and Economics
Initiative Description: 

1.        Vision

 

UCM’s Economics faculty is dedicated to building a program that reflects the unique opportunities and standards of excellence of the newest campus of the world’s best public university system.  This means a modern approach to the field.  Paul Krugman, an Economics Nobel Laureate, writes that old world Economics exalted “mathematical prowess… and… turned a blind eye to the limitations of human rationality… to the problems of institutions that run amok; to the imperfections of markets… and to the dangers created when regulators don’t believe in regulation.” [1]  Building an Economics group for the 21st century means facing up to the challenges posed by Krugman.  It means developing and applying the best Economic methods and thinking to address real world problems.  A focus on real world economics has already become a hallmark of UCM with faculty research addressing questions like: How well are organ transplants allocated?  Why do people behave dishonestly?  Can universities power local economic growth?  How do off-shoring and immigration affect domestic workers?

 

In a small campus like UCM, we in Economics aim for focused excellence.  We seek international distinction for excellence in applied economics and quantitative methods generally, with a particular research emphasis on three complementary areas of economic study:

1)      Health economics and management, including impacts of alternative health systems, policies and behaviors on incentives, costs and health outcomes; determinants of individual health behaviors; determinants of health disparities in underserved populations[KS1] ; economics of ageing.

2)      Regional development and economic geography, including determinants and impacts of migration and trade, regional growth and urban planning, local governance, technology.

3)      Environmental and natural resource economics and management, including the economics of agricultural and food markets, corporate environmentalism, control of global and local pollutants, energy and natural resource markets and production.

We aim to fill a niche in the market for ideas, students, and graduates by focusing on these themes, each of which is growing in importance in the broad community of policy choice, scholastic inquiry, and demands for Ph.D. talent.  Our chosen specialties are also particularly appropriate to campus-wide themes, which make them uniquely fertile ground for inter-disciplinary collaboration. 

 

2.        Current Situation and Prospects

 

Faculty.  We have successfully recruited three new talented faculty to the program in AY 2013-2014, one senior and two junior, all starting January 1, 2014.  Our combined new faculty of five reflects research strength in environmental economics (Kurt Schnier and Rob Innes), economic geography and international trade (Alex Whalley, Rowena Gray, and Greg Wright), and health economics (Kurt Schnier).  Our current outlook for recruitment has never been better for a variety of reasons, including the scholastic strength of our current team, the unique academic experience in UCM’s interdisciplinary environment, and the positive, enthusiastic, and cohesive approach of our group.

 

Undergraduate Programs.  Economics is one of the most popular majors throughout the University   of California system and across the nation.  For example, Economics is the second most popular major in the College   of Letters and Science at UC Berkeley; indeed, when combining Economics with two other economics majors (Environmental Economics and Policy, and Political Economy), Economics is the most preferred subject of incoming undergraduates at the campus.[2]  Similarly, at UCLA Economics and Business Economics together represent the most popular major subject on the campus, capturing 7 percent of new students.[3] Beyond the high demand for the subject, Economics represents a core discipline for any University, and particularly for world-class research institutions to which UCM compares itself. 

 

Economics at UCM is responsible for two large undergraduate majors.  The first is the Economics degree, which we are in the process of converting to a Bachelor of Science (from the current Bachelor of Arts).  The second is the Management degree, which we are in the process of renaming and revising to a Management & Business Economics major.  Together, the two current degrees (Economics and Management) have approximately 500 majors.  We anticipate substantial growth in these majors over the coming years with the leadership of both faculty and lecture staff.  In addition, as word of the successes of program graduates (in graduate school at UCLA, UCSD, Notre Dame, etc.;  in private sector firms at Ameriprise Financial, San Jose Giants, Vista Solar, H&R Block, Westat, etc. and public service House of Representatives staff, Census Bureau, Washington DC Mayor’s office, etc.) percolates across the campus community we expect further enrollment growth.

 

Graduate Program.  A central element of success for any academic unit at aUniversity ofCalifornia campus is a thriving graduate program that trains students to take leadership positions in Academia, Government and the private sector.  A Ph.D. program is vital to our program’s development, enhancing research outcomes, external funding, program reputation, faculty recruitment, and TA support and quality.  We plan to start the Economics Ph.D. program in Fall 2015.  We will offer a complete first-year program that includes core course sequences in Microeconomic Theory and Quantitative Methods.  A third series will be required that includes a course in Macroeconomic Theory and Research Methods and Themes.  The second and third years will be occupied with both field courses and preliminary research toward the dissertation.  We will offer a select set of field courses, including fields in health economics, environmental economics, advanced econometrics, and economic geography / trade.  Students can selectively enroll in additional fields at UC Davis during their second year.  We anticipate Ph.D. program enrollments of 25-35 by 2020, supported by TA’ships required to staff our undergraduate sections (see attachment).  Additional enrollments will be possible with grant, endowment and private funding.

 

University Agreement on Management.  Under a University-wide agreement, Economics and Management faculty are in the process of implementing a strategy for Management-related education at UCM.  Over the short to medium run, this strategy involves Economics taking the lead on the undergraduate Management program (to be renamed Management & Business Economics, MBE); MIST initiating a Masters program; collaboration in program planning; and an equal split of Management-related faculty FTE.  The long-run aim is to merge these programs into aSchool ofManagement and Economics (see separate proposal). 

 

3.  The Plan and Resource Requirements

 

Faculty.  The central challenge faced by our program is to build quickly to critical mass.  The importance of sufficient faculty hiring commitments in Economics in the short run cannot be understated.  Given our current depleted faculty ranks, this commitment is vital to gaining distinction in research, developing a Ph.D. program, attracting and retaining world class scholars, and serving educational demands in Economics and Management.  Our plan is to add 2-3 faculty per year, for an anticipated faculty of 21-23 in AY 20-21.  Almost any criterion one cares to name will dictate at least this path of growth for Economics.  One criterion would be distinction in a field that is central to every top rate University in the world.  Another would be the opportunity for distinction in the key areas of endeavor for which we are already building strength.  Another would be the size and scope of programs.  A related criterion would be the share of the University community for which Economics is responsible.  For example, Economics will be responsible for 8 to 10 percent of UCM’s undergraduate program, and 3 to 5 percent of its anticipated graduate program.  In an overall faculty of 400 as of AY 20-21, a six percent share would be 24 faculty.  Alternately, if one goes by standard (19 students to one) ratios, a faculty of roughly 44 faculty would be justified.  Economics faculty numbers with planned hiring are: AY 14-15: 8 faculty FTE (authorized), AY 15-16: 11 FTE, AY 16-17: 13 FTE, AY 17-18: 16 FTE, AY 18-19: 18 FTE, AY 19-20: 20-21 FTE, and AY 20-21: 22-23 FTE.  Faculty hiring in Economics will prioritize our three thematic fields and economic methods (econometrics, experimental, and theory), while complementing our Management-related educational offerings in Marketing / Industrial Organization, Strategy, and quantitative skills.

 

Lecturers.  Between 10 and 11 FTE lecturers will be needed throughout this period to support teaching programs.  The “mathematics” of our long-run situation demands 11 FTE lecture staff (details attached).  Among these lecturers, we will be proposing four to six LPSOE positions over the coming years, adding one per year.  The LPSOE’s are vital to program development, advising, and accommodating anticipated growth in the programs.  Of equal importance are unit 18 lecturers who will make up the balance. 

 

Other Resources.  Economics is not a resource intensive field of study; therefore, we can generate a high return per dollar spent of the University’s investment.  We require office space for our staff, and likely will need to share experimental lab space with other disciplines, but require little more.  On the resource supply side, our current faculty have been successful in obtaining resources from such prestigious granting agencies as the National Science Foundation and the National Institutes of Health, despite scarce grant money for our field.  Our focus on Health and the Environment promises continued success in grant funding.   In addition, Economics is often successful in securing endowment resources for academic programs. Leveraging endowment resources at UCM, particularly with the undergraduate Business program, we anticipate successful efforts to endow chairs, scholarship funds, and perhaps selected programs in coming years. 

 

Cross-campus / Inter-Disciplinary LinkagesWe will link across campus in our thematic areas:

 

▪In health economics, we will be working closely with Public Health, particularly in their Health Services emphasis area.  Our joint plan is for Economics to hire 3 additional faculty in the health economics area over the next three years, and for Public Health to hire 3 health economists for their Health Services programs.  This strategy enables the University to build critical mass and distinction in the Health Economics area by exploiting inter-unit synergies.

▪In regional development, we will be working in concert with a newBlumCenterfor Community Development at UCM.  In addition, our current and anticipated strength in the immigration field will complement the research emphasis of our sister program in Sociology. 

▪In environmental and resource economics, we plan to join with scholars in other social sciences (notably including Sociology and History) to build an inter-disciplinary research center on the Social Science of the Environment.  Our graduate program will also link with current programs in Environmental Sciences to offer field courses in Environmental Policy. 

 

Short and Long Run Administration.  The Economics group will collaborate with our SoE colleagues in MIST (Management of Innovation, Sustainability, and Technology) in the short and long run.  In the short run, we will help as needed in planning and delivery of Masters-level education by MIST, and collaborate on undergraduate Management program planning.  In the long run, MIST and Economics aim to integrate into aSchool ofManagement and Economics (see related proposal).    

 

4.  Impact Metrics

 

The central mission of UCM is to build a world-leading research university that stands shoulder to shoulder with our sister campuses.  Success in Economics can be judged by three metrics: Publication records, Ph.D. program recruitment and placement, and undergraduate program delivery.  We are currently working to improve our large undergraduate program, to launch a Ph.D. program, and recruit stellar scholars.   Current UCM faculty have been very successful in publishing in the top KMS (2003)[4] and RePEc[5] journals, such as American Economic Review, Journal of Econometrics, Journal of Political Economy, Quarterly Journal of Economics, Review of Economics and Statistics, and top Economics field journals.  Executing the targeted excellence strategy of this plan will build a truly distinguished Economics department on a path to national ranking in coming years.

 

Authors:  Robert Innes (Economics), Kurt Schnier (Economics), Alex Whalley (Economics)

Affiliates/Collaborators:  Paul Brown (Public Health), Yihsu Chen (SoE), Paul Maglio (Management), Erik Rolland (Management), Nella VanDyke (Sociology)



 

[4] Kalaitzidakis Mamuneas and Stengos “Rankings of Academic Journals and Institutions in Economics.” Journal of the European Economic Association 1(6) (December 2003): pp.  1346-1366.


 

Impact Metrics: 
Other Supporting Documents: 

Commenting is closed.

Strategic Academic Vision for Quantitative and Systems Biology

Proposal Status: 
Principal Authors: 

David Ardell, Miriam Barlow, Michael Beman, Jessica Blois, Wei-Chun Chin, Jinah Choi, Michael Cleary, Fabian Filipp, Carolin Frank, Ajay Gopinathan, Linda Hirst, Karin Leiderman, Andy LiWang, Gabriela Loots, Jennifer Manilay, Victor Muñoz, Kara McCloskey, Clarissa Nobile, Rudy Ortiz, Nestor Oviedo, Ramendra Saha, Suzanne Sindi, Axel Visel, Fred Wolf, Zhong Wang and Jing Xu

Executive Summary: 
UC Merced Mission priorities include discovery of new knowledge and cross-disciplinary inquiry. The best strategic expression of these core values within biology is Quantitative and Systems Biology (QSB). QSB is well-poised to convert UC Merced investments in interdisciplinary science into biological advances. QSB must revamp from an umbrella group for the life sciences with a renewed and sharpened mission to accelerate biological discovery through innovation. In its core values, QSB champions the unity of biology, innovation and interdisciplinary science and engineering, quantitative approaches, and integration of models and data to explain and predict biological phenomena, with a focus on information, organization, mechanisms, dynamics and emergent phenomena in living systems. QSB’s grand challenge is to fully explain and predict the organization and dynamics of living systems. To get there by 2020, QSB must differentiate its membership, expand transdisciplinary core faculty, and cultivate extramural partnerships and investments to create a Quantitative and Systems Biology Institute (QSBI) and a Department of Quantitative and Systems Biology that offers a unique brand of quantitative and interdisciplinary biology research and education focused on information, organization, dynamics and emergent phenomena in living systems, and the synthesis of data in integrated models to explain and predict those phenomena.
Initiative Description: 
Please see attached PDF.
Other Supporting Documents: 

Commenting is closed.

Political Science Program (Bylaw Unit and Graduate Group) Pre-Proposal

Proposal Status: 
Principal Authors: 
Nathan Monroe Tom Hansford Steve Nicholson Jessica Trounstine Courtenay Conrad Emily Ritter Matt Hibbing Haifeng Huang David Fortunato Alex Theodoridis
Executive Summary: 
The political science program at UC Merced is distinct in two important ways. First, our program is organized in a unique manner. We divide the field into two complementary tracks – Political Economy and Political Institutions and Political Behavior and Cognition. This organization facilitates greater intra- and inter-disciplinary collaboration. Our faculty regularly coauthor with scholars in other fields and publish in general science, interdisciplinary, and other-discipline journals, and our graduate students receive uniquely interdisciplinary training. Second, our faculty has established a rate of publication in our field’s top journals and book presses comparable to or surpassing the best programs in the country; we are the top ranked program in terms of article publication rate. In this document, we outline the resources necessary to establish our program as one of the best in the country by 2020. This includes a substantial increase in faculty and a modest increase in physical space.
Initiative Description: 
See attached proposal

Commenting is closed.

Arts, Humanities and Anthropology (AHA) in the World at UC Merced

Proposal Status: 
Principal Authors: 

Ruth Mostern, Gregg Camfield, Susan Amussen, Katie Brokaw, David Kaminsky, ShiPu Wang, Christina Lux and Kathleen Hull on behalf of the Humanities and World Cultures Bylaw Group, the Center for the Humanities, and the World Cultures Graduate Group

Executive Summary: 

(The following HTML document is the original Fall 2013 version. The May 2, 2014 revision is attached as a PDF in the Supporting Documents section.) In 2020, UC Merced will be a model for conjoined and interdisciplinary arts, humanities and anthropological (AHA) research and education nationwide. Faculty research and academic programs will feature border-crossing work engaged with the whole campus, the local community and the wider world.  While centered in “Culture, Community and Identity,” research in arts, humanities and anthropology at UCM addresses all five major themes of the 2009 Strategic Academic plan.  In 2020, the AHA faculty will remain organized as one bylaw group supporting multiple disciplinary undergraduate majors and interdisciplinary majors and minors, a single Interdisciplinary Humanities Graduate Group, research through the Center for the Humanities, and sponsorship of performing and visual arts in the community.   The AHA faculty are a coalition of individuals from many intellectual backgrounds whose shared affinities cross disciplines, approaches, and recognized interdisciplinary fields.    In 2020 we envision ourselves as a faculty of 75 to 90 with space that fosters continued collaborations.

Initiative Description: 

This proposal is initiated by the Humanities and World Cultures Bylaw Group, the World Cultures (soon Interdisciplinary Humanities) Graduate Group, and the Center for the Humanities:  three units representing 30 faculty, 30 graduate students, and the students majoring and minoring in four undergraduate majors and seven minors and programs.

Refinements to the 2009 Strategic Academic Vision:  The 2009 Strategic Academic Vision offers three points of orientation to our Strategic Academic Focusing Initiative:

  • The “World at Home” reflects the capacity of the AHA fields to approach questions at scales ranging from the global to the local and to move with facility among such frames.  It also reflects our commitment to socially engaged research.
  • The “Culture, Community and Identity” theme gestures towards the scope and aims of the humanities at UC Merced.  However, our work crosses over and beyond all five of the themes developed in the 2009 plan.  
  • The AHA faculty remain committed to interdisciplinary and multidisciplinary scholarship balanced with disciplinary excellence.  As the largest and most diverse faculty group in SSHA, we are beacons for this UC Merced vision.
  • Important research problems or questions in your field(s):  Interdisciplinarity is the hallmark of the AHA approach at UC Merced.  All of our faculty and graduate students read work from every one of our disciplines, and all of us utilize each other’s frames of understanding. The interdisciplinary stance of AHA fields is well expressed in the current issue of  thejournal of the interdisciplinary humanities Occasion(arcade.stanford.edu/occasion_issue/volume-6).  An interdisciplinary orientation in the AHA fields helps to illuminate grand challenges, since the task of humanists, artists and anthropologists is to explain and express cultural complexity and contingency.  Our brief is the human condition as it has existed at all times and at all places, and our insights apply to problems also addressed by scientists and engineers. 

Grand Challenges in the Arts, Humanities and Anthropology 

  • How do social power, exploitation and hegemony function, from intimate to social scales, and how do individuals and groups resist and restructure power?
  • What are individual and collective identity?  What kinds of communication across identities create new and hybrid identities, while other kinds of interactions reify difference?
  • How do states and other entities control territory, what are the limits of state power, and how do people, goods and ideas cross borders?
  • What are creativity and transcendence?  What do people find valuable, meaningful, sacred or beautiful, and what do they find ugly, worthless, profane, or distasteful?
  • How does the human experience vary over time and across space, shaped by various structures of power and hierarchy, and how are slow processes of change disrupted by contingent events?
  • How do humans interact with other life forms and the inanimate world in ways that are exploitative, sustainable, or resilient?

Scholars of the arts, humanities and anthropology address these challenges using methods that include fieldwork, description, narrative, hermeneutics, qualitative and quantitative analysis, curation, and an orientation toward ethics and politics.  In addition, the work of making art – writing, painting, music, drama, and dance – connects theory to practice.

Needed Resources

In 2020, with 75 to 90 faculty members in the AHA fields, we will be positioned to maintain research excellence, support a graduate program of international repute, and educate undergraduates in core disciplines of the liberal arts.  At build out, in addition to robust disciplines, AHA will have thematic interdisciplinary clusters in:

    • Regions, eras, and languages: Global Asian Studies/Asian Languages and Literatures, Global Early Modern Studies, Latin American Studies/Spanish and Portuguese Languages and Literatures, and World Languages and Literatures
    • Methods:  Ethnography, Archaeology, Digital Humanities,  Geography and Spatial Analysis, Museum/Heritage Management, Performance Studies, Community Engaged Research, Public Humanities, and Sociolinguistics
    • Analytical frameworks:  Empires/Borders/Transnationalism,  Environment/Food/Agriculture, Human Rights, Medicine/Health, and Religious Studies
    • Social identities: Ethnic Studies, Women’s, Gender and Sexuality Studies, and Working-Class Studies.

A 75 to 90-member AHA faculty is adequate for critical mass in our current programs, and in addition will permit us to support:

  • New Undergraduate Programs:  GASP will submit an application for major status within the year.   Additional new undergraduate programs will develop organically from existing programs and faculty.  Organized as a single group, AHA faculty and teaching assistants can easily serve multiple degree programs, with many courses cross listed between programs.  Some of the thematic strengths referenced above may become undergraduate minors or majors.  We will also develop an Interdisciplinary Humanities undergraduate major parallel to the Interdisciplinary Humanities Graduate Group and similar to the Stanford Interdisciplinary Studies in Humanities major.
  • New Graduate Programs:  We will sustain growth in the Interdisciplinary Humanities Graduate Group to a total size of approximately 135-180 students (1.5:1 to 2:1 student to faculty ratio).   As part of that process, we will develop a self-paying fifth year coursework-based MA program geared to UCM undergraduates. The fifth year program will enable our brightest undergraduates to develop their intellectual skills and prepare them to apply to top ranked Ph.D. programs or jobs that require M.A. degrees.   UC Merced will thereby become known as a pipeline for outstanding first generation and diverse college students to enter professions and graduate education in AHA fields.  We estimate admitting a class of approximately 10 students per year to the MA program.  In addition, the Merritt Writing Program will propose a self-paying MFA degree.

To support these aims, in addition to the additional faculty detailed above, we also need specialized staff:  (1) one Digital Humanities Developer, (2) one gallery/museum curator, one gallery/museum manager, one LPSOE faculty member to manage the video/music production labs and teach classes, (3) three additional Center for the Humanities staff members, (4) administrative staff dedicated to student advising and faculty support for the AHA group, (5) one LPSOE faculty member for every 200 students or fraction thereof enrolled in each foreign language that we offer, (6) one language lab coordinator, (7) one fine and performing arts LPSOE faculty member for every 200 students or fraction thereof enrolled in each art form that we offer, (8) one arts program and facilities coordinator.  A robust AHA group also requires synergistic development of: (1) an adequately staffed and funded library, a library collection that includes a core print collection of books to support undergraduate and graduate research, sufficient bandwidth for data-intensive research, and a library staff with the specialist knowledge to support undergraduate and graduate research in the arts, humanities and anthropology;  and (2) an adequately staffed and funded UCM Presents performing arts organization that supports performances from high visibility touring performing artists.

The AHA group requires a building or a complex of adjacent and physically integrated buildings that supports the interdisciplinary, and community-facing aims and needs of our large and diverse group while supporting our continued collaboration.  Crucially, we want to be able to perform our many functions in spaces that are efficiently designed and optimized to our needs and that allow for serendipitous and casual meetings in lounges, hallways, and cafes.   While we are not proposing any large-scale concert halls or theater spaces on the campus, we need basic performance spaces for teaching and rehearsal.  Beyond these, we will seek to reinforce town-and-gown connections by using downtown spaces for student and guest performances. This vision requires an excellent transit link, as well as clear, explicit and adequately funded agreements for collaboration between UC Merced and community-based arts presenting entities.  Specifically our needs include:

  • A performing arts and exhibition building that includes a public museum and gallery, a café, and theater,  music, and dance spaces that support teaching and research as well as extra-curricular and social student functions.   The museum/gallery, at 15000 sf, would be used to display artworks and artifacts, but also library exhibitions, science and engineering projects, or almost anything that a course or campus club would want to propose—thus establishing the building as the public face of not only the arts but also the University as a whole. It would also serve as a teaching gallery that makes collections available to faculty and students across campus for courses and to create study exhibitions.  The museum/gallery includes divided exhibition spaces, staff offices, secure storage, exhibition preparation workshop, as well as an interactive education room for the UCM communities and the general public.  This building’s spaces (soundproofed as necessary) would support interdisciplinary approaches to the arts by leveraging pedagogy, research, public performance and student activity together.  This building should include, in addition to the 15000-sf museum/gallery: (1) music practice rooms: 4 individual, 8 keyboard, 2 medium group:  840 sf total, (2) two ensemble practice rooms that can double as seminar rooms, 900 sf total, (3) one dedicated dance rehearsal space, 1200 sf, (4) a combined piano and video/music production lab with individual stations for up to 20 students, 1000 sf, (5) an 80-seat black box theater with requisite backstage areas that could double as a film theater and teaching space for art history, film studies and drama classes, (6) a combined music and dance studio that could allow dancers to collaborate with live musicians, with storage space for musical instruments, (7) a 2500 sf ballroom that could serve for large ensemble rehearsals and for social dancing, (8) two fairly substantial dressing rooms that would serve the black box theater and the ballroom, doubling as changing rooms for dance studios, (9) A shop space for set building, either adjacent to the theater, or in accessible studio space in the adjacent building, (10) classrooms with flexible seating supporting movement-based pedagogy which would double as rehearsal spaces for student groups and as green rooms or dressing rooms when multiple performances are taking place in the building. These classrooms would be equipped with data projectors, sound systems, and motorized black-out shades so that they can serve as useful teaching spaces for courses in music, art, performance, film and other studies in the arts.
  • An art, archaeology and biological anthropology building or wing with ventilation, plumbing and safety features appropriate to teaching and research in these fields.  This space should include: (1) Four 1800-sf fine art studios , each with proper ventilation, built-in cabinetry and sinks, and the ability to adequately darken the room for instruction, i.e. slide presentations (2) eight 725-sf anthropology research damp labs with built-in workbenches, sinks, and snorkel hoods; one 900-sf research lab with a HEPA air filter system; and one shared 300-sf wet lab with a fume hood, (3) two 1000-sf anthropology teaching labs to accommodate 20 students each with lay-out and work space, and one adjacent 500-sf shared washing and storage area with built-in cabinetry, a workbench, and sink, (4) one approximately 500-sf of outdoor space adjacent to the anthropology teaching lab and arts studio with retractable sun/weather shade, (5) storage areas for musical instruments, anthropological teaching materials, artworks, and arts supplies
  • A digital media cluster that includes: (1) a 6000 sf digital media lab, recording studio, digital heritage lab and digital humanities lab suite with light proofing and sound proofing as appropriate, (2) a 1000 sf language lab, (3) a digital humanities/digital heritage/digital media teaching lab for classes of up to 40 students 
  • Offices, study spaces and seminar rooms including: (1) faculty, staff, lecturer, and graduate student offices adequate for the personnel we have specified, (2) a Center for the Humanities suite that includes a suite of 12 offices for a total of 1,560 sq. ft. of office space for: five offices for staff members (610 sf total), one reception / shared student office (130 sf), two offices for visiting faculty fellows (260 sf total), two offices/studios for artists/writers-in-residence (260 sf total), one shared office for two postdocs (150 sf), one shared office for three graduate fellows (150 sf) and also includes an adjacent seminar room of approximately 600 sf, (3) a small auditorium to seat about 90, with a projector, screen, sound, movable chairs, podium, and small storage room for equipment and chairs, (4) 10 seminar rooms, conference rooms and scholarly activity rooms seating 20-60 people for meetings and lectures, (5) an AHA administrative suite with staff space for advising, academic personnel, purchasing, and other needed functions, and (6) quiet shared study space for undergraduates.

National programs that are most closely aligned

Commenting is closed.

UC Merced Library's Open Proposal

Proposal Status: 
Principal Authors: 

Donald A. Barclay, Interim University Librarian

Executive Summary: 

Summary: Main Points

  • Work with faculty to 1) identify the information needs of existing and new programs and 2) secure adequate funding to meet those needs;
  • Collaborate with campus partners to curate research data and other non-commodity information;
  • Reclaim space in the existing library building and develop two or three distributed library-like spaces that support student study and collaboration;
  • In collaboration with UC Merced faculty, support graduate students who wish to research questions of mutual interest to the faculty and the library;
  • Develop research-ready students through both in-person and online instruction as well as by integrating information-literacy outcomes into the campus curriculum.
Initiative Description: 

 1.    Refinements to the 2009 Strategic Academic Vision

For a variety of reasons, the UC Merced Library was absent from the 2009 Strategic Academic Vision. This proposal refines that absence by bringing the library into the picture.

 

 2.    Important research questions in your field:

  1. What is the future of scholarly information in terms of its economic model (institution pays, author pays, end-user pays, etc.), formats (print, digital, other), distribution (commercial, government, institutional repositories, self publication), and connection to systems of academic rewards (hiring, awarding of grants, promotion, tenure)?

  2. How will the academy manage vast amounts of research data through the entire data lifecycle of collection, analysis, sharing, discovery, and archiving?

  3. How will the university develop research-ready students who have the skills to discover, access, evaluate, and apply information throughout their scholarly, professional, civic, and personal lives?

The above questions apply to every research discipline because all disciplines require information to fuel new research and produce new information as result of that research.

Looking beyond the questions of interest to the library in its role as part of the research infrastructure of the campus, the library could also become a locus for research. Because the library can be studied from organizational, economic, cultural, technological, or educational perspectives, UC Merced researchers are welcome to focus their attention on the library rather than, say, choosing to study a remotely located business, educational institution, or cultural heritage organization. An example of the kind of research that results from studying an academic library is Nancy Fried Foster and Susan Gibbons’ Studying Students: The Undergraduate Research Project at the University of Rochester.

 

Beyond serving as a locus for research, the UC Merced Library is interested in the possibility of research partnerships in which student researchers (graduate and undergraduate) working under faculty supervision team with UC Merced librarians to work on meaningful research projects that benefit from the inclusion of librarian expertise. Just a few examples of possible areas of research include: data curation, archival projects, bibliographic analysis, digital humanities, educational assessment, instructional technology, computer science, and economic analysis of information markets. Ideally, the library would have the resources to fund full or partial support for graduate students who wish to research topics of mutual interest to their faculty advisors and the library.

 

3. Resources that are needed

As existing degree programs are expanded and new programs created, it is necessary that the strategic planning for those programs factor in the cost of information resources in the same way that the costs of faculty lines, graduate students, spaces, and equipment are factored in as part of the planning process. The library is ready and willing to work with faculty planners to create realistic cost estimates based on the information resources to be used and how those resources will be used. For some programs, it is possible that existing information resources are more than adequate to handle a major expansion; for others, such as a medical school, the obligation for information resources could run to $1,000,000 per year or more. What the campus cannot afford to do is plan for growth of academic programs and cross its fingers that the existing information resources will be adequate to 1) support UC-level research and 2) satisfy outside accreditation bodies.

The entire campus is in need of a robust technological and administrative infrastructure for the support of academic data. The technological elements include a greatly improved internet connection between the campus and the rest of the world (currently it is 1G, 10G is minimal, 100G is desirable), some capacity for local data storage, and large amounts of cloud-based data storage (roughly 20% local and 80% cloud). On the administrative side, the library will need additional staff and resources for curating data throughout the data lifecycle. Creating a strong data infrastructure will require collaboration between campus researchers, Campus IT, Office of Research, and the library.

In order to serve as a research partner as well as meet the campus’s on-going—and growing—needs for library collections, instruction, student study space, data curation, and archives, by 2020 the library will need to add eight academic librarians (or such academic-librarian-equivalents as archivists, metadata specialists, data curators, instructional technologists, etc.), twelve career-staff positions, and fifty part-time (@ 15 FTE) student employee positions. Of the career-staff positions, a few of the more specialized technology positions might be shared between the library and campus IT. In addition, the library will need significantly increased collections funding to support additional faculty and students, new programs, and inflation in the cost of information resources.

Well before 2020 the library needs to begin reclaiming space in the library building, as the quality of the library’s public spaces are already seriously degraded due to overcrowding. The bulk of the reclaimed space will be used for student individual study and group collaboration, while some space will be needed to house additional librarians and library career staff. In addition, the library will need workspace for faculty/library/student collaboration; for example, workspace for digital humanities or data curation. Beyond the existing library building, the creation of two or three library common spaces dispersed across campus would create enough student study space to take the campus to 2020 and possibly as far as 2030 depending on future growth. 

 

4. National programs that are most closely aligned

The traditional metric for the academic research library was once the number of volumes in the stacks. This metric, which was based on the notion of a comprehensive, stand-alone, just-in-case collection, has been rendered obsolete by the spread of digital information, the interlinking of library collections through bibliographic utilities and consortial library catalogs, and a changing information marketplace. When Harvard University admits (as it did in 2009) that “a single institution cannot capture, document, and make accessible the world’s record of scholarship, and Harvard is no exception,” it is safe to say that the era of the comprehensive, stand-alone, just-in-case library collection has passed. Providing a right-sized printed-book collection focused on the real needs of UC Merced students and researchers will be both a challenge and a goal for the library until such time—should that time ever come—that the printed book no longer has a role in the research university library.

Even in the case of digital information, sheer numbers are a less-than-perfect metric. UC Merced Library provides the campus with access to approximately 70,000 online journals and nearly 4,000,000 e-books. Impressive, yet meaningless if those are not the journals or books actually needed by UCM researchers and students. What matters is providing the needed information resources to the person who needs them at the time of need, and achieving this goal is the aspiration of UC Merced Library. UC Merced Library’s robust Interlibrary Loan (ILL) service is an important component in providing access to information resources not readily available on campus or online. Although ILL comes with a significant cost, the fact that it is demand driven makes it an extremely precise way to meet real information needs. Interestingly, for the previous four years the library has been a net lender (i.e. the UCM Library lends more to other libraries than it borrows from them) whether measured against other UC libraries or all libraries.

UC Merced Library stands out among academic libraries in the way it has re-thought the role of the library in developing research-ready students. The library’s efforts to employ online technology so as to hybridize both information-literacy instruction and the provision of reference services, its use of peer-focused models of providing services to undergraduates, and its redefinition of the role of the academic librarian have all been recognized in the literature of librarianship.

It is likely that the academic libraries of 2020 will look more like the UC Merced Library of 2013 than the UC Merced Library of 2020 will look like the academic libraries of 2013 (and before). For example, the UC Santa Barbara Library is undergoing a major expansion that will result in fewer books in the library, a recognition of the fact that library space for study and collaborative learning is more valuable than space for books. To become a true peer of academic libraries in 2020 and beyond, the UC Merced Library will need sufficient funding to:

  • sustain access to existing and new subscription-based information resources (principally journals) essential to UC-level research;
  • invest one-time monies in the acquisition or creation of non-subscription-based digital information resources;
  • develop a right-sized print-book collection focused on the real needs of UC Merced students and researchers;
  • invest in new models of scholarly publishing (such as open-access publishing) that have the potential to drive down or eliminate the cost of subscription-based information resources;
  • curate data and other non-commodity information created by UC Merced researchers;
  • hire sufficient staff to do all of the above, provide public services, and develop research-ready students through in-person and online instruction.


5. Important campus metrics that are met

The information, data management, and instructional support needs of faculty and graduate students are essentially identical. Assuming the library can meet the needs of faculty researchers, it will meet the needs of graduate students. While the information needs of undergraduates partially overlap with the needs of faculty and graduate students, some part of the undergraduate information need falls outside of that overlap. Providing information to meet undergraduate needs will require an on-going commitment of library collection funds.

Since the opening of the campus in 2005 the UC Merced Library has included the development of research-ready students among its top-priority goals. Meeting this goal involves providing in-person instruction, developing technology-based learning tools, and making it as easy as possible for UC Merced students and researchers to discover and access information without instruction or assistance from library staff (though such assistance is certainly available when needed). The growth of campus has already outpaced the library’s capacity to provide in-person instruction, so the development of technology-based learning tools will be essential for serving 9000 undergraduates. In its revised outcomes for undergraduate education, WASC has called out information literacy as a priority. Meeting this standard will require not only the resources and knowledge of the library, but also the collaboration of faculty and lecturers in all disciplines. This collaboration cannot be in name only, but must include the integration of information-literacy instruction and assessment in courses up and down the curriculum and across all disciplines.

Assuming that the library has the funding and staffing to provide to the campus the right information resources, a robust data curation service, and the foundation for developing research-ready students, it will help the campus improve its measures relating to research productivity, graduate student involvement, undergraduate retention, and graduation rates.

 

 

"The library force is seriously overworked, the building is overcrowded."

     --Benjamin Ide Wheeler, President, University of California, Inaugural Address, October 25, 1899


     Plus ça change, plus c'est la même chose.

 

Commenting is closed.

Chemistry and Chemical Biology Strategic Focusing Round 2 Proposal

Proposal Status: 
Principal Authors: 

Michael E. Colvin

Anne M. Kelley

 

Executive Summary: 
Chemistry is the study of the composition and transformations of matter and is a "central science" linking fundamental discoveries to practical developments. Chemistry is inherently multidisciplinary and provides critical capabilities to other fields, as shown by chemistry being linked to five of the nine campus themes in round 1. The Chemistry and Chemical Biology (CCB) unit and graduate group exemplify this central role through many collaborative projects. CCB has been successful in creating an undergraduate program that has grown to near 250 students and a growing graduate program. The 2020 goal for CCB is to reach 21 faculty. There are prominent chemistry programs nationwide near this size that sustain large graduate groups and leading research programs, which include faculty from all chemical subdisciplines. CCB aims to be a broad chemistry program whose research is distinguished by multidisciplinary collaborations and a focus in nanoscience, chemical biology, theory-driven experiment, and computational chemistry.
Initiative Description: 

 

On the Role of Disciplinary Organizational Units in a Multidisciplinary Campus

 

An underlying assumption of this strategic focusing initiative seems to be that faculty lines are best planned in the context of creating specific applied themes instead of in the context of building strong, well-balanced disciplinary units.  Although much important and influential research occurs through multi-disciplinary collaborations, this does not mean that the best strategy for creating and nurturing the building blocks of such research is to recruit faculty into collaboration themes.  Instead, disciplinary units play a critical role in providing a long-lasting, enriching, and collegial environment in which faculty can build their research careers and train their students.  Disciplinary units have the expertise to recruit, evaluate, and nurture faculty that build and complement the program’s current strengths.  Moreover, the top faculty candidates will be looking to join programs with disciplinary units that they (and their advisers) recognize will best support their careers.  A hiring process that emphasizes bringing expertise into a specific research theme may not attract or select the most talented researchers, which is why virtually all research institutions are organized to recruit talent into disciplines, even if the researchers spend their time in cross-disciplinary research groups.

Another issue is that the functioning of UC Merced as a true university that fulfills its missions in research, teaching, and service will require effective administrative units below the level of schools.  These units are almost universally disciplinary departments, and a process that largely removes such units from faculty planning will greatly undermine the ability of these units to ensure courses are taught, students graduated, faculty promoted, and so on.  Any proposal to radically change this planning process should identify what administrative structures will be created to ensure these roles are fulfilled.  Finally, it is understandable why it is tempting for the campus to invest in a few select areas that may quickly gain recognition; however, the responsibility given to us in starting UC Merced was not to build a research center with a few pillars of excellence, but rather to create a university that will last for centuries and has the breadth and eventual depth to excel in research domains as yet unknown.  Building a university requires the patience to build strong foundations across the many disciplines of human knowledge, a process that will take a long time, as it has at every university, including the world's top private universities and our sister campuses in the UC system.

 

Definition of Thematic Area

Chemistry is the science of the composition, properties, and transformations of matter.  Since its earliest roots in antiquity, chemical research has spanned the range from purely theoretical investigations of the nature of matter to very practical application of this knowledge to improve the human condition.  To this day chemistry retains this role as "the central science" translating fundamental physics and mathematical knowledge to practical applications in biology, medicine, and materials science, as well as industrial processes and products.  Because of this role as the link between many disciplines of science and engineering, a strong chemistry program is a critical part of a successful research university.  This central role became evident in Round 1 of the Strategic Academic Focusing process when the Chemistry and Chemical Biology Proposal was linked to five of the nine campus research themes: Human Health, Energy and Energy Systems, Information, Computational, and Data Sciences, and Engineering, Matter Science and Engineering, and Life Science.  In all of these areas, chemistry provides essential collaborative capabilities in measurement, synthesis, and simulation.  Indeed, a significant fraction of journal papers from UC Merced chemists involve collaborations with other disciplines and many large research grants to UC Merced involve multidisciplinary teams including chemists.  In addition to its role as a linking competency for research, chemistry courses provide a core part of all technical majors; 100% of all science and engineering majors at UC Merced take at least one chemistry course.

 

Intellectual Components of Strategic Initiative

 

Although chemistry is inherently a very broad discipline, there are a handful of common "grand challenge goals" that encompass most of the current research in chemistry.  These are:

 

1) Atomic-level control of molecular structures and chemical reactions

2) Single molecule measurements and manipulation

3) Computer simulations of chemical processes at "predictive accuracy"

4) Design and synthesis of materials with pre-specified properties

5) A chemical understanding of the machinery of life.

 

Together, these goals promise solutions to many of the challenges of the modern world, from discovering new medicines for emerging diseases, creating more efficient processes for food production, developing new energy sources, to inventing more environmentally friendly materials and industrial processes.

 

Faculty Participation

 

At present the UC Merced Chemistry and Chemical Biology (CCB) Bylaw 55 unit includes 12 ladder rank research faculty and one Lecturer with Potential Security of Employment.  The CCB Graduate Group was approved last year as a stand-alone graduate program by the system wide Coordinating Committee on Graduate Affairs, and includes all of the CCB unit faculty and two additional faculty who are part of the Molecular and Cell Biology Bylaw 55 unit.  The CCB faculty span most of the major subfields of chemistry including 4 faculty whose research is in theoretical and computational chemistry, an unusually high fraction of non-experimental faculty compared to most other chemistry programs.

 

The productivity of a chemistry research program is measured by its publications in the top-rated chemistry journals.  Since 2012, CCB faculty have published articles in Nano Letters, Journal of the American Chemical Society, Nature Chemistry, Journal of Chemical Physics, Journal of Physical Chemistry, ACS Nano, and Angewandte Chemie, all high-impact-factor journals that are read by a wide cross-section of the chemistry community.  This recognition builds the reputation of both the chemistry program and UC Merced as a whole.  The ability to produce such high-impact publications depends upon sustained funding, which in chemistry is primarily from extramural grants from federal agencies.  CCB faculty have established a strong track record getting numerous grants from the NSF, NIH, Petroleum Research Fund, Dept. of Energy, US Air Force, Army, and UCOP Lab Fees program.

 

The chemistry undergraduate major at UC Merced has had very robust growth, quadrupling in size over the past five years to 238 in fall 2013.  The CCB graduate program has grown more slowly, to 19 graduate students in fall 2013, limited primarily by challenges in a very small program attracting sufficient qualified applicants.  So far the 2014 graduate recruiting has been going well, with 7 new doctoral students joining the CCB graduate group.

 

Distinctiveness

Chemistry is an inherently multidisciplinary science, so to create competitive research and educational programs will require strength in all primary subfields of physical, organic, inorganic, theoretical and biological chemistry, and across the underpinning capabilities of synthesis, measurement and simulation.  A program that lacked any of these components would not be able to support the types of multidisciplinary research that are meant to be UC Merced's hallmark, nor would such a program be able to sustain accredited undergraduate degrees or graduate programs able to attract top students or training grants. 

 

Although it is not productive to create a chemistry program that is unique simply by narrowing its focus to exclude subdisciplines of chemistry, many excellent chemistry programs do have special features that distinguish them from other programs.  For example, CCB is notable in the number of its publications and grants that span disciplines.  Nearly all CCB faculty have published papers with faculty in other units in SNS or other schools.  These collaborations have led to high profile publications with UC Merced faculty in biology, materials science, computer science, physics, applied math, and mechanical engineering, as well as several large collaborative research grants.

 

Another distinguishing feature is that CCB is a very modern chemistry program in that nearly all faculty do research focused on the four grand challenges of chemistry described at earlier in this proposal, taking advantage of particular strengths in theoretical/computational chemistry and nanoscience.  A large fraction of the CCB faculty use computational or mathematical modeling as a central element of their research.  While not creating a radically different type of chemistry program—which may end up as an unsuccessful gimmick—these features of CCB are recognized as distinct and should provide recruiting opportunities for faculty and graduate students interested in multidisciplinary, prediction-based, chemical research.

 

To help determine the size and disciplinary make up of successful university chemistry programs that are recognized for their contributions to chemical research and provide effective teaching for its majors and service courses, we referred to the US News rankings of the best chemistry graduate programs (most recent version is 2010) that lists nearly 200 chemistry graduate programs (http://grad-schools.usnews.rankingsandreviews.com/best-graduate-schools/...) and the 2010 Assessment of Research Doctorate Programs from the National Research Council that includes 147 programs  (http://sites.nationalacademies.org/PGA/Resdoc/).  In this analysis we focused on programs tagged as simply "Chemistry" to exclude some very large hybrid chemistry-life sciences programs.

 

Across the US, chemistry programs listed in these sources range in size from 8 to 174 faculty, with an average (from the NRC report) of 36 faculty.  These numbers vary to some extent with the size of the university, but it is notable that there are a number of strong to excellent chemistry programs with faculty sizes around 20-24, a size reasonably achievable for UC Merced by 2020.  An "aspirational peer" could be the chemistry department at Johns Hopkins University which is ranked as 21st in the nation despite having only 22 faculty (numbers from http://www.chemistry.jhu.edu/).  Clearly the program at Johns Hopkins benefits from being located at a top ranked university (12th among national universities in the 2013 US News ranking) and from being a wealthy private university.  Another clear advantage of this program is excellent research space including a recently renovated 44,000 sq. ft. chemistry building, providing about 2,000 sq. ft. of office and lab space for each faculty member.  Each faculty member has, on average, 5 graduate students for an overall program size of 120 students.  Another high quality, modest-sized chemistry department is at Emory University, which has only 24 chemistry faculty and yet is ranked 38th amongst chemistry programs and supports over 120 graduate students.  Like Johns Hopkins, Emory is a top ranked university (20th in the UC News rankings) with superb chemistry research facilities including two laboratory buildings. 

 

There are programs at less elite institutions that rank relatively high in national rankings despite their small size.  These include one public university, the University of Illinois at Chicago which ranks 67th in chemistry programs (tied with several other programs) with 24 faculty and over 140 graduate students.  Two other programs achieved good rankings with a small faculty and graduate program, including Brandeis, ranked 67th with 21 faculty and 45 graduate students, and Northeastern, ranked 90th with 27 faculty and 54 graduate students. 

 

It is important to note that despite their small size, all of the chemistry programs cited above have faculty covering all of the major subfields of chemistry, indicating the need for disciplinary breadth even in small chemistry programs.

 

CCB Planned Program Growth to 2020

 

Our aim is to grow the faculty of CCB to reach 21 faculty by 2020.  This will involve a net gain of 9 research faculty.  Based on the example of our exemplar schools, this number of faculty would constitute a "critical mass" of faculty for our research and graduate programs.  Using the projected growth in the number of chemistry majors and service teaching load, 21 faculty would lead to a 16.5/1 student-faculty ratio for chemistry majors and an 18.0/1 ratio for service teaching student FTEs to faculty. 

 

A major aim of CCB over the next several years is to grow the graduate student per faculty ratio from the current value of 1.6 graduate students per CCB faculty to 3.0 by 2020, leading to a total CCB graduate population of 63 students in 2020.  (Note that a number of students supervised by CCB faculty are in other graduate groups, so the actual graduate student/faculty ratio among CCB faculty is higher than 1.6).  Assuming an average of 5 years to complete a Ph.D., our proposed growth rate will require ramping up our graduate recruiting to about 12 students per year, compared to the 7 recruited for fall 2014.  This goal of 3 graduate students per faculty is nearly 50% lower than most of our top rated exemplar schools, but above peer schools like Brandeis and UI, Chicago. 

 

With the success of CCB faculty in grant funding to support GRAs and the large number of chemistry TAships, student funding is not a primary limitation in growing the CCB graduate program.  The biggest challenge to date has been the small size and short history of the program that has limited its visibility to qualified students.  The continued growth of the CCB faculty, recognition through our publications, and the word-of-mouth advertising by our graduate program alumni will inevitably boost our applicant pool and the size of our program.

 

Resources Needed to Achieve our 2020 Goals

 

The primary resource limitation to our proposed growth plan is laboratory space for new faculty.  Assuming that CCB moves towards a 40% fraction of theoretical/computational chemists—which would be very high compared to other chemistry programs—we will need at least 6 new chemical laboratories for new faculty hires.  These will most likely be "wet labs" including a minimum of 600 sq. ft. each, for a total of nearly 4000 sq. ft. of laboratory space.  This exceeds by 4-5 laboratories the space currently assigned to CCB faculty in SE1 or SE2, once we factor in the move of two CCB faculty to campus from Castle.  Therefore, we would need a larger allocation of space in the existing buildings or space in new laboratory buildings.  Alternatively, the CCB faculty is willing to explore plans to renovate laboratory space at Castle to make it suitable for thematic groups of CCB researchers.  However, such a plan would be contingent on sufficient institutional funding to support the additional costs and support services needed to perform research offsite from the main campus.

 

In addition to the laboratory space needs, the CCB hiring plan requires startup funding for at least ten new faculty (including start up needed for the replacement hire for a faculty member leaving in summer 2014).  As is true in nearly all fields of science and engineering, sufficient startup funding is essential to a successful hire and, more importantly, successfully starting the career of new faculty member.  Competitive offers in experimental chemistry require startup funding of $600-800K and for theoretical/computational chemistry startup of $300-500K.  Finally, to be a modern, competitive research program, CCB will need to continue to build its shared research infra-structure, including instrumentation such as high-field NMR.

Commenting is closed.

Molecular Cell Biology Strategic Academic Vision - Round 2

Proposal Status: 
Principal Authors: 

Jennifer O. Manilay, Ph.D. (Chair), and the 16 faculty members in the Molecular and Cell Biology Unit, with the support of faculty members in QSB, HSRI, BEST, LES and ES.

Executive Summary: 

The Molecular and Cell Biology (MCB) Unit is currently comprised of 16 faculty members whose research is focused in 1) Biochemistry, Physiology and Molecular Biology, 2) Cell and Developmental Biology, 3) Microbiology and Immunology, and 4) Neurobiology. We currently serve 1084 undergraduate students in the Biological Sciences (BIO) major and 45 masters and doctoral students in the Quantitative and Systems Biology (QSB) Graduate Group. Our research focus is a natural fit to the 2014 proposed Strategic Vision themes of “Human Health,” “Life Sciences”, and the health component of “Environment Sustainability.” As we progress forward to 2020, we envision that basic biological research in the core MCB disciplines will continue to foster these themes. Here, we present our vision and strategy to build the MCB Unit to achieve excellence in disciplinary and interdisciplinary research, and simultaneously improve the quality of the BIO undergraduate major by 2020. As part of this plan, we envision strong research partnerships with the proposed MCB graduate group (under review), QSB, HSRI, BEST, LES/ES/SNRI, and the emerging Public Health program.

Initiative Description: 

B.  Definition of Molecular and Cell Biology

The 2009 Strategic Academic Vision included “Human Health” as a major research theme, with 3 objectives:  1) to establish the Health Sciences Research Institute (HSRI), which now exists, 2) establish a School of Medicine, and 3) evaluate the potential for a School of Public Health.  Basic research in the biological sciences has been a primary driver for these initiatives at UC Merced.  As we progress forward to 2020, we envision that the MCB Unit’s research foci will continue to feed into the development of these objectives, through its research strengths in the core disciplines of biochemistry, cell and developmental biology, microbiology and immunology, molecular biology, neurobiology, and physiology.   This focus is clearly distinguishable from the other Biology groups on campus, but does not prevent interaction with them (Figure 1, above).  The MCB Unit research foci are clearly also part of the broader theme of “Life Sciences” that will serve as a primary initiating point as well as contribute to other biology SAF Initiatives such as “Health Sciences”, “Quantitative and Systems Biology”, and “Environmental Sciences”.   In addition, our research projects provide the data by which “Applied Mathematics” base mathematical models of biological systems, and can partner well with bioengineering research focused on tissue engineering and biomaterials.  In this sense, we consider MCB not only to stand for Molecular and Cell Biology, but also for Multidisciplinary and Collaborative Biology.

 

C.  Intellectual Components of the Strategic Initiative

                                                                           

The MCB Unit in the School of Natural Sciences is currently comprised of faculty whose research is focused in four main interdisciplinary areas:  1) Biochemistry, Physiology and Molecular Biology, 2) Cell and Developmental Biology, 3) Microbiology and Immunology and 4) Neurobiology. 

There are several “grand challenge” research questions within these areas, which highlight their importance as an area of focused research.

  • What are the mechanisms that control metabolism and how does dysregulation of these mechanisms contribute to metabolic derangements such as cardiovascular disease, diabetes and obesity?
  • How can we identify and manipulate the genes that control stem cell differentiation to regenerate diseased tissues and organs?
  • How do microbial communities develop, how do microbes within these communities talk to one another, and can we use this knowledge to prevent biofilm-based infections?
  • What are the molecular and cellular mechanisms that control immune cell recognition and response to viral, bacterial and fungal pathogens, and do these mechanisms also initiate autoimmune disease?
  • Can we predict the evolution of antibiotic and antiviral resistance and use this knowledge to design novel vaccines and chemical inhibitors to prevent and treat infection?
  • How does the development and function of the brain go awry in disorders such as autism and addiction, and diseases such as dementia?

 

These grand challenge questions may be best answered using interdisciplinary approaches, contextualized in these broader questions:  What are the evolutionary and systems-level causes of diseases like cancer, cell fate decision pathways, and other questions in the organization and dynamics of cells, molecular networks and cellular networks?

 

MCB faculty research to date has made significant impacts in their respective core disciplines (as demonstrated through our publications and research grants, which are key indicators of the development of a successful institutional program). The composition of the current MCB faculty provides unique and key opportunities for intellectual contributions by combining their personal expertise in the core disciplines and applying them to these grand challenge questions.   In addition, we already have examples of interdisciplinary collaborations within the MCB Unit, as well as between the MCB Unit and other research groups (such as QSB, COGS).  Going forward, we aim to expand collaborative research in the following areas:

 

1. Stem Cell Biology and Regenerative Medicine:   This research focus falls under the themes of Developmental Biology, Neurobiology, and Immunology.  Identification of mechanisms that control stem cell proliferation and differentiation has great potential for the use of embryonic, adult, tissue-specific and induced pluripotent stem cells to replace damaged or diseased tissues as part of regenerative medicine therapies.  The MCB faculty has included strong stem cell biologists since its inception, including expertise in embryonic stem cells, hematopoietic stem cells, neural stem cells and adult stem cells.  MCB stem cell research takes advantage of diverse model systems (flies, flatworms, mice, human cell lines) to identify the molecular and cellular basis of fundamental stem cell processes, including: cell survival, differentiation, interaction with support cells in niche environments, and interaction with the host immune response after transplantation.   Some bioengineering faculty (McCloskey, Chin, Lu, Escobar) in the School of Engineering also study stem cell differentiation and potential interactions with novel biomaterials.   Stem cell biology has been well-funded at UCM, as the laboratories of Drs. Cleary, Garcia-Ojeda, Manilay and Oviedo have been funded by several UC, CIRM, NSF and NIH research awards.  Potential areas of expansion would leverage high-throughput technologies and modeling to discover novel mechanisms of stem cell self-renewal and differentiation, promote collaborations that compare the properties of different stem cell types (across tissues and organisms) and establish methodologies for the integration of stem cells and their derivatives into recipient tissues.

 

2. Infectious Disease and Immunity:  This research area falls within the themes of Microbiology and Immunology and Biochemistry, Physiology and Molecular Biology.  Infectious disease and Immunity is a basic research program to study infectious diseases and the immune system.  Topics include emerging infections, zoonoses, and persistent and chronic infections, caused by viral, fungal, bacterial or protozoan pathogens, immune system development and function, inflammation, immune dysregulation, immune tolerance, and biochemical aspects related to infection, inflammation, and pathogenesis.  This research area aligns with “genetic epidemiology” (genetic susceptibility to disease, including infectious diseases, in populations) proposed by HSRI. The program will be interdisciplinary and build on the research expertise of MCB faculty, the large multidisciplinary “immunity and infectious diseases” cluster in HSRI, and the health focus of the proposed Public Health graduate group at UC Merced.  Strong collaborations with LES/ES/SNRI in environment sciences as it relates to studies of zoonoses, inflammation due to environmental contaminants, and other areas in environmental health are also envisioned.  Infectious disease and immunity research has been well-supported by funding agencies; the laboratories of Drs. Barlow, Choi, Garcia-Ojeda, Hoyer, LiWang, Manilay, Nobile, and Ojcius have been funded by grants from UC, CIRM and NIH.  UC Merced is uniquely positioned to develop a strong and interdisciplinary research program in this area, which also addresses health disparities in the region.  We currently have strength in studying lymphocyte development, autoimmune disease, cellular and biochemical studies of inflammation, pathogenesis of chronic hepatitis C, novel treatments for HIV and its prevention, microbial pathogens such as Chlamydia, Candida, and Porphyromonas, the evolution of bacterial resistance, and biofilm development, which lay the foundation for programmatic growth in this area, intersecting basic science with translational research that can impact the local community as well as global health.  Potential areas of expansion would be studies of pathogens to which the immune response is not well understood, such as the fungi that cause Valley Fever and the parasite that causes toxoplasmosis. 

3. Brain and Behavior falls under the MCB research themes of Biochemistry, Physiology and Molecular Biology, Cell and Developmental Biology, Microbiology and Immunology and Neurobiology.  Brain and Behavior is an interdisciplinary and highly collaborative collection of research programs that study molecular mechanisms of brain health and disease, substances and environmental pollutants that trigger degenerative processes, how molecular signatures translate into behavioral and cognitive alterations, and the subsequent impact to our society.  This theme will cover components from MCB (neurobiology and basic biomedical research), Public Health (behavioral/psychological phenotypes and public surveys), LES (environmental sustainability) and QSB (large data collection and bioinformatic-based analysis).  In particular, UC Merced Neurobiology focuses on specific aspects of neurobiology that tightly link to our local underserved communities. Specific research areas include studying molecular mechanisms of alcohol addiction, mechanism of brain development, neuropsychiatric disorders, such as autism and eating disorders, and neurodegenerative diseases, such as Alzheimer’s disease.  Drs. Wolf Kitazawa, Saha, and Cleary are all currently funded by NIH in these areas.  Socioeconomic disparities, poverty, substance abuse and its subsequent developmental complications, and agricultural/environmental toxicants/exposures that the Central Valley and other underserved communities commonly possess significantly increase the risk of substance abuse, developmental defects, and neuropsychiatric and neurodegenerative disorders. With multifactorial and interdisciplinary approaches, this theme aims to comprehensively understand healthy brain development and neurological conditions.

 

4.  Redox Biology is an interdisciplinary theme founded in strong basic research that examines the regulation of free radicals and reduction-oxidation reactions in basic cellular signaling and other processes that may be involved in health and disease and related basic biological questions, and falls under the MCB themes of Biochemistry, Physiology and Molecular Biology, and Microbiology and Immunology.  Specific areas include redox signaling, homeostatic mechanisms regulating redox status (oxidant-antioxidant balance), redox-active and redox-dependent reactions in metabolism and immunity, and redox mechanisms of disease.  Redox biology has been a common thread in diverse research programs at UC-Merced.  Examples include oxidative stress in: insulin and AT1 signaling in the development of cardio-renal and metabolic diseases, signaling in the innate immune system, stimulation of inflammation in response to nanoparticles and bacterial pathogens, pathogenesis of chronic hepatitis C, and neurodegenerative diseases.  This theme may transcend to other groups that have demonstrated interest in a related area in environmental and public health.   Among the primary faculty contributing to this theme, Drs. Choi, Ojcius, and Ortiz have all secured NIH and other extramural funding to support their research directions in this area.

 

5. Systems Approaches to MCB includes integrative approaches to studying biology at the systems level. This approach focuses on understanding the organization and dynamics of living systems, and encompasses all of the MCB general themes.  Key recent achievements in systems biology have shown that information processing and “learning” emerges from the collective behavior of multiple components: whether inside cells in protein and other macromolecular interaction networks, across cells in immune and neural networks, or between individuals in populations. Even in relatively simple biochemical systems, emergent phenomena such as cellular circadian rhythms have an essentially collective basis in molecular interactions. Advances in Next Generation Sequencing have laid bare microbial worlds within us and around us — worlds that matter greatly to health and the environment — about which truly nothing was known a decade ago. Innovations in single molecule and single cell analyses have revealed how noise and randomness actually generate order in biological systems. Drs. Nobile and Ardell are funded by NIH and NSF.  The MCB research foci provide the raw data for quantitative and systems approaches to further understand biology at the molecular and cellular levels.

D.  UC Merced’s Role in the Promotion of Molecular and Cell Biology

 

Since 2005, the faculty recruited to the School of Natural Sciences have led to the formation of the nascent research groups listed above which have led to its current strengths.   The MCB Unit (and UC Merced, as a whole) consists of a group of collaborative individuals that appreciate considering diverse approaches to their research problems  

 

UCM has provided important research infrastructure to support some of these initiatives and that has attracted faculty recruits.  For example, The California Institute for Regenerative Medicine (CIRM) major facilities funding for the Stem Cell Instrumentation Foundry (SCIF), which provides state-of-the-art flow cytometry, confocal microscopy and microfabrication facilities to the entire campus.   The vivarium, run by the Department of Animal Research Services, is a top-notch, accredited vivarium that surpasses the quality of other vivariums at UC campuses.  DARS provides excellent controlled housing for rodents and frogs and could be expanded to house other model organisms such as Zebrafish.  Most recently, the Chancellor provided funds dedicated to the purchase of next-generation sequencing equipment on campus for shared faculty research use.

 

In addition to these important research facilities, UCM has developed support of Early Stage Investigators, which have been especially helpful for MCB facultyto help them establish their laboratories and obtain preliminary data for their first independent grant proposals, and should continue to be supported.  The Office of Research (OR) sponsors an annual Orientation for New Faculty, hosted by the Vice Chancellor for Research, with presentations by OR units including Research Compliance, Office of Technology Transfer, Office of Research Development Services, and the Office of Sponsored Projects Services. In addition, the Office of Research Development Services (RDS) conducts an annual two-day Grant Writing Institute geared primarily to junior faculty and open to all ladder rank faculty. Components of the Grant Writing Institute include sessions on institutional resources to support research, identifying research funding opportunities, research grantsmanship, the peer review process, writing skills, building scientific collaborations, and research development best practices.

The Health Sciences Research Institute is the only organized research unit on campus focused on health-related research, and many MCB faculty are members of the HSRI. HSRI aims to:  1) support the development of methodologically rigorous, multidisciplinary studies across the research continuum to advance understanding of health, health promotion, and disease prevention, 2) provide administrative research support to enable faculty to conduct world-class health research, 3) support and foster undergraduate and graduate students to pursue research in health-related fields, 4) support and mentor new and emerging faculty in conducting health research, 5) establish new and strengthen existing interdisciplinary research partnerships across all levels of the university and with community partners, and 6) facilitate rapid and effective transfer of knowledge into policy, practice, product, and measurable community impact.

These current strengths and infrastructure can only support our vision to expand in the strategic research areas of Stem Cell Biology and Regenerative Medicine, Infectious Disease and Immunity, Brain and Behavior, Redox Biology, and Systems Approaches to MCB, as described in Section C.

Medical practitioners in the Central Valley are motivated and interested in contributing to research that investigates the causes and predicts disease progression within our community, which has been understudied. The MCB Unit is poised to take advantage of this community interest and is already providing lay seminars on our research and collaborating with local physicians to research medical issues within the community to foster this additional unique source of partnerships.  To provide an example, one health research focus of local interest is Valley Fever. Several new projects have begun to explore the immune components of Valley Fever infections, ways to measure local levels of the fungus in our environment, genetic risk factors associated with this infection, economic impact of the infections, and patient psychological responses to their disease. MCB laboratories are collaborating with groups from Bioengineering, LES, SSHA and HSRI at UC Merced, and with clinicians at Children’s Hospital, Fresno on these projects. Already a new seminar series has begun, allowing researchers on campus and throughout our community to meet routinely and exchange ideas for making substantive progress in understanding this local infectious disease.

 

Continued and new investments in these areas will make our multidisciplinary and collaborative MCB program distinctive as we envision that these interdisciplinary studies will not only help to solve these questions, but also contribute to the scholarly development of our faculty, and ultimately, to imbed this intellectual desire into our graduate and undergraduate trainees, as well as into our undergraduate curriculum. MCB faculty have secured extramural funding to enhance the training of undergraduate scholars in biomedical and agriculture-related sciences to help fortify our training environment.  We currently serve the majority of undergraduate and graduate students in the School of Natural Sciences:  an estimated 1084 undergraduate students in the Biological Sciences (BIO) major in these emphasis tracks:  Human Biology, Developmental Biology, Microbiology/Immunology, and Molecular and Cell Biology; and 45 masters and doctoral students in the Quantitative and Systems (QSB) Graduate Group, and we have proposed a new Molecular and Cell Biology Graduate Group (under review).  We anticipate that the BIO major will continue to be popular, but we require additional faculty and graduate students to achieve our research goals for 2020.

 

Extramural funds are absolutely required to support our research.  Financial support for MCB faculty research comes from federal and state organizations (such as the National Institutes of Health, the National Science Foundation, California Institute for Regenerative Medicine), nonprofit and private sponsors (UC Cancer Research Coordinating Committee, American Heart Association, American Diabetes Association, National Kidney Foundation, Autism Speaks, Simons Foundation, American Cancer Society, Gates Foundation), local community research grants, industry partnerships, and philanthropists.  One of our faculty members is exploring “crowd funding” as an additional funding mechanism.   Interdisciplinary collaborations, both on and off campus, will play an important role in the continued success of the MCB program, especially if economic drivers of funding agencies are pushed to support a move from basic to translational research questions.

 

E.  Faculty Participation

 

There are numerous opportunities for collaboration, including mathematical modeling, metabolic modeling, exploring microbial interactions with the immune system, exploring how cellular communities evolve, comparative studies across model organisms,  structure-function analyses, environmental microbiology, ecology of infectious disease, and study of environmental health.   This rich resource of colleagues gives us an advantage over other institutions, as we have the ability to more rapidly incorporate “higher-order” types of data analysis into our thinking and research plans.  We will continue to foster existing collaborations with graduate groups such as QSB, BEST, ES, Applied Math and Public Health.

 

F.  Special Programmatic Needs for MCB

 

We are currently in a deficit in terms of wet lab space for experimentalists in MCB, and even with the opening of the new Science and Engineering-2 Building, all wet lab space will be full until an additional new building is constructed.  The lab spaces for current MCB faculty do not allow for adequate growth for the addition of appropriate numbers of graduate students (our target graduate student to faculty ratio is 3:1), postdoctoral trainees and research staff. New wet laboratories will require temperature and air control, gas and vacuum lines, tissue culture rooms, and common work areas for chemical handling, shared equipment, glassware and consumable storage, and electrical capabilities to handle power -20C and -80C freezers, refrigerators, centrifuges, incubators and microscopes.   Shared computing resources are currently constrained and MCB faculty will need access to central planning for computational resources, including server room space, time and staff support for research computing, and infrastructure to support servers, cloud computing, and sharing large data sets, and specialized computing (such as structural biology).  It is envisioned that MCB will participate in the proposed Center for Theory and Computation (CTC) to fulfill some of these needs.  To facilitate interdisciplinary collaborations, these labs would be co-housed in a building that is connected or in close proximity to faculty within the QSB program, which includes faculty researchers in biophysics, mathematical biology, and systems biologists.

To move forward, new shared core research facilities are required.  UCM currently has an excellent vivarium, facilities for flow cytometry, confocal microscopy and genomics.  However, additional core facilities, some with specialized space needs, are required.  These cores need to be sustained and be located within close proximity to the faculty research labs that utilize them.  Future core facilities should include:

 

  • Protein engineering/biochemical analysis core comprised of one room for a mass spectrometer and another room for equipment for N-terminal sequencing, amino acid analysis, and for making new antibodies; space for proteomic and metabolomic analyses
  • Bioinformatics core to include space for a core of 3-5 bioinformaticians and biostatisticians (staff, not to be confused with the tenure-track faculty) dedicated to assisting faculty with experimental planning and data processing (especially for large RNA-sequencing);
  • Histology core including space for cryostat/microtome, large sink and fume hood for histological analysis of tissue specimens, and possibly a human tissue repository to store human tissue samples from healthy and diseased individuals. 
  • Machine shop for creating custom equipment.
  • Transgenic mouse facility to be housed in the vivarium, including space for equipment of microinjection of cells and mouse embryos to create transgenic, knockin and knockout mice, collection of gametes and their cryopreservation
  • Animal behavior core to carry out cognitive tests, assess locomotor activity, and motor performance tests
  • Extended imaging facility including a laser microdissection microscope, stereology, and real-time, in vivo functional imagery for bioluminescence detection
  • Expanded genomics core to house current DNA sequencing and genomics core, and add oligonucleotide synthesis service and next-generation Illumina sequencing equipment (with significantly greater data-generating capacity / sample-processing power than the current UCM next-generation sequencing machine) that is open to the entire UCM campus
  • Standalone BSL2+ to BSL3 facilities for the study of pathogens that could cause severe or lethal human disease.   Such facilities are usually confined to a specific area of a building with appropriate positive air pressure controls, ventilation, equipment for decontamination and biological safety cabinets. 
  • Enhance NMR Facility with a state-of-the-art 800 MHz NMR spectrometer equipped with a cryoprobe to tackle biochemically complex but fundamentally important systems
  • Robotics core consisting of useful equipment for high throughput experiments, such as genetic and small molecule screens.  Some examples of equipment in this core could be liquid handling robots like the Beckmann Fx, cell analyzers, plate readers, bulk liquid dispensers, plate washers and dispensers like the Biotek EL406, and colony plating robots to support the genomics and proteomics core.
  • Computational servers to support management, archiving and storage of data generated via bioinformatics, imaging, flow cytometry, and similar approaches.
  • Common physical spaces that promote interactions and collaborations, such as a dedicated large amphitheater/lecture hall for the seminars for the School of Natural Sciences outside of the main buildings that house the faculty labs.  Reorganization and renovation of existing labs to shared spaces between faculty to promote efficiency through the use of shared equipment and facilities, as well as promote close interaction among collaborating labs, and laboratory safety.

 

Finally, we must increase graduate student recruitment. Currently, most of the graduate students in MCB faculty labs are recruited within the QSB Graduate Group.  We proposed the formation of a new additional MCB graduate group (currently under review) that we anticipate will permit for the growth and strengthening of graduate education at UCM.   We aim to reach a goal of 3 graduate students to each faculty member by 2020.

 

Commenting is closed.

Applied Philosophy

Proposal Status: 
Principal Authors: 

Carolyn Jennings, Peter Vanderschraaf, Jeff Yoshimi

Executive Summary: 

Applied Philosophy is an approach to philosophy that incorporates mathematical modeling, laboratory experiments and computer simulations just as much as conceptual analysis and reasoning. We are submitting this proposal primarily to indicate how the various research areas we emphasize exist as parts of the strategic focusing initiatives of other academic units. The specific research areas we emphasize are: (1) Politics, Philosophy, and Economics, (2) Philosophy and Cognitive Science, (3) Gender and Race Studies, (4) Applied Ethics.

Initiative Description: 

Applied Philosophy

A. Executive Summary of Initiative

At UC Merced each of our ladder-rank philosophy faculty teach courses and perform research spanning two or more disciplines. We view ourselves as the founding core faculty of an Applied Philosophy program that is unique among American philosophy programs. Mathematical modeling, laboratory experiments and computer simulations are as important to our work as conceptual analysis and reasoning, and we aim to share this vision of philosophy with our students. Both in terms of our continuing research and teaching and in terms of our vision for our program, we see ourselves as contributing to and drawing strength from academic programs across campus, including Cognitive Science, Economics,  Management, Political Science, and Sociology. Consistent with this vision and with the Strategic Academic Focusing Working Group’s suggestion that round one proposals be consolidated into “stronger, more comprehensive initiatives”, we are submitting this proposal primarily to indicate how the various research areas we emphasize exist as parts of the strategic focusing initiatives of other academic units. We believe ours is a unique way of conceiving of philosophy: as a program whose research and teaching strengths are all founded in substantive ties with other academic programs. The specific research areas we emphasize are:
  1. Politics, Philosophy, and Economics (PPE)*
  2. Philosophy and Cognitive Science
  3. Gender and Race Studies
  4. Applied Ethics.
(*The title “Politics, Philosophy and Economics (PPE)” is provisional. We plan to work with faculty in Economics and Political Science to create an appropriate title before the envisioned undergraduate minor and major are launched.)

Because our strategic plan is in a sense distributed across other SAFI’s, this umbrella description will be relatively brief.

B. Definition of Thematic Area

Philosophy studies conceptual and foundational questions. Traditional philosophy is characterized as an “armchair” discipline that is almost purely theoretical, having little contact with other disciplines. However, in recent years a growing number of philosophers incorporate the sciences and other disciplinary areas into their own work. Mathematical modeling, experimental techniques, and computer simulations are all now deployed in philosophy, in an effort to address theoretical questions such as: (i) What is justice?, (ii) What is an optimal decision in a given context?, (iii) How should the self and attention should be understood?, (iv) In what, if anything, does race consist in?, and so on. Much of the most exciting current work in philosophy now occurs where philosophy intersects with other fields. Areas of applied philosophy now include, but are not limited to: political philosophy, philosophy of cognitive science, social and political philosophy, experimental philosophy, applied ethics, and philosophy of race and gender. Some American philosophy departments have a few faculty and/or programs that are interdisciplinary, but UC Merced’s program is perhaps the first American philosophy program built fully upon interdisciplinary foundations. Thus Applied Philosophy at UC Merced is really a covering term for first-order research that could happen in multiple bylaw units, or even schools, and as part of multiple strategic initiatives.

1. Does it fit in one of the nine (9) defined Themes?
Applied philosophy as we envision it overlaps all nine themes:
1. Disparities: Equity, Diversity, Social Inequality. This theme intersects with philosophy of race and gender.
2. Cross-cultural Studies and Cultural Production. This theme also intersects with philosophy of race and gender (see above).
3. Human Health. This theme intersects with applied ethics, especially bioethics.
4. Innovation and Entrepreneurship. This theme intersects with applied ethics, especially business ethics, and PPE.
6. Energy and Energy Systems. This theme intersects with applied ethics, especially environmental ethics.
7. Information, Computational, and Data Sciences, and Engineering. This theme intersects with the philosophy of cognitive science.
Even in those areas not listed above, applied philosophy is relevant. Applied ethics lines could teach courses as part of the life sciences curricula, for example.

2. Are there other SAF Initiatives that, in your opinion, might contribute to this theme
Yes. As noted above, we are primarily deploying our initiative as a series of pointers to other initiatives. Here are some of the initiatives whose authors’ we have corresponded with in developing our own:

(1) Politics, Philosophy, and Economics
  • Political Science
  • School of Innovation, Management, and Economics (SIME)
(2) Philosophy and Cognitive Science:
  • Center for Human Adaptive Systems and Environments (CHASE)
  • Cognitive Science
(3) Gender and Race Studies:
  •  Diversity, Inequality, and Representation
(4) Applied Ethics:
  • Human Health Sciences
  • School of Innovation, Management, and Economics
  • Sustainability: Environment, Energy, Climate and Communication

C. Intellectual components of the Initiative

Why is this area(s) important?

UC Merced has distinctive empirical and applied strengths in many areas. However, the faculty also recognize the importance of theoretical questions and their role in driving empirical and applied research. Our initiatives provide a way of addressing theoretical questions while maintaining an applied emphasis.

What are the current key areas/achievements in this field, and those going forward?

To give a sense of research in these areas, here are a few illustrative examples: (1) In PPE, analysis of collective action problems such as the tragedy of the commons paradox (Ferguson, 2013), which is one of a class of examples where individual rationality appears to conflict with the common good. (2) In philosophy of cognitive science, an increased understanding of different types of agency and their neural bases (Roskies, 2006). (3) In gender and race studies, a recognition that race is not a biological category (Appiah, 1995) and an increasingly sophisticated way of understanding the nature and boundaries of racial categories (James, 2011). (4) In applied ethics, analysis of how certain norms in business interactions can be characterized using game theory as equilibria of exchange games (Binmore, 1999).

We refer the reader to the other SAF initiative documents that we refer to above, for further discussions of other lines of research relating to the four fields we emphasize.

D. UCM’s Role in this Theme

The UCM Campus’ unique position in this particular field and current strengths on campus / Potential research areas of expansion / How will investment in this area make our program distinctive/competitive when compared to programs within UC and other research universities?

(1) A PPE program is yet to be established in the UC system, although UC Irvine is in the late stages of approval for a PPE masters program. We believe that a PPE program at the UC Merced campus would serve the university mission well for several reasons, especially given that such a program would be the first of its kind in the San Joaquin Valley and the first undergraduate PPE program in the entire UC system. Further, a PPE program would complement existing undergraduate major programs in economics, management and political science: these programs have a strong empirical orientation and students in these programs who are interested in gaining additional background in political theory, economic theory, or moral and political philosophy could be served by the PPE program. Consistently with our overall vision, we anticipate that all hires in this area would have a strong empirical and applied orientation.

(2) Philosophy is one of several disciplines in the interdisciplinary field of cognitive science and philosophy and cognitive science are currently well integrated at UC Merced. Philosophy is part of the Cognitive and Information Sciences Academic Unit, and two of the three philosophy faculty are core members of the Cognitive Science graduate group and are involved in advising students. The Philosophy and Cognitive Science curricula are highly integrated both at the undergraduate and graduate levels. Plans are in place to launch a graduate track with the Cognitive Science graduate group in philosophy of cognitive science. In this track, computational, experimental, and mathematical methods will be used in the research and analysis of traditional philosophical questions. Philosophers in cognitive science at UC Merced currently focus on neural networks, computational modeling, dynamical systems theory and the analysis of experimental data concerning attention, perception, action, and consciousness.

(3) Race and Gender Studies Gender and race studies are emerging research topics in philosophy that intersect with research in cognitive science, psychology, anthropology, sociology, and political science. Some central questions include whether gender and race are natural kinds (i.e. according to Simone de Beauvoir, “One is not born a woman, one becomes one (2011), the interrelations of gender, race, and objectivity (i.e. according to Helen de Longino, “Gender, race, and class structure are features of a scientific community that must be taken into account when assessing its epistemic reliability” (1993), and the intersection of gender, race, and justice (i.e. according to Tommie Shelby, “In most modern democratic societies…the socioeconomic disadvantages that racial minorities currently suffer are caused by racial injustice perpetrated in the past” (2004).

(4) Applied Ethics Ethics is a central area of philosophical research that is vital to the practice of other disciplines. For example, the National Institutes of Health (NOT-OD-10-019) and the National Science Foundation (FR Doc No: E9-19930) require institutions to provide training and mentoring in the Responsible Conduct of Research (RCR) to students and post-doctoral researchers. We hope to teach students to apply ethical theories and conceptual analyses to real world cases in a manner that is also informed by research in disciplines outside of philosophy.

E. What bylaw units/grad groups might participate, and how would they participate?

The envisioned PPE major would exist within CIS, but could contribute to and draw on Political Science, Management, and Economics, e.g. by making courses in those areas fulfill the requirements of the PPE major.

Philosophy of cognitive science exists within CIS and the Cognitive Science graduate group, and could contribute to CHASE.

Gender and Race Studies could exist as part of the Humanities and World Cultures bylaw unit (e.g. within the emerging ethnic studies group), and could contribute to the World Cultures graduate group and Sociology.

Applied ethics would exist within CIS, and has very broad relevance. Research in this area could contribute to several academic units, including Biological Science, Environmental Systems, and Management. An applied ethicist could also work closely with faculty in research units like SNRI and the Health Sciences Research Institute. Discussions have already begun regarding the possibility of a person in this area teaching Public Health’s bioethics course, and plans are underway to discuss ways of connecting the Public health curriculum with applied ethics (e.g. via cross-listed courses).

F. General description of special programmatic needs (specialized space requirements, special library collections, etc.).

This is primarily a matter for the other initiatives we are applying within, but it is worth noting that resource needs associated with these areas of applied philosophy are minimal. Each faculty line will require office space only, with the possible exception of an experimental philosopher, who might require minimal or shared lab space.

Bibliography

Appiah, Anthony 1995, “The Uncompleted Argument: DuBois and the Illusion of Race,” in Overcoming Racism and Sexism, L. Bell and D. Blumenfeld (eds.), Lanham, MD: Rowman and Littlefield.

Binmore, Ken. 1999. “Game Theory and Business Ethics.” Business Ethics Quarterly 9: 31-35.

De Beauvoir, Simone. (1961) 2011. The Second Sex. Trans. Constance Borde and Sheila Malovany-Chevallier. New York: Vintage Books.

Ferguson, William. 2013. Collective Action and Exchange: A Game-Theoretic Approach to Contemporary Political Economy. Stanford: Stanford University Press.

James, Michael. 2012. “Race.” In E. N. Zalta (Ed.), The Stanford Encyclopedia of Philosophy (Winter 2012.).

Longino, Helen. 1993. “Taking Gender Seriously in Philosophy of Science” Philosophy of Science 2, 333-340.

Roskies, Adina. 2006. Neuroscientific challenges to free will and responsibility. Trends in Cognitive Sciences, 10(9), 419–423.

Shelby, Tommie. 2004. "Race and Ethnicity, Race and Social Justice: Rawlsian Considerations" Fordham Law Review. 72, 1696-1714.</p>
Other Supporting Documents: 

Commenting is closed.

Computational and Data Science

Proposal Status: 
Principal Authors: 

Arnold Kim and Michael Spivey

Executive Summary: 

We propose a campus research theme in Computational and Data Science. This research field has emerged as an important companion to theoretical and experimental research in natural sciences, engineering, and social sciences. Due to recent advances in high-throughput measurement technologies in nearly every active research area, as well as increased computational hardware capabilities, we now have unprecedented opportunities and access to terabyte, petabyte, and even exabyte datasets. Computational and Data Science researchers are addressing the need for developing next-generation computational models and methods to analyze data which, in turn, lead to predictive theories and more refined experimental investigations. 

Initiative Description: 

Definition of Thematic Area

Computational and data science is the study of mathematical and statistical algorithms, prediction techniques, modeling methodologies, data collection, data analysis, and visualization to address the massive amounts of data now being generated through experiments and observations across all areas of science and engineering. Computational and data science fits squarely within the theme identified by the SAF Working Group entitled, “Information, Computational, and Data Sciences, and Engineering.” This proposed theme is a conglomeration of the following SAF initiatives (listed alphabetically).

  • Applied Mathematics
  • CHASE
  • Chemistry & Chemical Biology
  • CIDER
  • Cognitive Science
  • Electrical Engineering & Computer Science
  • Hard Rock Institute
  • Materials Science & Engineering
  • Mechanical Engineering
  • MIST
  • Next Generation Materials
  • Political Science
  • Center for Statistical and Quantitative Research
  • School of Management & Economics
  • SpARC
  • UC Merced Center for Theory & Computation
  • UC Merced’s Library

Intellectual components

The research field of Computation and Data Science is inherently interdisciplinary and has become a crucial companion to theoretical and experimental research in natural sciences, engineering, and social sciences. Computational and Data Science researchers are addressing the need for developing next-generation computational models and methods to analyze data which, in turn, lead to predictive theories and more refined experimental investigations. As indicated by both federal and private research funding agencies nationwide, this theme of “data-enabled science and engineering” is now a thriving area of interdisciplinary research all its own. For example, the National Science Foundation’s new Research Traineeship Program has “Data-Enabled Science and Engineering” as its only priority research theme.

Achievements in this research field vary widely because of computational and data sciences’ role across different research domains. For example, computational fluid dynamics is a well-established field and it is considered an integral part of fluid dynamics research along with theoretical and experimental approaches. The same is true for areas such as electromagnetics, chemical mass transport, molecular dynamics, and other areas of science and engineering. Similarly, computational and data science have become crucial components of research programs in areas such as bioinformatics and cognitive science as well. One indication of the emerging importance of computational and data sciences in cognitive science is President Obama’s BRAIN Initiative.

UC Merced's Role

This theme reaches across all three schools as demonstrated by the faculty participants in this proposal. Through establishing a Computational and Data Science research theme, we will capitalize on the individual impacts that various programs are making, and establish a cohesive, campus-wide signature of excellence that will gain national and international attention. At present, there are many disparate computational training efforts taking place across the campus. By consolidating these individual efforts under one research theme, we will simultaneously:

  1. Channel administrative and faculty resources in a strategic manner that will encourage synergies in research and teaching,
  2. Avoid unnecessary redundancies (i.e. “reinventing the wheel”) in graduate training pedagogy in computational and data science,
  3. Lead to efficient sharing of research computing infrastructure resources and instructional space.

It is noteworthy to mention that this research theme is poised to flourish and grow right now. Extensive capital planning is not needed. Capital planning that is needed can be shared across several research and teaching units. In fact, establishing this theme provides a mechanism to make more efficient use of current and future resources. Additionally, because Computational and Data Science complements theoretical and experimental inquiry and knowledge discovery, a cohesive group of faculty in this area is crucial for promoting and developing a comprehensive research profile in all areas of natural sciences, engineering, and social sciences on this campus.

Faculty Participation

The following units and graduate groups might participate in this research theme.

  • Applied Mathematics (unit + graduate group)
  • Chemistry & Chemical Biology (unit + graduate group)
  • Cognitive and Information Sciences (unit + graduate group)
  • Electrical Engineering & Computer Science
  • Environmental Systems
  • Materials Science & Engineering
  • Mechanical Engineering
  • Quantitative Systems Biology
  • Physics (unit + graduate group)
  • Political Science (unit + graduate group)
  • Psychological Sciences (unit + graduate group)

Special Programmatic Needs

For research in computational and data sciences, it is absolutely crucial to have and support research computing resources on campus. Research computing resources include hardware and software for a few small- and medium-scale computing platforms for development and testing of code, training of students, and performing scale studies required for transitioning to large-scale computing platforms. For large-scale computing needs, faculty will make use of national supercomputing centers such as XSEDE (https://www.xsede.org/). In addition, research computing administration support staff will be needed to provide maintenance to the hardware and software, ensure stability in data storage, and monitor the security of the campus research computing systems.

At present, research computing resources are lacking in coordination and organization leading to unnecessary expenses incurred and ineffective use. Most research computing on campus is done with individual faculty vying for space, power, and cooling resources within the limitations of campus resources. This research theme will provide an identity on this campus to develop innovative initiatives for sharing these required research computing resources across all of the computational and data sciences faculty. This sharing strategy may be highly effective for purchasing software licenses, for example. The participating faculty will be able to provide the coordination and re-organization needed to make most effective use of the resources available. Moreover, the participating faculty will provide a means to prioritize research computing needs for the campus and help to develop realistic plans for hardware and software upgrades as well as policies and procedures for sharing research computing resources.

Commenting is closed.

Biological Engineering and Small-scale Technologies (BEST)

Proposal Status: 
Principal Authors: 
Kara McCloskey, Changqing Li, Jennifer Lu, Victor Munoz, Wei-Chun Chin
Executive Summary: 
The BEST graduate program is a highly interdisciplinary program, perhaps the most interdisciplinary group on campus, comprised of 26 faculty members whose research and home units are in Biological Engineering (BIOE), Materials Science and Engineering (MSE), Physics (PHYS), Mechanical Engineering (ME), Biological Sciences , and Chemistry (CHEM). Moreover, BEST is currently the primary graduate program for faculty in MSE and BIOE and secondary graduate program for many of our interdisciplinary faculty in the STEM sciences. Moving forward, as MSE develops their own primary graduate program, it is expected that BEST will become the primary home for BIOE faculty with remaining interdisciplinary synergies as described below. Therefore, this strategic plan will address the specific needs and vision of the BIOE faculty in BEST graduate and the BIOE undergraduate programs.
Initiative Description: 
According to the U.S. Bureau of Labor Statistics (BLS), biomedical engineering is expected to be the fastest-growing job market in the United States during the next seven years, rising by about 62 percent by 2020. Bioengineers focus on exciting projects like the development of biocompatible prostheses, various diagnostic and therapeutic medical devices ranging from clinical equipment to micro-implants, imaging equipment, regenerative tissue growth, pharmaceutical drugs and therapeutic biological. In the interest of building a competitive, yet interdisciplinary program at UCM, our BIOE and BEST faculty have identified the following 5 thrust areas for building at UCM. These thrust areas were chosen are based on faculty and student interests, funding availability, and student recruitment.
Other Supporting Documents: 

Commenting is closed.

School of Innovation, Management, and Economics: Leading Innovation, Managing for Change

Proposal Status: 
Principal Authors: 
Paul Maglio (Management), Erik Rolland (Management), Rob Innes(Economics), Kurt Schnier (Economics), Alex Whalley (Economics), and Greg Wright (Economics)
Executive Summary: 
Management and Economics are core academic components of every major research university. At UC Merced, undergraduate programs in these areas already serve more than 8% of students, as of Fall, 2013. We propose to go even further, building on current success to create novel and innovative programs for research and education in Management and Economics by taking advantage of strengths in health, resource, spatial organizational and business economics and management in SSHA; in technology, operations, information and service management in SoE; and in sustainability, cognitive science, health science, computation and data science across the campus. Our strategy will create effective programs that advance the campus’s research missions in target areas such as health, the environment, and technology innovation, among others, while at the same time building a unique niche in management of complex, real-world systems. With economies of scope and scale, we can avoid duplication of effort and investments by (a) leveraging Economics faculty to deliver an undergraduate program in Management and Business Economics (MBE) starting in 2014 and a Ph.D. program in Economics starting in 2016; (b) leveraging faculty in Management, Engineering, and Science to develop a unique modular, graduate program in Management of Innovation, Sustainability and Technology (MIST) starting in 2016; and (3) collaborating across campus to focus on excellence in research and education in analytics, value networks, health care, regional development, trade, technology management, environmental management, and service management, bringing new and unique programs in management, economics and related areas together in a new School of Innovation, Management, and Economics (SIME) starting in 2020. This proposal encompasses all Economics and Management related SAF initiatives from Round 1 of this process.
Initiative Description: 
See attached proposal.
Other Supporting Documents: 

Commenting is closed.

California Institute of Drone Engineering Research (CIDER) (revision)

Proposal Status: 
Principal Authors: 
Stefano Carpin (EECS/ME), YangQuan Chen (ME/EECS/SNRI/CHASE), Qinghua Guo (ES/SNRI/SPARC), Chris Kello (CIS/CHASE), Joshua Viers (ES/CITRIS/SNRI)
Executive Summary: 
90 percent of potential markets for UAVs (unmanned aerial vehicles, or commonly known as drones) will be accounted for by public safety and precision agriculture including agriculture and environmental engineering. UAVs will inject $82 billion in economic activity and generate up to 100,000 new jobs between 2015 and 2025. (http://www.auvsi.org/econreport) UC Merced is uniquely geographically located to establish CIDER (California Institute of Drone Engineering Research) with significant national and international prominence and local and regional economic impacts. Our ultimate vision is to build “Data Drone Valley” between Silicon Valley and Yosemite National Park through this unique intellectual and engineering platform – CIDER. UC Merced already has a significant preparation for this “Data Drone Valley” vision to become true. It could also be expected to symbolize “data drones” as one of the distinguishing aspects of UC Merced from other campuses.
Initiative Description: 
revision submission
Other Supporting Documents: 

Commenting is closed.

Materials Research Initiative

Proposal Status: 
Principal Authors: 
Erik Menke
Executive Summary: 
This is a proposal to create a collaborative, multidisciplinary program in materials research, with participants from Applied Math, Chemistry, Engineering, and Physics. This initiative is inspired by the Materials Genome Initiative for Global Competitiveness, and leverages our current campus strengths in materials discovery and design to create a high visibility program.
Initiative Description: 

Succinct definition of thematic area

This initiative primarily fits under SAF Theme 8, Matter Science and Engineering: from theory to application, although has major overlap with Theme 5 (Environmental Sustainability), Theme 6 (Energy and Energy Systems), and Theme 7 (Information, Computational, and Data Sciences and Engineering) and minor overlap with Theme 4 (Innovation and Entrepreneurship).

This proposal is related to, and draws inspiration from, a number of proposals from the first round of the strategic academic focusing, including the Applied Math proposal, the Chemistry and Chemical Biology proposal, the Materials Science and Engineering (MSE) Graduate Group proposal, the MSE Undergraduate Program proposal, the Next Generation Materials in Physics – Active Multifunctional Matter proposal, and the UC Merced Center for Theory and Computation proposal.

Intellectual components of the strategic initiative

In June, 2011, President Barack Obama’s National Science and Technology Council announced the Materials Genome Initiative for Global Competitiveness, a new funding initiative through the National Science Foundation, the National Institute of Standards and Technology, the Department of Energy, and the Department of Defense. This initiative has three components, 1) Developing a materials innovation infrastructure, 2) Achieving national goals with advanced materials, and 3) Equipping the next-generation materials workforce, with the overall goal of promoting interdisciplinary efforts to discover, develop, manufacture, deploy, and recycle advanced materials faster and cheaper than at present. The expectation is that this goal will be achieved by transforming the way materials are currently designed, and instead combine theory and experiment into an iterative design plan, summarized in figure 1, with a focus on designing advanced materials that address issues of pressing national interest.

While this is a fairly new funding initiative, there have been a few notable achievements. In particular, the success of the NanoHUB website, which hosts a collection of simulation programs, presentations, courses, learning modules, podcasts, animations, and teaching materials on nanoscale phenomena, and the Materials Project website, which houses a database of materials properties for tens of thousands of potential battery materials as well as a variety of open-source tools for material analysis and scientific workflow, demonstrates the need for an improved data sharing and data mining infrastructure.


Figure 1 - Iterative design plan for advanced materials

UCM’s role in this Theme

While the Materials Genome Initiative for Global Competitiveness is a focused national funding initiative, the underlying ideas form a strong organizational framework to which it makes sense to map parts of SNS and SoE, and to which UC Merced is well-positioned to contribute. For example, research currently being done in Applied Math corresponds to the data mining and discovery steps of the materials design process (fig 1), while research in Chemistry and Physics maps closely to the discovery, development, and optimization steps and research in Engineering corresponds to the discovery, development, optimization, and system design steps. In addition, the vast majority of research in SNS and SoE focuses on issues of national need, such as advanced materials for energy generation and storage, human welfare, and national security.

Although research at UC Merced can be mapped to these design steps, we currently are much stronger in some areas than in others. For instance, when compared to other research institutions, we have a much higher fraction of faculty working in theoretical and computational fields, an important cornerstone for future materials design. Additionally, our diverse student body better represents the America of tomorrow, rather than the America of yesterday, and is an important path towards training a diverse group of future scientists and engineers better able to tackle difficult problems with creative solutions. Finally, UC Merced’s founding faculty recognized the importance of researching important problems, which is why so many of our current faculty focus their research on areas identified as issues of national need. These strengths are evidenced by our ability to secure highly competitive funding from diverse programs such as NSF’s Solar Initiative program, which requires a collaborative effort between an engineer, a chemist, and a mathematician, and multiple NSF REU programs, such as the DESCARTES program in Applied Math, which trains students in analyzing massive data sets, and the Applications in Modern Materials (AiMM) program in Chemistry and Physics.

While UC Merced has some notable strengths in materials research, there are two potential routes for investment in this area that will lead to a more competitive program. The first route is to build up our current strengths by hiring more research faculty in applied math, chemistry, physics, and engineering who have interests aligned with this initiative. The second route is to diversify our strengths by hiring additional faculty who can contribute to other steps of the design plan shown in figure 1, in particular engineers who focus on certifying, manufacturing, and deploying products, and economists, social scientists, and political scientists who study societal and policy affects on adopting new materials. In addition to these routes, it would be extremely beneficial to develop industrial partnerships, to better address real world problems impacted by current and future research at UC Merced as well as to ensure our students are receiving the training necessary to succeed after they graduate.

What bylaw units/grad groups might participate, and how would they participate?

The bylaw units that would likely participate are Applied Math (Harish Bhat, François Blanchette, Boaz Ilan, Arnold Kim, Roummel Marcia, Mayya Tokman), Chemistry and Chemical Biology (Jason Hein, Hrant Hratchian, Christine Isborn, Anne Meyers Kelley, David Kelley, Erik Menke, Aleksandr Noy, Jess Vickery, Tao Ye), Engineering (Venkattraman Ayyaswamy, Wei-Chun Chin, Lilian Davila, Daniel Hirleman, Min Hwan Lee, Valerie Leppert, Jennifer Lu, Ashlie Martini, Kara McCloskey, Michael Modest, Vincent Tung, Christopher Viney), and Physics (Chih-Chun Chien, Sai Ghosh, Ajay Gopinathan, Linda Hirst, Carrie Menke, Kevin Mitchell, Michael Scheibner, Jay Sharping, Lin Tian, Roland Winston, Jing Xu). The graduate groups that would likely participate are Applied Math, Biological Engineering and Small-Scale Technologies, Chemical and Chemical Biology, Mechanical Engineering, and Physics.

The faculty in these units and graduate groups contribute to all three components of the Materials Genome Initiative, listed above. Specifically, for component 1 (developing a materials innovation infrastructure) all the faculty listed above focus their research efforts on one or more steps in the iterative design plan shown in figure 1. For component 2 (achieving national goals with advanced materials) nearly all the research performed by the above faculty is directly related to the design and synthesis of advanced material in areas identified as a national need, whether quantum dots for solar cells, cardiac tissue engineering, or graphene electrodes for Li-ion batteries. Finally, for component 3 (equipping the next-generation materials workforce) these groups contribute at the graduate level to ensure that our masters and Ph.D. graduates have the tools and training necessary to succeed in industry and academia, while at the undergraduate level these groups will use traditional coursework, independent study, and research opportunities to prepare our bachelor students for either jobs in industry or advanced study in graduate or professional programs.

General description of special programmatic needs (specialized space requirements, special library collections, etc.).

As this initiative is primarily focused on the design and synthesis of new materials, successful implementation of this initiative will require laboratory space (wet and dry, science and engineering), computational resources (space and equipment), and additional major research instrumentation (Electron microscopy, NMR, XRD, mass spec, etc.) beyond what currently exists on campus.

Other Supporting Documents: 

Commenting is closed.

Strategic Initiative on Multi-scale Biological Active Matter (SIMBA)

Proposal Status: 
Principal Authors: 
Ajay Gopinathan (This initiative includes 18 other faculty from SNS and SOE)
Executive Summary: 
We propose to pursue a fundamental understanding of the structure and dynamics of multi-scale biological assemblies using a interdisciplinary approach that cuts across scientific and engineering methodologies with the goal of enabling control of function in vivo and aiding in the development of novel bio-inspired materials and devices.
Initiative Description: 
Please see attached formatted document Succinct definition of thematic area: This area cuts across several themes 3 (Human Health), 7 (Information, Computational, and Data Sciences, and Engineering), 8 (Matter Science and Engineering: from theory to application) and 9 (Life Sciences). Our proposal is synergistic with several initiatives proposed from Physics, Chemistry and Chemical Biology, QSB, MSE and BEST. Intellectual Components: In nature, the whole is definitely greater than the sum of its parts. The hierarchical assembly of cellular and multicellular structures poses significant challenges for our understanding while also providing inspiration for new soft, adaptive materials. Many biomolecules have evolved to assemble into complexes that exhibit structure on all scales, from the nanometer scale of individual proteins to the full cellular scale of tens of micrometers, and even beyond to the scale of extracellular matrices and multicellular tissue. These assemblies are inherently "soft" and highly dynamic because their properties are determined by weak interactions on the scale of thermal energy at room temperature leading to large fluctuations and complex dynamics. These systems are also typically driven by active processes that consume energy leading to an intrinsically non-equilibrium situation. There are many rich examples of such complex assemblies at the molecular, cellular and multicellular scales that display functional structure and dynamics that are emergent from the interactions of the constituent elements and the active processes. These include self-assembled lipid membranes, protein assemblies involved in DNA replication and membrane channel gating, hierarchical assemblies of motors and filaments involved in chromosome segregation, cell division, cell migration and mechano-sensation, ciliary and flagellar propulsion in bacteria and multicellular assembly dynamics such as biofilm formation and cardiac tissue dynamics. While our quantitative understanding of the individual building blocks of cells has increased tremendously over the last few years, e.g., as a result of new single-molecule biophysical tools such as super-resolution fluorescence imaging, scanning-probe, and other microscopies, as well as advances in computational modeling, we are just beginning to learn about the basic principles that govern both the assembly and non-equilibrium collective properties at the larger scales. Advances in this area require contributions from many different fields: biochemistry to understand molecular recognition and signaling mechanisms, soft matter physics and materials science and engineering to understand and characterize material properties, optical physics for cutting edge imaging and manipulation, bioengineering approaches for mechanical and electrical manipulation and multicellular tissue mechanics and biology and chemical biology to probe functional properties in vivo. Since a complete understanding of such hierarchically assembled systems requires the integration of interactions and dynamics across multiple scales, it is also critical to involve theory and computation from multiple fields including applied math, physics and chemistry. Progress in this area will lead to not only a better fundamental understanding of the emergence of function in non-equilibrium multiscale biological assemblies but will also allow us to attain better control of their functional dynamics potentially leading to therapeutic improvements in human health. Along the same lines, understanding the design principles that lead to emergent function in these systems can allow us to design and optimize functional bio-inspired materials. Research within this initiative will be loosely organized around three thrust areas based on the scales of the assemblies and processes involved. a. Nano-scale and sub-cellular assemblies: Functional biological assemblies that span length scales from sub-nanometer/nanometer ranges of small protein complexes to several tens to hundreds of nanometers of large macromolecular complexes and assemblies will be the focus of this thrust. Areas of high interest in this general field at present and going forward include – functional assemblies of intrinsically disordered proteins; the aggregation of misfolded proteins; lipid rafts; DNA condensation and organization; the mechanics and dynamics of different chromosome segregation apparatus and the functioning of cell division machinery. b. Cellular-scale mechanics and dynamics: This thrust will focus on phenomena that integrate multiple sub-cellular assemblies and processes to produce function at the scale of the whole cell. Areas with high activity and potential include active gels of cytoskeletal protein filaments and molecular motors, assembly and disassembly kinetics of viral capsids, cell wall synthesis and regulation in bacteria, cellular response to mechanical stimuli via the assembly of mechanosensitive filament complexes; bacterial propulsion in complex media and cell migration in 3D elastic matrices. c. Multicellular aggregates: Cell-cell interactions and the structure of multicellular aggregates can give rise to novel functional collective phenomena. This thrust will focus on the mechanics and dynamics of multicellular aggregates including cardiac tissue and bacterial biofilms; biological fluids and their interactions with cellular and multicellular structures including tumors and clots; collective migration of multicellular aggregates; developmental patterning and differentiation in tissue. It is to be noted that though these themes have been listed distinctly, they are inextricably interconnected with one level of organization influencing the next, thus requiring a focused effort at all levels. UCM’s role in this theme It is interesting to note that there have been several initiatives at various places across the country and internationally that emphasize, very broadly, the quantitative studies of biological systems. Most of these centers or institutes are formed with the realization that to truly make progress in this vast area, one needs to facilitate synergy between multiple approaches and foster interdisciplinary approaches. Examples include the Wyss institute for Bio-inspired Engineering at Harvard, the Institute for Biophysical Dynamics at the University of Chicago and the UC’s very own California Institute for Quantitative Biosciences (QB3). While the missions of these institutions vary, they are primarily research driven. It is particularly interesting to note in this context that the Wyss institute started out as an initiative in response to the provost’s challenge to the faculty to come up with an initiative for the future of bioengineering. There are several factors that make our proposed initiative at UC Merced unique, distinctive and competitive. The necessarily broad purview of the institutes mentioned above are a result of trying to minimize the considerable disciplinary boundaries that exist already and bring together as many people as possible to foster potential connections. This is not a critical barrier here at UC Merced, since we are quite interdisciplinary from the very outset and both our current size and structure make it much easier to focus our resources further on a specific and fairly unique theme – Multiscale Assemblies of Soft and Active Biological Matter – in which we already have considerable strength. A particular edge we have in this respect is the number of people who are comfortable working with soft matter (polymers, colloids, gels, liquid crystals, membranes) with a strong interest in biological problems across multiple units including mainly Physics, Applied Math, CCB, Bioengineering and MSE (see list below). Unlike other institutions where such “soft matter” expertise is splintered across multiple departments in far-away buildings, at UCM, multiple interdisciplinary collaborations already exist across these units that fall within this theme that are fostered by proximity and sharing space. The organized initiative can serve to add to this. Unlike some of the diffuse umbrella organizations cited above, our specific focus is, by its very nature, truly integrated across the thrust areas and will allow us to conduct tight-knit team science at a high level. This will be valuable in potentially leveraging our multi-disciplinary approach for center type grants as well as education and training grants down the line. Growth: Since we are still in a growth phase we have the opportunity to build a formidable team of researchers in this specific theme at the interface of soft materials and biology with a potential for high impact and transformative science and technology. One of our major goals down the line is to leverage this initiative and establish an interdisciplinary Center for Soft Biological Matter (CSBM). We are currently reasonably well represented in thrust (a) at the sub cellular scale but need additional strength at the multicellular scale (c) and especially at the cellular scale (b). Potential further areas of expansion that would be critical to bolstering our strength in these areas include – super-resolution imaging that will allow access to very high spatial and temporal resolution; mechanical force production and sensing at the cellular level including cytoskeletal mechanics; 3D cell migration; collective phenomena in multicellular and bacterial systems. It is to be noted that we are currently (this year-2014) in the process of hiring 3-4 people across physics, applied math and material science (including potential cross-unit hires) in bio fluids and whole cell membrane biophysics who would contribute significantly to these areas. We currently number roughly about 18 FTEs (full list below) and to get to a critical mass (in terms of being competitive for center grants) of about 30 faculty members, we would need an additional 2-3 FTEs per year for the next 5-6 years. We intend to be proactive about leveraging the FTEs allocated to this initiative. We will form joint search committees including people from at least two of the most relevant (for the particular search) participating groups - bylaw units in SNS and grad groups in Engineering. The specific search area will also dictate the actual composition, in terms of faculty, of the committees. We will aggressively pursue high quality hires in this area with appointments either being joint between multiple units or residing wholly in one depending on what is most preferred and workable on a case-by-case basis. Funding: Research in this area has many potential avenues of funding with current faculty having obtained grants from the NSF (Materials Research, Physics, Bio), DARPA, American Heart Association, CIRM, DOE and NIH among others and we expect this trend to continue. As we approach a critical number of faculty members (~30) we anticipate applying for center grants from federal funding agencies including the NSF (MRSEC (Materials Research Science and Engineering Centers) or STC (Science and Technology Centers) type) and NIH (P series) among others. Participation: Below is a list of people from various bylaw units/graduate groups that would contribute significantly to this initiative in terms of their research interests. Physics Ajay Gopinathan (protein assemblies, bacterial mechanics, cell division) Linda Hirst (cytoskeletal network structure, membranes, liquid crystals) Jay Sharping (biophotonics, vesicles) Jing Xu (Molecular motors, active transport) Sayantani Ghosh (magnetic measurements in bio-fluids) +2 potential hires (bacterial propulsion, membrane biophysics and self-assembly) Bioengineering Wei-Chun Chin (polymer gels in biology) Ariel Escobar (cardiac tissue dynamics) Kara McCloskey (mechanical cues in stem cell differentiation) Victor Munoz (protein folding and dynamics) MSE Jennifer Lu (polymer mechanics and biocompatible materials) Christopher Viney (biological materials, polymers, liquid crystals) Mechanical Engineering Sachin Goyal (biopolymer mechanics) Yanbao Ma (bio-fluids) Applied Math Karin Leiderman (biofluid/structure dynamics) Suzanne Sindi (protein aggregation dynamics) CCB Mike Colvin (disordered protein dynamics) Christine Isborn (biomolecular dynamics) Andy LiWang (structural biology of protein complexes) Tao Ye (nanoscale biomolecular assemblies) Requirements: There are no particularly special requirements beyond what is required for such research normally – combinations of wet and dry lab space, computational resources, and improved shared facilities (microscopy, fabrication, machine shop).
Other Supporting Documents: 

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Community-Engaged Research

Proposal Status: 
Principal Authors: 
Elliott Campbell – Engineering and the Blum Center for Developing Economies Robin DeLugan – Anthropology, Resource Center for Community Engaged Scholarship (ReCCES) and the Blum Center for Developing Economies Stergios Roussos – the Blum Center for Developing Economies, HSRI, ReCCES, and Public Health Alex Whalley – Economics and the Blum Center for Developing Economies
Executive Summary: 
Academic research in the USA and internationally is being challenged to more quickly and cost-effectively produce innovations with greater and more immediate community benefits. Community-engaged research is an approach to scientific and scholarly work that aims to improve the process and products of research through greater academic-community collaboration. Community partnerships have been critical to establish and grow UC Merced (UCM) in the San Joaquin Valley. UCM has established a strong foundation and leadership for community-engaged research in the UC system and nationally (especially among research universities). The ReCCES-Blum Center collaboration proposes Community-Engaged Research as a strategic academic focusing initiative for UCM. This theme will continue and strengthen UCM’s impact on its service region, attract faculty and graduate students drawn to this theme through the growing recognition of community-engaged research as “cutting-edge” in higher education, and distinguish UCM among grantmakers, legislators and key decision makers in higher education.
Initiative Description: 
See attached PDF proposal.
Other Supporting Documents: 

Commenting is closed.

Diversity, Inequality & Representation

Proposal Status: 
Principal Authors: 
Donald Barclay, Libraries Robin DeLugan, Anthropology Jan Goggans, English Tanya Golash-Boza, Sociology Emily Lin, Libraries Carolyn Jennings, Applied Philosophy Stergios Roussos, Blum Center Zulema Valdez, Sociology Nella Van Dyke, Sociology Jeff Yoshimi, Cognitive Science Alex Whalley, Blum Center
Executive Summary: 
This cross-disciplinary theme focuses on research and teaching that critically examines historical and contemporary experiences and conditions of diversity (ethnicity, gender, race, sexuality, social class); inequality (in poverty, education, health, migration, the environment, and politics); and representation (portrayals and inclusion of diverse populations). We represent a diverse group of faculty in Anthropology, Cognitive Science, Economics, Engineering, History, Literature, Life and Environmental Sciences, Linguistics, Physiology & Nutrition, Philosophy, Political Science, Psychology, Public Health, and Sociology, in partnership with ReCCES/ Blum Center for Developing Economies and the Sierra Nevada Research Institute, proposing the development of an initiative designed to transcend disciplinary boundaries to encourage innovative scholarship and training. The theme is both local and global in scope, and will directly serve the interests and needs of the Central Valley and nearby Sierra Nevada communities. University development around the theme may occur through existing and new research centers, existing and emerging minors and majors, graduate programs, research and teaching clusters, and strategic hiring initiatives. This theme ensures the development of intellectually exciting and critical work that will shape and transform the campus, the region, and the world as we head towards 2020.
Initiative Description: 
SAFI Round Two: Diversity, Inequality & Representation

Authors:

Donald Barclay, Libraries

Robin DeLugan, Anthropology

Jan Goggans, English

Tanya Golash-Boza, Sociology

Emily Lin, Libraries

Carolyn Jennings, Applied Philosophy

Stergios Roussos, Blum Center

Zulema Valdez, Sociology

Nella Van Dyke, Sociology

Jeff Yoshimi, Cognitive Science

Alex Whalley, Blum Center

 A.   Executive Summary

This cross-disciplinary theme focuses on research and teaching that critically examines historical and contemporary experiences and conditions of diversity (ethnicity, gender, race, sexuality, social class); inequality (in poverty, education, health, migration, the environment, and politics); and representation (portrayals and inclusion of diverse populations). We represent a diverse group of faculty in Anthropology, Cognitive Science, Economics, Engineering, History, Literature, Life and Environmental Sciences, Linguistics, Physiology & Nutrition, Philosophy, Political Science, Psychology, Public Health, and Sociology, in partnership with ReCCES/ Blum Center for Developing Economies and the Sierra Nevada Research Institute, proposing the development of an initiative designed to transcend disciplinary boundaries to encourage innovative scholarship and training. The theme is both local and global in scope, and will directly serve the interests and needs of the Central Valley and nearby Sierra Nevada communities. University development around the theme may occur through existing and new research centers, existing and emerging minors and majors, graduate programs, research and teaching clusters, and strategic hiring initiatives. This theme ensures the development of intellectually exciting and critical work that will shape and transform the campus, the region, and the world as we head towards 2020.

B.  Succinct Definition of Thematic Area

Our theme brings together UC Merced faculty and graduate students across a variety of disciplines. It fits squarely with Theme 1 identified by the SAFI Working Group: Disparities: Equity, Diversity, Social Inequality. It is relevant to other thematic areas as well, including Cross-cultural Studies and Cultural Production, Human Health, Innovation and Entrepreneurship, Environmental Sustainability, and Life Sciences. It draws from multiple proposals submitted in Round 1 to create a unique initiative that builds on UC Merced’s established strengths across schools and in a number of bylaw units. We engage with eleven proposals: The Center for the Study of Comparative Inequalities; Public Health at UC Merced; Economics; the Education Research Center; Engaged Transformation of Poverty; Applied Philosophy; Cognition, Computation, and Human Data Science; Sociology; Women’s Gender and Sexuality Studies; UC Merced Library’s Open Proposal; and Arts, Humanities, Anthropology in the World at UC Merced. Representatives from each of these areas participated in drafting this SAFI proposal.

Diversity, Inequality, and Representation is a cross-school, cross-disciplinary theme focused on research and teaching that critically examines historical and contemporary experiences and conditions of diverse groups, social and environmental inequality, and representation. This theme builds on and promotes work that emphasizes and explores 1) diversity along the lines of race and ethnicity, sex and gender, sexuality, citizenship, and social class; 2) social inequality, including poverty, disparities in educational opportunity and attainment, and disparities in health and access to health care; and 3) representation, or how academic scholarship and creative works interpret and portray diversity and inequality and are inclusive of diverse groups.

Diversity, Inequality and Representation emphasizes the importance of intersectionality, or the idea that understanding diversity and inequality requires examining the intersection of multiple factors. The key to understanding society and culture is recognizing that multiple dimensions of inequality have been constructed together and cannot be understood in isolation. For example, to understand poverty without looking at race and gender gives an incomplete picture of the complexities of inequality. Our theme incorporates global studies and invites international comparisons while promoting a focus on diversity and inequality at home. Whether studying regional poverty, exposure to environmental hazards, underrepresented groups in academic and professional fields, such as women and minorities in STEM, or the creation of more equitable, healthy, or sustainable communities, this initiative will attract faculty and resources that will distinguish and enhance our campus. Our theme transcends disciplinary divides and promotes an interdisciplinarity founded on the matrices of inequality that bind what might otherwise be separate research programs. By emphasizing community engagement as a core value, this strategic initiative will encourage research, teaching and service that mutually benefit our campus and the underserved Central Valley and nearby Sierra Nevada regions.

C.  Intellectual Components of the Strategic Initiative

By taking an intersectional approach to diversity, inequality, and representation, UC Merced can be at the forefront of studies of inequality. Our theme draws on new directions of scholarship within diverse disciplines to consider how multiple dimensions of social inequality simultaneously shape individual and collective experiences and outcomes. A study of health disparities across different racial groups, for example, that ignores how class and gender intersect to produce differential treatment is inherently limited. Likewise, a study of language barriers between doctors and immigrant patients, of representations of modern day slaves in contemporary fiction, of the educational pathways of first-generation students at UC Merced, of the placement of prisons along Highway 99, of the effect of pesticides on farm workers or of opportunities for immigrant entrepreneurs, would all be enriched with an intersectional approach. An intersectional approach to diversity, inequality, and representation transcends the limits of traditional scholarship, which has tended to be conducted within disciplinary silos. Older and more established universities are often constrained in the ways in which they fund and promote interdisciplinary work. In contrast, UC Merced is in a unique position to develop truly interdisciplinary research focusing on diversity and inequality that can be disseminated to public stakeholders and audiences. In bridging the social and natural sciences, humanities and the arts, we can also help faculty across disciplines and schools to tap into new sources of funding for research relevant to the study of diversity, inequality, and representation, including grants administered by the National Science Foundation and National Institutes of Health.

This theme would help UC Merced complete its mission to offer world class educational opportunities to an underserved population. In order to serve the community and fulfill this mission, the University can do more than offer classes to local residents: we can conduct research on the forms of inequality and social challenges facing Central Valley and nearby Sierra Nevada residents. The population of the Central Valley, in particular, with more than 6 million residents, is larger than that of 10 US states. The challenges its diverse population faces in terms of inequality and representation affect all of California, and the nation. By emphasizing our expertise in these issues, we can demonstrate that our research programs are important and worthy of support, with implications for the region, the state and beyond.  The combined areas of strength we are developing are unique for the UC system and nationally, and will help us recruit world-class faculty, draw graduate students and attain national and even international standing.

D.   UCM’s Role in this Theme

1.  The UCM Campus’ unique position in this particular field

a. Current strengths on campus in this area

UC Merced already has substantial strength in areas related to this theme, and we are well situated to continue building in this area. The theme of Diversity, Inequality, and Representation allows UC Merced to build on its existing strengths in fields including Anthropology, Economics, Engineering, Ethnic Studies, History, Literature, Life and Environmental Sciences, Philosophy, Psychology, Public Health, and Sociology. For example, UC Merced has considerable strengths in topics such as citizenship and civic engagement, education, environmental studies, human rights,  immigration, and labor studies (to name a few)  that transcend disciplinary divides and fall within this theme.

We have numerous faculty members with expertise in critical race studies, immigration, gender and sexuality, community engaged research, health disparities, environmental threats, spatial disparities, and other topics directly related to this theme. Some examples of the many relevant research and programs on campus that fit within this theme include:

  • The 2013-14 “Race and Justice in Transnational Perspective” Seminar Series organized by faculty in History, Sociology, Anthropology, and Literature.

  • The annual UCM Human Rights Film Series, which draws from multiple fields and brings together scholars from these diverse areas.

  • The 2014 “Thirty Years of Mass Incarceration Conference,” organized by Tanya Golash Boza, David Torres-Rouff, and Nigel Hatton, and which included presenters from the local and scholarly community and faculty in the School of Social Science, Humanities and the Arts.

  • Past community-engaged conferences and symposia: Merced Immigration Forum (2012); Abolishing Homeless (2011); and Water Quality in California’s Rural Central Valley (2010).

  • Discovery centered on the dynamics of immigration and immigration policy, and global economic development, including Economics faculty Alex Whalley, Greg Wright, and three new hires starting AY 2014-2015; faculty in Sociology including Tanya Golash-Boza, Zulema Valdez, and new affiliated faculty member Marjorie Zatz; and faculty in the humanities including Mario Sifuentez.

  • Research by faculty members including Virginia Adan-Lifante, Susan Amussen, Irenee Beattie, Jan Goggans, Tanya Golash-Boza, Laura Hamilton, Linda Anne Rebhun, Anna Song, Zulema Valdez, Anne Warlamount, and potential Literature faculty Matthew Kaiser focuses on the many ways gender shapes our lives and identity.

The theme is consistent with UC Merced’s large scale commitment to new forms of scholarship, learning, and community engagement. For example, our link with the National Park Service and the Yosemite Leadership Program on campus focus on both science and the arts; while SNRI provides a crucial interdisciplinary link to the surrounding area’s multiple forms of diversity. ReCCES/Blum Center,  and HSRI also rely on a multifaceted and often transdisiplinary understanding of people and place within an engaged environment. Our relationship with the Merced Irrigation District is a crucial step to understanding local water reserves, water sustainability, and cultural access and disparities in access to safe and affordable drinking water. The Center for the Humanities has sponsored a number of transdisciplinary events, including the September exhibit at the Merced Multicultural Center “Central Valley Threads: Picking Out Strands of Life and Art in the Central Valley.” Our partnerships with Fresno, Merced, Modesto and Kern County school districts enable the campus to work on issues of educational inequalities and diversity within school districts. Further this theme will capitalize on the opportunity to translate scholarly work to diverse stakeholders and public audiences.

b. Potential research areas of expansion

Areas of expansion include building on our existing research strengths, developing targeted research on issues pertinent to the Central Valley, and developing new and innovative areas of research that build bridges between disciplines, departments, and schools at UC Merced. Areas of focus will include diversity, poverty and inequality, social justice, and representations.

Diversity

-racial, ethnic, diasporic, & migrant communities

-diversity & intersectionality in higher education

-inter-ethnic conflict & prejudice

-assimilation & acculturation

-citizenship and belonging

-language & translation

-gender and sexuality

Poverty and Inequality

-state of the welfare state

-local and global economy

-food insecurity & food deserts

-education gap

-information inequality

-farmworker rights

Social Justice

-mass incarceration

-deportation

-human rights

-environmental justice

-global justice

Representations

-diversity within the academy

-portrayals of diverse groups in media

-literary representations of diverse groups

-class as subject in art, literature, and music

-gender inequalities within reception and distribution of forms of art

-historical subjects

-the Central Valley in poetry, fiction, art, and theater

In addition to strengthening and expanding the above research areas, Diversity, Inequality and Representation will build partnerships across campus. In collaboration with the UC Merced Library faculty and student research can provide information and data on the region. The library will use its digital-assets infrastructure and expertise to surface existing Central Valley information resources for faculty use and research. Just one example of hidden resources are the Merced Irrigation District records (MID) currently held at UC Riverside. Containing historical maps, photographs, business records, and water data, the MID’s analog-format records are difficult to find and access; our library will transform these records into primary-source materials for research on Central Valley topics ranging from sociology to water usage and allocation. In collaboration with the library we can build a collection of digital materials that can serve as a vast resource for a future Center for San Joaquin Valley Studies. The library can also curate the data and resources produced by faculty and student research.  Additionally, the established engagement of Diversity, Inequalities, and Representation with the SAFI 2 combined ES/SNRI/LES proposal offers faculty and graduate students heretofore unexplored intersections between the social sciences, environment, and the humanities by articulating broad themes that can be interpreted in multiple ways and in multiple places.  Both Diversity, Inequality, and Representation and Environmental Sustainability see the Central Valley as a start point laboratory, robust with opportunity, that can accomplish broader understandings at a global scale.

2. How will investment in this area make our program distinctive/competitive when compared to programs within UC and other research universities?

The strategic theme of Diversity, Inequality, and Representation will make UC Merced stand out as a university that focuses on the future, on local and global contexts, including community engagement, and that nurtures research that is both intersectional and translational in nature. Over recent years other top-tier universities have created centers for the study of poverty and/or inequality (Cornell, Michigan, Oxford, Wisconsin-Madison, Stanford, UCLA, UCD). The joint theme Diversity, Inequality and Representation is a fresh approach to urgent social concerns. It will position UC Merced to lead the next generation of disciplinary and transdisciplinary scholars to develop theories, methodologies and representational practices that will bring greater understanding to the complexities of inequality and attention to the role of higher education to inform publics and policymakers alike.

E. What bylaw units/grad groups might participate, and how would they participate?

All bylaw units and graduate groups, across schools, can participate.  The theme for hiring would be announced and any bylaw unit that wants to propose a hire within that theme can put forward a hiring request, so bylaw units could hire within the theme and also apply to specific issues such as food access, immigration, spatial inequality, economic development, localized poverty, water, etc.  

F.  General description of special programmatic needs (specialized space requirements, special library collections, etc.).  The main programmatic needs of this proposal are as follows: 1) faculty hiring in thematic areas; 2) cluster hires that bridge disciplinary divides; 3) faculty research support; and 4) the formation of new Centers that facilitate conversations between these new hires as well as existing faculty.

1. Faculty hiring in thematic areas.

We are proposing to support and facilitate a hiring plan that leverages resources to significantly impact UC Merced’s excellence in: (1) basic research and graduate student training, (2) community engagement, and (3) innovative undergraduate programming. That this approach will simultaneously achieve all three goals represents an outstanding opportunity for the campus to achieve a very high return on investment. Furthermore, this proposed highly innovative SAFI hiring approach will place UC Merced firmly at the forefront of emerging models of high impact research universities in the 21st century. The proposal is to hire a certain number of faculty FTEs over a period of time (e.g., 25 FTE in 5 years) that are consistent with the SAFI’s emphasis on diversity, inequality and representation. The SAFI will request hiring proposals from any bylaw units that seek to hire world leading scholars who will: (1) contribute to strengthening existing or planned graduate programs; and (2) engage the theme in their research and teaching.

The flexibility of this approach will support both disciplinary and interdisciplinary hiring. The primary goal of the initiative is to build excellence and depth in this important area. At the same time to strengthen our Ph.D. training all hires will be affiliated with a planned or existing Ph.D. program to continue the development of world leading Ph.D. programs on campus.  To facilitate the success of these new hires and enhance UC Merced’s positions as leader in discovery, we hope to offer research Seed Grants for faculty who work in the theme.

2.  Interdisciplinary cluster hires

We imagine that some of these hires could occur through cluster hiring, which would allow bylaw units to build their strengths together. For example, a cluster hire that focuses on the intersecting inequalities of race, class, and gender, would allow various units to simultaneously hire in this area and attract scholars who are committed to building interdisciplinary communities. The Applied Philosophy proposal, for example, includes provision for philosophical research in gender and race studies that would engage with research in Anthropology, Cognitive Science, Psychology, Political Science, and  Sociology. Another example; a cluster of several hires in the theme of environmental justice could easily attract scholars from Anthropology, Engineering, Environmental Sciences, History, Literature, Political Sciences, or Sociology, or the newer interdisciplinary fields of Ethnic Studies or Sustainability Science, who could work together to build a platform that is truly transdisciplinary and innovative.  Examples of cluster hires include: health disparities; environmental justice; immigration; and critical race and gender studies.

3.  Engagement with existing centers and faculty research support.

We are also proposing to collaborate with the ReCCES/Blum Center in order to promote community engaged research - which is central to this theme. With this collaboration, external resources will be secured so as to provide selected hires with a course release. The course releases will provide each school hosting selected faculty who work in this theme with sufficient funding to hire a lecturer to staff an undergraduate course that would be typically taught by that FTE. The course release allows faculty to develop and offer undergraduate community engaged research experiences as part of the new Community Research and Service Minor.  In addition, summer graduate student fellow positions will be created to allow masters and doctoral students to assist with faculty research, consequently training the next generation of community engaged scholars.  We see a partnership with the ReCCES/Blum Center leadership team as a particular strength of our proposal. We also envision similar partnerships with SNRI that could bridge the divide between the social sciences, the natural sciences, humanities, and the arts.

4.  The development of new research centers.

The Centers will serve as a synergistic hub for scholars working in each of these areas. We envision at least three proposed new Centers: Center for the Study of Comparative Inequalities; Educational Research Center; Center for San Joaquin Valley Studies, in addition to building on existing Centers, specifically SNRI and ReCCES/Blum Center for Developing Economies. These Centers would facilitate conversations through the funding of Working Groups and Symposia and Collaborative Seed Grants.  These Centers will also be engaged in faculty development as well as grantmaking to contribute to the development of UC Merced as an internationally renowned university. Given our planned cooperation with ReCCES and the high potential for community engagement, and we also envision a space in downtown Merced where researchers in this theme can build community partnerships.

Other Supporting Documents: 

Commenting is closed.

Human Health Sciences: From Cells to Society to Improve the Health of the People in the San Joaquin Valley

Proposal Status: 
Principal Authors: 
Paul Brown (HSRI and Public Health), Jennifer Manilay (MCB), David Ojcius (MCB) and Jan Wallander (Psychological Sciences)
Executive Summary: 
'Human health sciences' is currently a major research and education area at UC Merced. This Strategic Focusing Initiative (SFI) outlines how four proposals from the first round—Healthy Development (Psychological Sciences), Public Health, Health Sciences Research Institute (HSRI), and Molecular and Cell Biology (MCB)—have been combined into a single joint vision how to achieve excellence in research and education related to human health sciences at UC Merced by 2020. We have linked this proposal to other concurrent proposals, thus demonstrating the relevance of human health sciences to many areas on campus and the potential for human health sciences to expand in the future. Our goal is for UC Merced to be world renown in human health sciences research and education by 2020, and this proposal describes what is needed to consolidate and build on upon our achievements to date. We propose to achieve this goal by i) focusing our research and teaching on health issues pertinent to the underserved populations in San Joaquin Valley (SJV), a focus that will bring us national recognition, utilize the existing strengths in the region and at UC Merced, and fulfill our unique mission within the UC system, ii) achieving greater coordination, efficiency, and effectiveness in the development of human health sciences by advancing leadership and establishing a structure for making decisions regarding the future of human health sciences research and teaching, and iii) identifying the high priority health research facilities that will be needed to achieve this goal.
Initiative Description: 
Human health is represented across a broad range of systems from cells to society, including genes, organ systems, behavior patterns, human relationships, and environmental context. Our proposal consolidates human health sciences research and education at UC Merced, representing an inter-disciplinary collaboration among several existing and emerging faculty groups and programs. In the first phase of the strategic planning initiative, 10 proposals were classified as relevant to health, with four having human health as their central focus: Psychological Sciences/Healthy Development, Public Health, HSRI, and MCB. This proposal combines these four key proposals, but also identifies the pathway in which other groups and programs on campus can join in the development of human health sciences research and education.

Commenting is closed.

Materials Science and Engineering: a focus on energy, sustainability, and manufacturable devices

Proposal Status: 
Principal Authors: 
Christopher Viney, Lilian Davila, Valerie Leppert, Jennifer Lu, Vincent Tung
Executive Summary: 

This proposal evolved from two “Round 1” submissions in the SAF exercise: Materials Science and Engineering (MSE) Graduate Group, and Materials Science and Engineering (MSE) Undergraduate Program. It describes MSE as a central discipline within the SAF-defined theme #8 – Matter Science and Engineering: from theory to application, linking fundamental sciences (physics, chemistry, mathematics) and other engineering specialties (mechanical, computing/electrical, environmental, bio). In addition, we indicate ways in which MSE can synergize with all of the other themes arising from Round 1 of the SAF exercise.

We emphasize the unique attributes of MSE within the spectrum of MSE-related research (inherently multidisciplinary; multiscale approaches to connecting structure and properties of matter in the solid state; a natural home for research and teaching in nanotechnology; the benefits to our graduated of ABET accreditation). We propose focused growth in the areas of energy materials, sustainability and manufacturable nanoscale devices.

Several recent influential government-funded reports, from agencies in the USA and abroad, have headlined how commitment to materials research and education is vital for technological advancement and future prosperity.

Initiative Description: 
Please see attached formatted version (.pdf file)
Other Supporting Documents: 

Commenting is closed.

Catalysis Science

Proposal Status: 
Principal Authors: 
Hrant P. Hratchian and Jason Hein
Executive Summary: 
We propose Catalysis Science as an area of Strategic Academic Focus. This area inherently involves researchers with a number of traditional disciplinary backgrounds. Substantive opportunities exist for simultaneous basic research and applied sciences leading to meaningful knowledge discovery, technology transfer, and societal impact. A number of current faculty in life sciences, physical sciences, and engineering fields will form the nucleus for growth in catalysis science. Going forward, we hope for new faculty hires across Natural Sciences and Engineering Bylaw Units that will further develop our joint expertise in catalysis science and firmly established UC Merced as a center of excellence in this high impact field.
Initiative Description: 
Definition of Thematic Area

This Strategic Academic Focusing submission proposes a focus area in catalysis. Our proposed catalysis focus would clearly exist in symbiosis with five of the current nine focus themes identified by the SAF Working Group. These specific focus themes are:

Theme 8: Matter Science and Engineering. A critical area of catalysis study involves understanding fundamental physical processes driving catalysis at the atomic level. This is particularly true in homogeneous and heterogeneous catalysis. These areas of scholarly inquire clearly fall within the domain of matter science and engineering.

Theme 9: Life Sciences. Many biological processes occur by way of enzyme catalysis. Moreover, bio-inspired catalyst design is an important component of most other areas of catalysis science.

Theme 5: Environmental Sustainability. Many of the environmental concerns brought to light in Rachel Carson’s seminal “Silent Spring” were due to indiscriminant discarding of undesired catalytic side products by the chemical industry. An important component of modern catalysis discovery and optimization is “environmental catalysis”, which focuses on developing sustainable and environmentally friendly catalytic processes.

Theme 6: Energy and Energy Systems. One of the most important applications of catalysis involves the efficient conversion of energy captured from sunlight to transportable fuels such as hydrogen. It is known that such conversions will involve as yet unknown catalysts.

Theme 4: Innovation and Entrepreneurship. The study of catalysis has well-established positions within multiple industries. Advancements in catalysis at UCM may generate exciting technology transfer and patent opportunities.

A catalysis focus area will also support the SAF Working Group focus themes in “Human Health” (Theme 3) and “Information, Computational, and Data Sciences and Engineering” (Theme 8). Developments of new water purification techniques using catalytic systems, catalyzed energy conversion methods, and green catalysts are all motivated by environmental and human health concerns. Rational design approaches for new catalysts have been, and will continue to be, significantly influenced by computational research involving modeling and simulation studies providing critical insights not otherwise attainable by experimental methods alone. In particular, a catalysis focused strategic initiative blends a unique mixture of research expertise to create a cohesive and distinctive research enterprise.

We point out that catalysis science is a well-known and incredibly diverse multi- and trans-disciplinary area of inquiry. Nevertheless, this is a clearly defined area of scientific activity that can be fully appreciated by funding agencies and other benefactors as well as industry partners and policy leaders. It is our opinion that strategic academic focusing can only be an effective exercise if the resulting pillars of excellence correspond to research initiatives that are appreciated by the academic community, funding program directors, legislators, and the public at large. Catalysis Science clearly satisfies this desired characteristic of a sound focus area. We also note that catalysis science is not a fad or simply a current-day hot topic. Catalysis science has a rich history and is expected to be a crucial area of scientific exploration for years to come. As such, by any metric catalysis science has been one of the longest standing areas of serious funding of all scientific and engineering lines of study. We expect that a focus on hiring and development of catalysis at UCM will be a rewarding effort that will result in a funded and sustainable area of focus far into the future.

Intellectual Components of the Initiative

Catalysis is a critical area of study with a rich scientific and cultural history. Indeed, the most often cited example of the first human use of a catalytic process is fermentation. Berzelius reported the first systematic examination of catalysis in 1835. Since then, scientists and engineers have continued to explore catalysis with the goal of discovering and enhancing catalytic processes of societal importance.

Today, catalysis holds a unique place in both academic research and high impact industrial applications. Among other applications, catalytic processes are at the key to automobile exhaust gas conversion, production of pharmaceuticals and fine chemicals, and energy conversion to transportable fuel. Recognizing the efficiencies of enzyme mediated processes, an important area of catalysis science focuses on exploring the fundamental features of bio-catalysis with a hope of translating knowledge discovery from that domain to new applied catalytic systems.

Recognizing the value of fundamental research and the high potential for transformative discoveries with industrial application in catalysis science, essentially every major funding agency supports research in this area. Indeed, most federal agencies post multiple proposal calls each year specifically focused on catalysis science. Mirroring this emphasis on catalysis, a number of universities and research institutes have established centers on catalysis or have focused departmental growth in catalysis. A simple web search will yield scores of hits.



UCM’s Role

UC Merced has an opportunity to focus on catalysis science and to be extraordinarily successful in securing funding for this work. Traditionally, catalysis science has developed in the three distinct areas of homogeneous, heterogeneous, and biological catalysis. While the practical study of catalysis has developed in these siloed sub-disciplines, it has become increasingly apparent that future advancements in catalysis will require trans-disciplinary interactions. For example, Photosystem II has largely inspired the development of new catalysts for solar energy conversion into storable fuel. Design motifs based on our understanding of Nature’s approach have been incorporated in both homogeneous and heterogeneous domains.

Going forward, it is clear that transformative advancements in catalysis science will occur when the three traditional areas interact. The recipe for success here will require experts in traditional areas advancing their research programs in an environment with constant knowledge transfer between groups and disciplines. Importantly, effective knowledge transfer of this sort cannot be forced or artificial; it must occur naturally.

UCM provides this crucial environment in a way not available at more established and entrenched universities. By supporting collaborative research activities among (especially junior) faculty and providing physical spaces that encourage casual interactions between investigators working in traditionally separate domains, UCM faculty are uniquely situated to make transformative discoveries in catalysis science.

UCM has current strengths in this area that are worthy of continued and expanded support. Among these, we note UCM’s high concentration of computational scientists across disciplines as well as leading groups in commentary experimental disciplines, which sets us apart from other institutions and situate us in a good position to develop rationale catalyst design initiatives. We also note the close interaction between multiple faculty members sitting on the border of biology and chemistry. This later feature will be a critically important characteristic to achieve a strong impact in bio-inspired catalysis. We also expect that substantive interactions with existing and developing expertise in materials, surface, and energy sciences – all of which have an established and recognized connection with catalysis – will strengthen our grant getting activities in catalysis science.


Faculty Participation

Multiple disciplines participate in catalysis science. At present, we have identified faculty working in the area of catalysis science in the majority of Bylaw Units in the School of Natural Sciences and the School of Engineering. In particular, we have identified the follow faculty led research groups: Chemistry and Chemical Biology (Jason Hein, Hrant Hratchian, Christine Isborn, Erik Menke, Tao Ye, Matt Meyer, Andy LiWang, Mike Colvin), Engineering (Valerie Leppert, Jennifer Lu, Christopher Viney, Victor Munoz, Ariel Escobar), Applied Math (Suzanne Sindi, Karin Leiderman), Physics (Linda Hirst, Sai Ghosh, Jing Xu) and Molecular and Cellular Biology (Patti LiWang, David Ardell, Jinah Choi, Rudy Ortiz). If catalysis science is selected as an area of strategic focus, the next several years can anticipate new catalysis science faculty in all five Natural Sciences Bylaw Units and at least two areas within the School of Engineering.




Special Programmatic Needs

As already stated, an important advantage at UCM is the free and natural interaction of faculty in different units. Going forward, it will be essential for the faculty to interact more frequently in formal and informal settings. If catalysis science is identified as a strategic academic focus area, we will explore joint seminar possibilities. To support such activities, it may be helpful for a small seed investment by the University in an initial seminar support fund. Going forward, it would be reasonable to establish a formal research center in catalysis and to use the center as a facilitator of “team science” funding opportunities.

As for other special resource requirements, we suggest the University dedicate a new faculty lines in catalysis science. We expect Bylaw 55 Units will most likely identify and search for these hires as part of the University’s growth in the sciences continues. As such, programmatic needs related to space and start-up funding should reside within the anticipated needs for the natural growth of the University as part of the 2020 Project.

Commenting is closed.

Chem/Bio/Materials

Proposal Status: 
Principal Authors: 

SAF Work Group

Executive Summary: 

Biology-Chemistry-Physics-Materials Group

 

Goal

To identify and prioritize one or more research themes encompassing Biology, Chemistry, Physics, and Materials; and corresponding hires to be made within those disciplines to further excellence and scholarly attainment within each theme, bringing international and national recognition to the UC Merced campus.  It is the expectation that information consistent with that requested for the first two rounds of the SAF exercise will be provided with the proposed themes – existing basis for excellence and infrastructure, comparable programs, unique opportunities for achieving recognition, funding sources, resource needs – faculty and facilities, etc.

 

Foreword

Given that FTEs will continue to be allocated for hires in specific disciplines, that will enable them to build up strengths in specific areas of disciplinary expertise, it is the assumption that the current exercise will focus on research themes that incorporate all four of the named disciplines.  These themes may typically be referred to as “grand challenges” or “transdisciplinary” or “team-based” research that requires the expertise and some integration of several disciplines for the synthesis of a coherent research approach.  In other words, they would require some dialogue and bridging of disciplines, facilitated by our physical proximity, versus interdisciplinary research that can be performed without some understanding of the perspective of companion disciplines.  It is anticipated that these hires can also contribute to areas of strength within the individual disciplines.

 

Examples

·         Next Generation Biomaterials for Human Health - http://www.sciencedaily.com/releases/2002/02/020208080313.htm

http://www.nature.com/nmat/focus/biomaterial/index.html

·         Materials for Tissue Engineering/Regenerative Medicine, Diagnostics, and Drug Delivery

·         Additive Biomanufacturing Techniques for Bionic Organs and Devices

·         Bio-inspired or Biologically-Based Energy Materials

·         Materials for culture/analysis of pathogens for which there are not available technologies

·         Environmental/health effects of the physiochemical properties of Environmental/Engineered Nanophases (e.g. as air particulates, fertilizers, pesticides, seed germination aids, biomed/tech. materials)

·         Stimuli Responsive, Bioactive Scaffolding

·         3-D Bio-Fabrication Technologies

·         Bio-inspired Green Materials Synthesis

·         Synthetic Biology for Materials Synthesis

·         Bio-Manufacturing

·         Artificial Cells for Study of the Origins of Life

·         Artificial Cells for the Study of Sub-Cellular Processes/Structures for Whole Cell Function

·         Biologically-based or Inspired Materials for Regulation of the Nitrogen Cycle

·         Biologically-based or Inspired Materials for Carbon Sequestration

·         Biocatalysis or biologically-inspired catalysis

 

 

Initiative Description: 

TBD

Other Supporting Documents: 

Commenting is closed.

Computation/Analysis/Big Data

Proposal Status: 
Principal Authors: 

SAF Work Group

Executive Summary: 

 

Broad Thematic Area of Computation/Analysis/Big Data

 

Alternative theme names

 

  • Computational and Data Science (preferred)
  • Data-Enabled Science and Engineering

 

Theme description

 

Computational and Data Science is the study of mathematical and statistical algorithms, prediction techniques, modeling methodologies, data collection, data analysis, and visualization to address the massive amounts of data now being generated through experiments and observations across all areas of engineering, sciences, and social sciences. This inherently interdisciplinary research theme is a crucial companion to all theoretical and experimental research. By addressing the need for developing next-generation computational models and methods to analyze data, Computational and Data Science research provides new predictive theories and refined experimental investigations. Computational and Data Science research is actively happening across the entire UC Merced campus. This Computational and Data Science research theme will link several research programs together and establish a cohesive, campus-wide signature of excellence that will gain national and international attention.

 

Initiative Description: 

TBD

Other Supporting Documents: 

Commenting is closed.

Entrepreneurship and Management

Proposal Status: 
Principal Authors: 

SAF Work Group

Executive Summary: 

 

 

Entrepreneurship and Management

 

Global challenges require global innovations that create broad social and economic opportunities. Properly and effectively addressing today’s global challenges requires one to establish a new understanding of the nature of business and value, an understanding that enables us to address at once socio-economic challenges, environmental challenges, and challenges related to the increasing pace of change, especially change that arises from new technology and the human behavior responding to that technology.  The University of California Merced is, in many ways, uniquely positioned to take on that challenge, in the context of a rigorous and focused program integrating concepts of entrepreneurship, innovation and management throughout the academic core of the institution.  UCM is uniquely positioned to create new and novel management and entrepreneurship programs at the graduate and undergraduate levels, and to lead in research and practice in areas of management relevant to the Central Valley, California, the US, and beyond.

 

The San Joaquin Valley directly faces many of the grand challenges seen in our society in general: air quality, clean water, access to clean energy, access to good healthcare, and socio-economic disparities fueled by the lack of jobs. It is increasingly clear that the solution to these challenges is found at the intersection of technical issues and societal and policy issues.  Research priorities should be set at these intersections. For example,

  • How can policies and incentives be exploited to increase technological innovation and its diffusion, advance efficient health delivery systems, reduce health disparities, improve environmental conditions, promote trade, improve the spatial organization of commerce and peoples, increase the efficiency of local and higher governance, promote regional growth and efficient adjustment to migration, reduce economic and social inequality, and improve efficiency in the organization   of retail, on-line and other markets?  
  • How can technology be used to meet contemporary business and policy challenges generally? More specifically, how can data analytics enable better management of natural resources?  
  • How can management of technology promote better access to healthcare?  
  • How can entrepreneurial activities promote job growth locally?  
  • How can better understanding of services yield better management of public services and public resources?  
  • How can sustainable business models help align value propositions across different interest group to help avoid conflict and create socio-economic and environmental change?  

 

It is increasingly clear that such complex questions can best be addressed in cross-functional environments, with the broader systems-approach aiding us in addressing new research questions, which in turn can inform practice.  Given UCM’s focus on strong interdisciplinary programs in such areas as sustainability and health, its high degree of emphasis in STEM fields, its strong sense of community and its nascent philanthropic support for providing management expertise, a focus on Entrepreneurship and Management is a key component in expanding our academic areas of emphasis.

 

 

 

 

Initiative Description: 

TBD

Other Supporting Documents: 

Commenting is closed.

Sustainability

Proposal Status: 
Principal Authors: 

SAF Work Group

 

Executive Summary: 

Sustainability

 

Human activities are driving unprecedented changes in Earth systems of climate, biosphere, hydrosphere, atmosphere and cryosphere, while depleting natural resources and creating social, economic and political impacts that demand long-term, multi-faceted solutions.  Such solutions will not come from the research efforts of a single discipline or paradigm.  Rather, successful efforts to develop environmentally sustainable systems for future societies will draw upon virtually all areas of the academy. Some of this work will be done by individual, single investigators as they ascertain the basic physical, chemical, biological or behavior mechanisms that underlie specific phenomena. Concomitantly, facile, interdisciplinary and transdisciplinary teams of humanists, social scientists, physical and biological scientists and engineers will be required to address the complex problems which human society faces if it is to exist in a sustainable way on this planet.

 

UC Merced will expand on its existing base of excellence in environmental sustainability by addressing specific areas of growth:

 

  1. the human condition and the environment
  2. sustainability and social dynamics
  3. sustainability science and engineering
  4. cognition, communication and sustainability
  5. renewable energy, energy efficiency, and smart building systems
  6. climate, atmosphere and the hydrosphere
  7. environment and health
  8. environmental sensors, sensing platforms and infomatics

 

 

Many of these themes are covered in the proposals titled “Sustainability: Energy, Climate and Communication” and “California Institute of Drone Engineering”.  There are also major components of sustainability in the “Components of Mechanical Technologies for Sustainability” and the Spatial Analysis and Research Center Proposals”.  However it is anticipated that virtually all areas of the academy can contribute to this broad thematic area if is of interest to current and future members of the faculty.

Initiative Description: 

TBD

Other Supporting Documents: 

Commenting is closed.

Community and Social Benefit

Proposal Status: 
Principal Authors: 

SAF Work Group

Executive Summary: 

Research for Community and Societal Benefit

The list below is a re-evaluation of the fit of the 9 proposals of the original theme, “Research for Community Benefit”. It is recommended that 3 themes would serve as better descriptors of the content of these proposals. In some cases, the 9 proposals were so divergent in focus, that aligning them together in content or goals was difficult.

Below is a proposed reclassification with theme descriptions.   At the end of each description, the leading factors/proposals are noted. The concept of a leading factor comes from factor analytic methods in statistics. Basically, the lead factor, in this context, is the proposal that seems to correlate most strongly with the theme and also encompasses the greatest number of other proposals under that theme.  The lead factor is not necessarily the best proposal. It is the proposal that seems to best represent the general theme, while the other proposals are correlated with the theme but are, perhaps, more specialized or less able to serve as an umbrella for the other proposals in that category.

Community, Culture, and Society

These proposals center around research on the human condition. While many proposals cross multiple domains of focus, all revolve around what it is to be human, live in groups, develop norms, and expressed behaviors-- be it on a large scale (e.g., societal, such as in anthropology, philosophy), smaller scale (e.g., community, as in community engagement, women specifically), in a historical context (e.g., studies in inequality, the arts), or in a more contemporary context (e.g., studies of diversity or gender roles today). The major leading factor/proposal would be Arts, Humanities and Anthropology.

A. Women, Gender, and Sexuality

B. Community Engaged Research

C. Diversity, Inequality and Representation

D. Applied Philosophy

E. Arts, Humanities and Anthropology

 

Health

While many of the 51 proposals are related to health issues, this category is specifically and directly tied to physical and psychological  health as it pertains to the individual, the local community, and society at-large. These proposals include aspects of laboratory (e.g., pathogens, microorganisms in the valley) and field research (e.g., health applications in the schools), epidemiology (e.g., public health trends in diverse communities and SES groups), and teaching/training on a broad range of topics, but all in some way dealing with human health, disease and treatment.  The major leading factor/proposal would be Human Health Sciences.

A. Promoting Healthy Development in Underserved Populations

B. Human Health Sciences

 

Engineering

Already in the original theme set. No description provided here. The major leading factors/proposals would be Electrical or Mechanical Engineering.

A. Center for Human Adaptive Systems and Environments

B. California Institute of Drone Engineering Research

Initiative Description: 

TBD

Other Supporting Documents: 

Commenting is closed.

College of the Anthropocene

Proposal Status: 
Principal Authors: 

Marilyn L. Fogel and colleagues in Life and Environmental Science

Executive Summary: 

See attached document.

Initiative Description: 

See attached document.

Commenting is closed.