The Scholarship Facilitation Fund program provides up to $2,000 to UConn faculty across all disciplines. The OVPR offers the competitive awards to promote, support, and enhance research, scholarship, and creative endeavors across UConn Storrs and regional campuses.
Four IMS faculty members were among the 67 faculty named as recipient of the award for Spring 2022:
MSE Assistant Professor Xueju “Sophie” Wang has been awarded the NSF Faculty Early Development Program CAREER Award for her proposal entitled “Mechanics of Active Polymers and Morphing structures: Determine the Role of Molecular Interactions and Stiffness Heterogeneity in Reversible Shape Morphing.” It is one of NSF’s most prestigious awards.
Wang’s NSF CAREER award will support her research on fundamental studies of the mechanics of innovative active polymers and morphing structures. Soft active polymers that can change their shapes and therefore functionalities upon exposure to external stimuli are promising for many applications, including soft robotics, artificial muscles and tissue repair. This research project aims to establish the missing correlations across the molecular, material and structural levels of novel active polymers for their rational design, manufacturing and applications, by using liquid crystal elastomers as a model material system.
“I am very grateful and honored to receive this prestigious award, and I look forward to working with my students to address challenges in innovative active polymers and to apply them in emerging fields like soft robotics,” Wang said.
Drs. Bryan Huey (IMS/MSE) and Lesley Frame (IMS/MSE) are recent recipients of the Department of Education (ED) Graduate Assistance in Areas of National Need (GAANN) grant.
Drs. Huey and Frame collaboratively applied for the award which provides fellowships, through academic departments and programs, to assist graduate students with excellent records who demonstrate financial need and plan to pursue the highest degree available in their course study at the institution in a field designated as an area of national need.
Their Careers in Advanced Materials Engineering Research and Academia (CAMERA) GAANN program will provide world-class educational, research, advising, and professional training experiences and opportunities, beyond MSE courses and laboratory research taught by established experts in a range of materials engineering specialties. They will utilize the funding to support five Ph.D. fellowships focusing on increasing the number of highly trained Ph.D. scholars from populations traditionally underrepresented in STEM.
Drs. Huey and Frame plan to provide primary and secondary faculty advisors for candidates selected for the fellowship. Each Fellow will earn credits through a novel ‘Academia Lab’ created by MSE in conjunction with the school of engineering and the UConn Center for Excellence in Teaching and Learning in order to incorporate instruction and workshops in educational pedagogy and practice, scientific writing and presenting, and mentorship skills.
The grant of ~$760K will be supplemented by funding from the School of Engineering, the Office of the Vice President for Research, the Office of the Provost, and The Graduate School.
The gas sulfur hexafluoride (SF6) has been keeping our electrical grid safe from dangerous arcing and explosions since its introduction to the public in the 1930s. Developed in a General Electric lab, sulfur hexafluoride is one of the most widely used insulation gases by electrical utility companies because of its reliability and safety, but remains relatively unknown by the general public.
Starting in the 1960s, as greenhouse gases and their effect on the environment became more widely known, sulfur hexafluoride has been identified as one of the largest causes of global warming. While most educational and legislative efforts have been focused on CO2, or carbon dioxide, emissions as a big offender, sulfur hexafluoride has flown under the radar despite its staggering global warming potential: 25,200 times that of carbon dioxide.
Because of that, University of Connecticut Electrical and Computer Engineering Professor Yang Cao has been selected to receive $2.7 million in funding over three years from the U.S. Department of Energy’s Advanced Research Projects Agency-Energy (ARPA-E) to develop a lifecycle management framework, with innovations in physics based aging modeling, aging byproducts fixation, and a low-cost, high-fidelity multi-gas leak sensor with GE Research, to help utilities make a smooth transition to a new, SF6– free electrical grid. Read the full UConn Today story.
Dr. Ying Li is one of eight UConn faculty members, and three IMS faculty members, to receive a National Science Foundation Career CAREER Award in 2021. Li will develop a machine learning model to better understand the properties of a promising sustainable material.To learn more about the award Visit UConn Today.
Dr. Luyi Sun is the recipient of a Spring 2016 Scholarship Facilitation Fund Award from the Office of the Vice President. for Research forPublication in Nature Communications, a Premium Open-access Journal for Maximum Impact. The Office of the Vice President for Research provides financial support up to $2,000 to faculty across all disciplines, on a competitive basis, to promote, support, and enhance the research, scholarship and creative endeavors of faculty at UConn. The Scholarship Facilitation Fund (SFF) is designed to assist faculty in the initiation, completion, or advancement of research projects, scholarly activities, creative works, or interdisciplinary initiatives that are critical to advancing the faculty member’s scholarship and/or creative works.
The CT Regenerative Medicine Research Fund Advisory Committee has awarded Dr. Kelly A. Burke (IMS/CBE) and Co-Investigator Anson W. K. Ma (IMS/CBE) a seed grant titled “Human intestine tissue model by 3D printing”. The grant will provide $200,000 for the research endeavor involving chemically modified silk proteins to be used for 3D printing, which will subsequently form stable hydrodels. These materials will be printed into intestine-like crypt structures and will incorporate cells from human intestine to improve understanding on how the geometry of the system alters the function of the cells. Dr. Burke is hopeful that “the data generated will not only advance our efforts in 3D printing soft materials, but will also enhance understanding of how cells interact and undergo repair processes in cultures with geometries that are more representative of the human intestine.” The applications of this research will be important to the study of intestine tissue models, which may be used to investigate disease progression and to develop therapeutics.
Anson Ma (Peter Morenus/UConn Photo)
Dr. Kelly A. Burke received her Ph.D. in Macromolecular Science and Engineering from Case Western Reserve University in 2010. In 2014, she joined UConn as an assistant professor in the Chemical and Biomolecular Engineering Department and is a member of the IMS Polymer Program. Her research interests include synthesis and structure-property relationships of multifunctional polymeric materials, stimuli responsive polymers and networks, natural and synthetic biomaterials, and the design and application of polymeric systems to modulate inflammation and promote healing.
Dr. Anson W. K. received his Ph.D. in chemical engineering from the University of Cambridge in 2009. He joined UConn in 2011 as an assistant professor in the Chemical and Biomolecular Engineering Department and the IMS Polymer Program. As Principal Investigator for the Complex Fluids Laboratory, his research centers on understanding the complex flow behavior (rheology) and processing of various complex fluids including foams, emulsions, nanoparticle suspensions, and biological fluids.
Dr. Douglas Adamson and Dr. Thomas Seery were awarded a NSF Grant of $200,000 for the project, “Unimolecular Micelles: Design, Synthesis, and Properties.” The grant was funded by the Macromolecular, Supramolecular and Nanochemistry Program of the Chemistry Division.
The project aims to synthesize and observe polymers that can create stable, single chain globules in solutions. Dr. Adamson says that “protein folds in such a way as to hide most of those insoluble amino acids while the leaving the water soluble ones near the surface.” The objective is to understand how artificial polymers can imitate the nanostructure forming abilities of proteins at a very fundamental level.
The formations of these accurately discrete structures are a continuous challenge for chemists. Adamson and Seery believe that the results of the project “will lead to applications such as robust artificial enzymes” and “plastic antibodies that function much like natural antibodies but avoid the need for biological source.” The morphology within these nanostructures can impact vast areas of technology such as medicines, electronics and biotechnology.
Now with the funding of NSF, Dr. Adamson and Dr. Seery are able to proceed in the process of exploring synthetic materials that may perform some of the functions of proteins. The project will also involve visits to local schools and will contribute to the training of undergraduate and graduate students.
Dr. Douglas H. Adamson received his B.S. degree at the University of Evansville, Indiana and his Ph.D. degree at University of Southern California. He joined the University of Connecticut in August 2008, becoming an Associate Professor in the Polymer Program at IMS with Chemistry as his home department. Dr. Adamson was appointed Director of the Polymer Program in July 2011.
Dr. Thomas Seery, Associate Professor of Chemistry, received his B.A. degree at Harvard University and his Ph. D. degree at University of Southern California. He joined the University of Connecticut in 1994. Dr. Seery’s research interests include studying polymer synthesis at surfaces and physical chemistry of polymers in solution.