Category: Keyes, Tom
We were pleased to announce the Department of Chemistry student award winners for the 2017-2018 academic year at the Orientation BBQ. For those who may have missed it, here are the award winners.
Sugata Ray Memorial Award for International Students: Nathchar Naowarojna (Liu Lab)
This award was established by the Ray family in memory of their son, Sugata Ray, a former graduate student in the Chemistry Department, to recognize an international Ph.D. candidate each year who excels in his or her graduate studies. Research, academic performance, teaching, and service contributions to the Department are all considered in selection of the awardee.
Professor Liu writes, “Can has demonstrated her potential to thrive in the academic environment and greatly contribute to the field of natural product biosynthesis and enzymology. Her skills and knowledge in research, and dedication to mentorship make her an exceptionally qualified nominee.” She has authored or contributed to an impressive number of publications, and demonstrates an extraordinary commitment to undergraduate mentoring through her teaching assignments and undergraduate research supervising.
Lichtin Award for Research: David Stelter (Keyes)
This award was established in honor of Norman Lichtin, a distinguished research scientist and former Chair of the Chemistry Department. The award recognizes students that are distinguished by their exceptional contributions to chemical research in their doctoral studies.
Professor Keyes writes, “David is a wonderful student, one of my best ever. Despite having to teach almost full time he has achieved significant research results, and never lost his enthusiasm, while also being a joy to have as a TF.” David is first author on two papers, contributed to two more, and has a large body of results to write up and exciting work in progress.
Feldman Award: Lindsey Walker (Elliott Lab)
The Feldman Fund was established by the Feldman family to memorialize Julius Feldman, who served for many years as Associate Chairman of the Chemistry Department and who took a special interest in the welfare of graduate students. The Feldman Award recognizes outstanding accomplishments in research, teaching or service.
Lindsey is a fifth year student in the Elliott Lab who has not only made significant and impressive research contributions but is a great communicator of science, and stands out as an excellent leader.
Professor Elliott writes, “Lindsey is a sharp, devoted, creative and highly driven student, who is well on her way to being a successful scientific leader. She is a talented researcher who is motivated by a concern for the environment, and a desire to use electrochemistry as a functional tool to improve society. She is a wonderful student, and I am very lucky to have her in my lab.”
Departmental Award for Outstanding Graduate Student Research: Lauren Viarengo (Whitty Lab)
Professor Whitty writes, “Lauren has a strong intellect and is exceptionally diligent and conscientious in everything she does. Lauren is also highly sought after as a Teaching Fellow, being very conscientious and having excellent interpersonal and communication skills. But what really sets her apart is her fearlessness in taking on new research challenges, and her exceptional drive. I believe she serves as an example of everything we look for in our very best graduate students, and is an ideal candidate for a graduate student award to recognize her extraordinary capabilities and efforts.”
Congratulations to all of our award winners!
Gas hydrates – ice with small molecules trapped in cages – are important for the energy sector because they store natural gas and carbon dioxide, block gas pipelines with an enormous cost impact, and hold potential for hydrogen storage and water purification. In a 3-year, $500K award, the Department of Energy has funded Prof. Tom Keyes to uncover the mechanism, or pathway, of gas hydrate formation. The pathway is a complex sequence of steps involving solvation, association, nucleation, growth, and a first-order-like transition, with a free energy barrier and unstable regime of thermodynamic states. Consequently, the theory of hydrate formation is in an early stage, and computer simulations using conventional algorithms have been hampered by the rarity of rate-limiting visits to the barrier.