Dai Named ORNL’s Top Scientist by UT-Battelle
OAK RIDGE, Tenn., — Sheng Dai, professor at the Chemistry Department and researcher in the Chemical Sciences Division of the Department of Energy’s Oak Ridge National Laboratory, has earned the UT-Battelle Director’s Award for Outstanding Individual Accomplishment in Science and Technology. He was honored by ORNL Director Thom Mason for “world-class leadership in the synthesis and application of novel functional porous materials, nanomaterials and ionic liquids to energy-relevant problems.” Dai, who was also named this year’s distinguished scientist at UT-Battelle’s annual Awards Night, is an internationally recognized leader in the design, synthesis and application of mesoporous materials and ionic liquids to problems related to the nation’s energy challenges. Dai was cited for his innovative breakthroughs in advanced materials that can be applied toward technologies ranging from improved batteries for electric vehicles to catalytic systems for water purification. He leads his division’s nanomaterials chemistry group and is also a task co-leader for the catalysis research effort in the multiscale functionality group at the Center for Nanophase Materials Sciences. (http://www.ornl.gov/news)
Chemistry Graduate Students Rebecca Horton from
The other poster winner Costyl Njiojob, a native Cameroonian, was born in Nigeria (Plateau State) where he received elementary education. Njiojob then moved back to Cameroon with his family and completed high school there. In 1999, Njiojob entered the University of Buea to pursue Bachelor’s Degree in Chemistry. After graduation, he remained in the university and conducted a year of graduate research in Natural product chemistry. Njiojob joined
The Department of Energy recently awarded more than $1 million to a research project, “Imaging Lignin Degradation,” for a three-year period to a research team including 
Peng (Jacky) Chen, a graduate student in Dr. Janice Musfeldt’s research group has one paper accepted in Nano Letters, an ACS publication reporting on fundamental research in all branches of the theory and practice of nanoscience and nanotechnology.
The Camden group attended the International Conference on Raman Spectroscopy held at Boston, MA from August 8 to 13. During the conference, Dr. Camden presented a talk on Wavelength Scanned Surface Enhanced Hyper Raman Spectroscopy. Chris Bennett and Vighter Iberi both presented posters at the student poster session.
The goal of Vighter, Camden and Guiton’s project is to correlate the optical measurements of nanostructures generated by the surface plasmons using Resonant Rayleigh Scattering, with high resolution structural information obtained by using Scanning Transmission Electron Microscopy (STEM). This technique will also reveal the different localized surface plasmon modes in the nanostructure as well as the relationship between the optical surface plasmons and the plasmons generated from the inelastic scattering of the electron beam. The measurement of the surface plasmon excitations in a STEM is called Electron Energy Loss Spectroscopy (EELS)(abstract provided by Vighter, picture on the right).
Dean of the College of Arts and Science Bruce Bursten has been named to the American Chemical Society (ACS) fellows program. The program began in 2009 to recognize and honor ACS members for their outstanding achievements in and contributions to the science, the profession, and service to the society. Bursten, who was president of ACS in 2008, conducts research in inorganic chemistry, focusing on the correlation of theoretical and experimental electronic structural data with the bonding and reactivity patterns of metal-containing molecules. The 192 new ACS Fellows will be honored at the society’s fall national meeting in Boston later this month. Additional information about the program is available at
Michael Best, an assistant professor of organic chemistry, recently received a CAREER Award from the National Science Foundation. The award includes a 5-year, $580,000 grant to support his laboratory research on the molecular mechanisms by which proteins bind to lipids presented on the surfaces of cellular membranes. Such events control many biological processes and are aberrant in numerous disease states, including cancer. Better understanding of these interactions and the defects associated with them is important to determining the underlying causes of diseases.
Elements