APS Fellowship
APS Fellows Nominated by DBP
Bruschweiler, Rafael [2008]
Florida State University
Citation: For fundamental contributions to methodology and applications of nuclear magnetic resonance spectroscopy in combination with novel computational approaches for the dynamic characterization of proteins in solution.
Florida State University
Citation: For fundamental contributions to methodology and applications of nuclear magnetic resonance spectroscopy in combination with novel computational approaches for the dynamic characterization of proteins in solution.
Forgacs, Gabor [2008]
University of Missouri
Citation: For his original contributions to the elucidation of physical mechanisms in early morphogenesis, intracellular signaling, establishment of the technology of organ printing, as well as for his synergistic and educational activity to bridge the gap between the physical and life sciences.
University of Missouri
Citation: For his original contributions to the elucidation of physical mechanisms in early morphogenesis, intracellular signaling, establishment of the technology of organ printing, as well as for his synergistic and educational activity to bridge the gap between the physical and life sciences.
Hwa, Terence [2008]
University of California, San Diego
Citation: For fundamental investigations into the statistical physics underlying molecular biology, especially including transcriptional regulation.
University of California, San Diego
Citation: For fundamental investigations into the statistical physics underlying molecular biology, especially including transcriptional regulation.
Othmer, Hans [2008]
University of Minnesota
Citation: For fundamental contributions to the mathematical modeling of spatio-temporal phenomena in biology, leading to the development of new mathematics and yielding important insights into biology.
University of Minnesota
Citation: For fundamental contributions to the mathematical modeling of spatio-temporal phenomena in biology, leading to the development of new mathematics and yielding important insights into biology.
Pande, Vijay [2008]
Stanford University
Citation: For far-reaching contributions to the quantitative distributed simulation, analysis, and understanding of kinetics and thermodynamics of biomolecular conformations and interactions, especially in the areas of protein folding and the role of water in confined environments.
Stanford University
Citation: For far-reaching contributions to the quantitative distributed simulation, analysis, and understanding of kinetics and thermodynamics of biomolecular conformations and interactions, especially in the areas of protein folding and the role of water in confined environments.
Xie, Sunney [2008]
Harvard University
Citation: Sunney (Xiaoliang) Xie is a pioneer in single-molecule biophysics and live cell optical imaging. Technically innovative, his work created new knowledge about enzymatic dynamics, and gene expression in living cells. He also developed Coherent Anti-Stokes Raman Scattering microscopy, a highly sensitive vibrational imaging tool for biomedicine.
Harvard University
Citation: Sunney (Xiaoliang) Xie is a pioneer in single-molecule biophysics and live cell optical imaging. Technically innovative, his work created new knowledge about enzymatic dynamics, and gene expression in living cells. He also developed Coherent Anti-Stokes Raman Scattering microscopy, a highly sensitive vibrational imaging tool for biomedicine.
Zasadzinski, Joseph A. [2008]
University of California, Santa Barbara
Citation: For applying physical principles of self-assembly, directed assembly and bio-mimicry to create well-controlled lipid structures such as unilamellar vesicles and "vesosomes" for biomedical applications such as targeted drug-delivery vehicles and treatments for respiratory diseases, and for developing new microscopies for characterizing their microstructure, molecular organization and interactions.
University of California, Santa Barbara
Citation: For applying physical principles of self-assembly, directed assembly and bio-mimicry to create well-controlled lipid structures such as unilamellar vesicles and "vesosomes" for biomedical applications such as targeted drug-delivery vehicles and treatments for respiratory diseases, and for developing new microscopies for characterizing their microstructure, molecular organization and interactions.
