Taipei / New York / Washington / DC / Berlin / Cambridge / /
Company
BP / Quantum / National Renewable Energy Laboratory / Oxford University Press / Earth / /
Country
Taiwan / Germany / Netherlands / France / United States / Finland / /
Currency
pence / / /
Facility
BioEnergy Science Center / National Renewable Energy Laboratory / /
IndustryTerm
high-resolution surface-wave imaging / online version / benchmark systems / potential energy surfaces / Online Material / rare gas atoms / collision-energy dependence / chemical reaction / gas-phase chemical kinetics / energy grid / molecular systems / lowest energy / energy / molecular energy transfer / xenon carrier gas / collision energy / seismic imaging / chemical processes / centrifugal kinetic energy operators / rotational energy transfer / energy level schemes / coupled model potential energy surfaces / energy splittings / /
Movie
September / /
Organization
U.S. Department of Energy / office of Biological / Royal Society of Chemistry / BioEnergy Science Center / office of Biological and Environmental Research / Institute for Molecules and Materials / American Association for the Advancement of Science / Genomic Science Program / Fritz-Haber-Institut / Organisation for Scientific Research / Oxford University / DOE office of Science / DOE Bioenergy Research Center / /
Person
C. E. Wyman / M. F. Davis / Nat / D. J. Johnson / H. Christian Schewe / R. H. Atalla / A. J. Ragauskas / J. Blokland / / /
Quantum-State Resolved Bimolecular Collisions of Velocity-Controlled OH with NO Radicals Moritz Kirste et al. Science 338, [removed]); DOI: [removed]science[removed]