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Reaction product imaging : the H + D2 reaction

The differential cross section for the H + D(2) --> HD + D reaction has been measured using a technique called reaction product imaging. In this experiment, a photolytically produced beam of hydrogen (H) atoms crossed a beam of cold deuterium (D(2)) molecules. Product D atoms were ionized at the...

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Published in:Science (American Association for the Advancement of Science) 1993-06, Vol.260 (5114), p.1605-1610
Main Authors: KITSOPOULOS, T. N, BUNTINE, M. A, BALDWIN, D. P, ZARE, R. N, CHANDLER, D. W
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Language:English
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container_issue 5114
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container_title Science (American Association for the Advancement of Science)
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creator KITSOPOULOS, T. N
BUNTINE, M. A
BALDWIN, D. P
ZARE, R. N
CHANDLER, D. W
description The differential cross section for the H + D(2) --> HD + D reaction has been measured using a technique called reaction product imaging. In this experiment, a photolytically produced beam of hydrogen (H) atoms crossed a beam of cold deuterium (D(2)) molecules. Product D atoms were ionized at the intersection of the two particle beams and accelerated toward a position-sensitive detector. The ion images appearing on the detector are two-dimensional projections of the three-dimensional velocity distribution of the D atom products. The reaction was studied at nominal center-of-mass collision energies of 0.54 and 1.29 electron volts. At the lower collision energy, the measured differential cross section for D atom production, summed over all final states of the HD(v,J) product, is in good agreement with recent quasi-classical trajectory calculations. At the higher collision energy, the agreement between the theoretical predictions and experimental results is less favorable.
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source American Association for the Advancement of Science; Social Science Premium Collection; Education Collection
subjects Atomic and molecular collision processes and interactions
Atomic and molecular physics
Chemical reactions
Exact sciences and technology
Physics
Scattering of atoms, molecules and ions
title Reaction product imaging : the H + D2 reaction
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