## Abstract A derivation of hydrodynamic equations which describe diffusion in connection with reaction processes in manyβparticle systems is given on the basis of quantum kinetic theory. For this purpose kinetic equations are derived for a quantum gas with chemical reactions. Following Grad's meth
Many-particle effects in kinetics of bimolecular diffusion-controlled reactions
β Scribed by E. Kotomin; V. Kuzovkov
- Publisher
- Elsevier Science
- Year
- 1985
- Tongue
- English
- Weight
- 399 KB
- Volume
- 117
- Category
- Article
- ISSN
- 0009-2614
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β¦ Synopsis
S~~~YIUI~ from the generalized theory of blmolwlar diffusion-controlled reactiorus betwatn reagents in soli& and liquids, we have performed calculations of Lhe A+B * AB (F'renkel defecL anmhilalion) and A+A + B (exciton annihdation) reaction kinetics over a wide time interval and for high initial concentrations The prtdickd lowering at long times of the reaction rate in Lhc course of the A+B -D AB reaction and acceleration at short times of the A+A +B reaction due to dynamical aggregation of similar non-interacting reagenls are demonstrated_ The posubility of experimental checks of these effecLs IS
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