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Charge separation in liquids

机译:液体中的电荷分离

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摘要

The common theory of reversible charge transfer (RCT) at low donor system excitation power in liquids is examined. The space averaging procedures describing the kinetics of RCT in the liquid space are discussed. The reaction space is presented as a totality of independent subgroups with one excited donor and some group of acceptors effectively interacting only with the donor in the given subgroup. We have shown that the theory [3-5] gives questionable results for cation state probability for the usual parameters of this problem. If the acceptor concentration or the charge transfer rate constants are low, then the cation state probability behaves the same in the two theories [3-5] and [7, 8]. The correct account of the donors ground state change and charge back transfer in the RCT theory gives the new, not contradictory results, different from the behavior of the results in references [3-5], but near to results of [7, 8]. The molecules motion accelerates the ionization of donors and neutralization of ions. The influence of the motion of neutral and ionized molecules on charge transfer kinetics is different. The Coulomb interaction of ions is taken into account; the effect depends on the space averaging method used. The new approximation in this article in comparison with references [3-6,9] consists in the space averaging procedure of the donor cation state probability, which takes into account the donors ground state.
机译:研究了液体中低供体系统激发功率下的可逆电荷转移(RCT)的通用理论。讨论了描述液体空间中RCT动力学的空间平均程序。反应空间表示为一组独立的亚群,其中一个激发的供体和一组受体仅与给定亚群中的供体有效相互作用。我们已经表明,理论[3-5]对于该问题的常规参数给出的阳离子状态概率的结果令人怀疑。如果受体浓度或电荷转移速率常数较低,则阳离子状态概率在两种理论[3-5]和[7,8]中表现相同。在RCT理论中正确地解释了供体的基态变化和电荷转移,可以得出新的,没有矛盾的结果,与参考文献[3-5]中的结果不同,但接近[7,8]的结果。 。分子运动加速了给体的电离和离子的中和。中性和离子化分子的运动对电荷转移动力学的影响是不同的。考虑了离子的库仑相互作用;效果取决于所使用的空间平均方法。与参考文献[3-6,9]相比,本文中的新近似值包括施主阳离子状态概率的空间平均过程,该过程考虑了施主基态。

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