Abstract
Given a system M in a thermal bath we obtain a generalized detailed balance relation for the ratio \(r=\pi _\tau (K\rightarrow J)/\pi _\tau (J\rightarrow K)\) of the transition probabilities \(M:J\rightarrow K\) and \(M:K\rightarrow J\) in time \(\tau \). We assume an active bath, containing solute molecules in metastable states. These molecules may react with M and the transition \(J\rightarrow K\) occurs through different channels \(\alpha \) involving different reactions with the bath. We find that \(r=\sum p^\alpha r^\alpha \), where \(p^\alpha \) is the probability that channel \(\alpha \) occurs, and \(r^\alpha \) depends on the amount of heat (more precisely enthalpy) released to the bath in channel \(\alpha \).
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Acknowledgments
I thank the referees who pointed out to an incorrect derivation in an earlier version of the present article, and suggested a number of improvements. Their comments have led to a complete rewriting of Sect. 3 of the paper.
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Ruelle, D. A Generalized Detailed Balance Relation. J Stat Phys 164, 463–471 (2016). https://doi.org/10.1007/s10955-016-1564-2
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DOI: https://doi.org/10.1007/s10955-016-1564-2