P-Band Intermediate States Mediate Electron Transfer at Confined Nanoscale

13 June 2023, Version 1
This content is a preprint and has not undergone peer review at the time of posting.

Abstract

In this perspective article, mainly based on the model of structural water molecules (SWs) as bright color emitters, we briefly summarize the development and theoretical elaboration of P-band intermediate state (PBIS) theory and its application in catalysis, especially in several representative redox reactions. In particular, with a simple equation (2∫ψ2σ1’ + ∫ψ2σ2 + ∫ψ2π =1), we define how the interface sate correlate with the three basic parameters of heterogenous catalysis (conversion, selectivity and stability), and what is the dynamic nature of catalytic active sites. Overall, the proposal of SWs dominated PBIS theory provides new insights into the physical origin of photoluminescence emission of low-dimensional quantum nanodots and the physical nature of nanoconfinement and nanoconfined catalysis.

Keywords

P-band intermediate state
Interfacial water structure
Photoluminescence
Nano-confined catalysis
Confinement
Metal nanoclusters
Three-dimensional free electron gas model
Structural water molecules
Solid acid catalysts
zeolites

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