Wave-Packet Surface Propagation for Light-Induced Molecular Dissociation

Fuente: arXiv
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Autores principales: Pan, Shengzhe, Zhang, Zhaohan, Hu, Chenxi, Lu, Peifen, Gong, Xiaochun, Gong, Ruolin, Zhang, Wenbin, Zhou, Lianrong, Lu, Chenxu, Shi, Menghang, Jiang, Zhejun, Ni, Hongcheng, He, Feng, Wu, Jian
Formato: Preprint
Publicado: 2023
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author Pan, Shengzhe
Zhang, Zhaohan
Hu, Chenxi
Lu, Peifen
Gong, Xiaochun
Gong, Ruolin
Zhang, Wenbin
Zhou, Lianrong
Lu, Chenxu
Shi, Menghang
Jiang, Zhejun
Ni, Hongcheng
He, Feng
Wu, Jian
author_facet Pan, Shengzhe
Zhang, Zhaohan
Hu, Chenxi
Lu, Peifen
Gong, Xiaochun
Gong, Ruolin
Zhang, Wenbin
Zhou, Lianrong
Lu, Chenxu
Shi, Menghang
Jiang, Zhejun
Ni, Hongcheng
He, Feng
Wu, Jian
contents Recent advances in laser technology have enabled tremendous progress in photochemistry, at the heart of which is the breaking and formation of chemical bonds. Such progress has been greatly facilitated by the development of accurate quantum-mechanical simulation method, which, however, does not necessarily accompany clear dynamical scenarios and is rather often a black box, other than being computationally heavy. Here, we develop a wave-packet surface propagation (WASP) approach to describe the molecular bond-breaking dynamics from a hybrid quantum-classical perspective. Via the introduction of quantum elements including state transitions and phase accumulations to the Newtonian propagation of the nuclear wave-packet, the WASP approach naturally comes with intuitive physical scenarios and accuracies. It is carefully benchmarked with the H2+ molecule and is shown to be capable of precisely reproducing experimental observations. The WASP method is promising for the intuitive visualization of strong-field molecular dynamics and is straightforwardly extensible toward complex molecules.
format Preprint
id arxiv_https___arxiv_org_abs_2303_13991
institution arXiv
publishDate 2023
record_format arxiv
spellingShingle Wave-Packet Surface Propagation for Light-Induced Molecular Dissociation
Pan, Shengzhe
Zhang, Zhaohan
Hu, Chenxi
Lu, Peifen
Gong, Xiaochun
Gong, Ruolin
Zhang, Wenbin
Zhou, Lianrong
Lu, Chenxu
Shi, Menghang
Jiang, Zhejun
Ni, Hongcheng
He, Feng
Wu, Jian
Chemical Physics
Optics
Recent advances in laser technology have enabled tremendous progress in photochemistry, at the heart of which is the breaking and formation of chemical bonds. Such progress has been greatly facilitated by the development of accurate quantum-mechanical simulation method, which, however, does not necessarily accompany clear dynamical scenarios and is rather often a black box, other than being computationally heavy. Here, we develop a wave-packet surface propagation (WASP) approach to describe the molecular bond-breaking dynamics from a hybrid quantum-classical perspective. Via the introduction of quantum elements including state transitions and phase accumulations to the Newtonian propagation of the nuclear wave-packet, the WASP approach naturally comes with intuitive physical scenarios and accuracies. It is carefully benchmarked with the H2+ molecule and is shown to be capable of precisely reproducing experimental observations. The WASP method is promising for the intuitive visualization of strong-field molecular dynamics and is straightforwardly extensible toward complex molecules.
title Wave-Packet Surface Propagation for Light-Induced Molecular Dissociation
topic Chemical Physics
Optics
url https://arxiv.org/abs/2303.13991