Quantum optical coherence theory based on Feynman's path integral

Fuente: arXiv
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Autori principali: Liu, Jianbin, Zhou, Yu, Chen, Hui, Zheng, Huaibin, He, Yuchen, Li, Fuli, Xu, Zhuo
Natura: Preprint
Pubblicazione: 2024
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author Liu, Jianbin
Zhou, Yu
Chen, Hui
Zheng, Huaibin
He, Yuchen
Li, Fuli
Xu, Zhuo
author_facet Liu, Jianbin
Zhou, Yu
Chen, Hui
Zheng, Huaibin
He, Yuchen
Li, Fuli
Xu, Zhuo
contents Compared to classical optical coherence theory based on Maxwell's electromagnetic theory and Glauber's quantum optical coherence theory based on matrix mechanics formulation of quantum mechanics, quantum optical coherence theory based on Feynman's path integral formulation of quantum mechanics provides a novel tool to study optical coherence. It has the advantage of understanding the connection between mathematical calculations and physical interpretations better. Quantum optical coherence theory based on Feynman's path integral is introduced and reviewed in this paper. Based on the results of transient first-order interference of two independent light beams, it is predicted that the classical model for electric field of thermal light introduced by classical optical textbooks may not be accurate. The physics of two-photon bunching of thermal light and Hong-Ou-Mandel dip of entangled photon pairs is the same, which can be interpreted by constructive and destructive two-photon interference, respectively. Quantum optical coherence theory based on Feynman's path integral is helpful to understand the coherence properties of light, which may eventually lead us to the answer of the question: what is a photon?
format Preprint
id arxiv_https___arxiv_org_abs_2407_18478
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Quantum optical coherence theory based on Feynman's path integral
Liu, Jianbin
Zhou, Yu
Chen, Hui
Zheng, Huaibin
He, Yuchen
Li, Fuli
Xu, Zhuo
Quantum Physics
Compared to classical optical coherence theory based on Maxwell's electromagnetic theory and Glauber's quantum optical coherence theory based on matrix mechanics formulation of quantum mechanics, quantum optical coherence theory based on Feynman's path integral formulation of quantum mechanics provides a novel tool to study optical coherence. It has the advantage of understanding the connection between mathematical calculations and physical interpretations better. Quantum optical coherence theory based on Feynman's path integral is introduced and reviewed in this paper. Based on the results of transient first-order interference of two independent light beams, it is predicted that the classical model for electric field of thermal light introduced by classical optical textbooks may not be accurate. The physics of two-photon bunching of thermal light and Hong-Ou-Mandel dip of entangled photon pairs is the same, which can be interpreted by constructive and destructive two-photon interference, respectively. Quantum optical coherence theory based on Feynman's path integral is helpful to understand the coherence properties of light, which may eventually lead us to the answer of the question: what is a photon?
title Quantum optical coherence theory based on Feynman's path integral
topic Quantum Physics
url https://arxiv.org/abs/2407.18478