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Superbunching in cathodoluminescence: A master equation approach

NAOKI YAMAMOTO, Takumi Sannomiya

Published Apr 1, 2023• 0 citations
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Superbunching in cathodoluminescence: A master equation approach

Tatsuro Yuge, Naoki Yamamoto, Takumi Sannomiya +1 more

We propose a theoretical model of a master equation for cathodoluminescence (CL). The master equation describes simultaneous excitation of multiple emitters by an incoming electron and radiative decay of individual emitters. We investigate the normalized second-order correlation function, ${g}^{(2)}(\ensuremath{\tau})$, of this model. We derive the exact formula for the zero-time delay correlation, ${g}^{(2)}(0)$, and show that the model successfully describes giant bunching (superbunching) in the CL. We also derive an approximate form of ${g}^{(2)}(\ensuremath{\tau})$, which is valid for small excitation rate. Furthermore, we discuss the state of the radiation field of the CL. We reveal that the superbunching results from a mixture of an excited photon state and the vacuum state and that this type of state is realized in the CL.

arXiv:2206.00933•Physical review. B./Physical review. B•Apr 6, 2023•12 citations
We propose a theoretical model of a master equation for cathodoluminescence (CL). The master equation describes simultaneous excitation of multiple emitters by an incoming electron and radiative decay of individual emitters. We investigate the normalized second-order correlation function, ${g}^{(2)}(\ensuremath{\tau})$, of this model. We derive the exact formula for the zero-time delay correlation, g(2)(0){g}^{(2)}(0)g(2)(0), and show that the model successfully describes giant bunching (superbunching) in the CL. We also derive an approximate form of ${g}^{(2)}(\ensuremath{\tau})$, which is valid for small excitation rate. Furthermore, we discuss the state of the radiation field of the CL. We reveal that the superbunching results from a mixture of an excited photon state and the vacuum state and that this type of state is realized in the CL.