N. Riga

University of California, San Diego

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Joel L. Lebowitz

Rutgers Sexual and Reproductive Health and Rights

D. Shiffler

University of California, San Diego

V. L. Kantsyrev

University of Nevada, Reno

Amanda J. Cross

Monash University

A. W. Klemmer

University of Nevada, Reno

M Paul

University of California, San Diego

Sergey Gimelshein

Lubrizol Life Science Health (United States)

Jeremy D. Prager

University of Colorado Anschutz Medical Campus

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Н.М. Александров

Privolzhsky Research Medical University

S. S. Harilal

Pacific Northwest National Laboratory

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Lawrence Livermore National Laboratory

Imperial College London

United States Naval Research Laboratory

Sandia National Laboratories California

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University of Strathclyde

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2020 IEEE International Conference on Plasma Science (ICOPS) (2023)

Eun Kyung Choi N. Riga D. Shiffler K Jensen John Petillo

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10.1109/icops45740.2023.10481047

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A Theoretical Comparison of Quantum Mechanical Tunneling and Electromagnetic Wave Propagation Through a Barrier

2020 IEEE International Conference on Plasma Science (ICOPS) (2022)

N. Riga Rebecca Seviour Kevin L. Jensen Joel L. Lebowitz D. Shiffler

We present a theoretical study of the correspondence between quantum mechanics (QM) and electromagnetism (EM) using the transfer matrix approach (TMA). This analogy has been studied previously [1] , [2] , [3] ; here we adapt it to electromagnetic wave propagation through an isotropic metamaterial for comparison with quantum tunneling through a one-dimensional barrier. Wigner trajectory calculations for quantum mechanical tunneling have been developed previously [4] , [5] to present a method for modeling electron emission at an atomistic level and to allow for coupling to larger-scale particle-based simulations. To provide a means for computational verification and macroscopic experimental validation of these microscale simulations, we use the TMA to calculate both the QM and EM transmission and reflection coefficients, which enables direct comparison of the respective outputs.

Electromagnetism

Microscale chemistry

Macroscopic quantum phenomena

10.1109/icops45751.2022.9813100

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