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Main Authors: Huang, Cheng-ping, Wang, Yu-lin, Zhang, Yong
Format: Preprint
Published: 2019
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Online Access:https://arxiv.org/abs/1906.04361
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author Huang, Cheng-ping
Wang, Yu-lin
Zhang, Yong
author_facet Huang, Cheng-ping
Wang, Yu-lin
Zhang, Yong
contents The conventional linear polarizer only allows the electric component parallel to the polarizer axis to pass through whereas prohibits the vertical component. We propose that a specially-designed single-layer plasmonic polarizer can couple both parallel and vertical electric components to the transmission, thus breaking the classical law of Malus. A variety of anomalous polarization effects, such as the asymmetric polarization-angle dependence, enhanced polarization filtering with wide polarization angle, and tunable polarization rotation from 0o to 90o, can be resulted. To understand the effects, the generalized law of Malus,originating from the superposition principle, has been presented and analyzed. This provides a basis for studying the interference-type plasmonic polarizers, where the interference effect and polarization effect are combined together. The difference between the plasmonic and conventional polarizers is of both fundamental and practical interests.
format Preprint
id arxiv_https___arxiv_org_abs_1906_04361
institution arXiv
publishDate 2019
record_format arxiv
spellingShingle Interference-type plasmonic polarizers and generalized law of Malus
Huang, Cheng-ping
Wang, Yu-lin
Zhang, Yong
Optics
The conventional linear polarizer only allows the electric component parallel to the polarizer axis to pass through whereas prohibits the vertical component. We propose that a specially-designed single-layer plasmonic polarizer can couple both parallel and vertical electric components to the transmission, thus breaking the classical law of Malus. A variety of anomalous polarization effects, such as the asymmetric polarization-angle dependence, enhanced polarization filtering with wide polarization angle, and tunable polarization rotation from 0o to 90o, can be resulted. To understand the effects, the generalized law of Malus,originating from the superposition principle, has been presented and analyzed. This provides a basis for studying the interference-type plasmonic polarizers, where the interference effect and polarization effect are combined together. The difference between the plasmonic and conventional polarizers is of both fundamental and practical interests.
title Interference-type plasmonic polarizers and generalized law of Malus
topic Optics
url https://arxiv.org/abs/1906.04361