Silicon-Based Optoelectronics Enhanced by Hybrid Plasmon Polaritons: Bridging Dielectric Photonics and Nanoplasmonics

Silicon-based optoelectronics large-scale integrated circuits have been of interest to the world in recent decades due to the need for higher complexity, larger link capacity, and lower cost. Surface plasmons are electromagnetic waves that propagate along the interface between a conductor and a diel...

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Autores principales:	Pengfei Sun, Pengfei Xu, Kejian Zhu, Zhiping Zhou
Formato:	article
Lenguaje:	EN
Publicado:	MDPI AG 2021
Materias:	silicon photonics silicon-based optoelectronics hybrid plasmon polaritons large-scale optoelectronic integrated circuits Applied optics. Photonics TA1501-1820
Acceso en línea:	https://doaj.org/article/0c6dbe3f72ef4a0ea0bd02d472be1355
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spelling	oai:doaj.org-article:0c6dbe3f72ef4a0ea0bd02d472be13552021-11-25T18:43:12ZSilicon-Based Optoelectronics Enhanced by Hybrid Plasmon Polaritons: Bridging Dielectric Photonics and Nanoplasmonics10.3390/photonics81104822304-6732https://doaj.org/article/0c6dbe3f72ef4a0ea0bd02d472be13552021-10-01T00:00:00Zhttps://www.mdpi.com/2304-6732/8/11/482https://doaj.org/toc/2304-6732Silicon-based optoelectronics large-scale integrated circuits have been of interest to the world in recent decades due to the need for higher complexity, larger link capacity, and lower cost. Surface plasmons are electromagnetic waves that propagate along the interface between a conductor and a dielectric, which can be confined several orders smaller than the wavelength in a vacuum and offers the potential for minimizing photonic circuits to the nanoscale. However, plasmonic waveguides are usually accompanied by substantial propagation loss because metals always exhibit significant resistive heating losses when interacting with light. Therefore, it is better to couple silicon-based optoelectronics and plasmonics and bridge the gap between micro-photonics and nanodevices, especially some nano-electronic devices. In this review, we discuss methods to enhance silicon-based optoelectronics by hybrid plasmon polaritons and summarize some recently reported designs. It is believed that by utilizing the strong light confinement of plasmonics, we can overcome the conventional diffraction limit of light and further improve the integration of optoelectronic circuits.Pengfei SunPengfei XuKejian ZhuZhiping ZhouMDPI AGarticlesilicon photonicssilicon-based optoelectronicshybrid plasmon polaritonslarge-scale optoelectronic integrated circuitsApplied optics. PhotonicsTA1501-1820ENPhotonics, Vol 8, Iss 482, p 482 (2021)
institution	DOAJ
collection	DOAJ
language	EN
topic	silicon photonics silicon-based optoelectronics hybrid plasmon polaritons large-scale optoelectronic integrated circuits Applied optics. Photonics TA1501-1820
spellingShingle	silicon photonics silicon-based optoelectronics hybrid plasmon polaritons large-scale optoelectronic integrated circuits Applied optics. Photonics TA1501-1820 Pengfei Sun Pengfei Xu Kejian Zhu Zhiping Zhou Silicon-Based Optoelectronics Enhanced by Hybrid Plasmon Polaritons: Bridging Dielectric Photonics and Nanoplasmonics
description	Silicon-based optoelectronics large-scale integrated circuits have been of interest to the world in recent decades due to the need for higher complexity, larger link capacity, and lower cost. Surface plasmons are electromagnetic waves that propagate along the interface between a conductor and a dielectric, which can be confined several orders smaller than the wavelength in a vacuum and offers the potential for minimizing photonic circuits to the nanoscale. However, plasmonic waveguides are usually accompanied by substantial propagation loss because metals always exhibit significant resistive heating losses when interacting with light. Therefore, it is better to couple silicon-based optoelectronics and plasmonics and bridge the gap between micro-photonics and nanodevices, especially some nano-electronic devices. In this review, we discuss methods to enhance silicon-based optoelectronics by hybrid plasmon polaritons and summarize some recently reported designs. It is believed that by utilizing the strong light confinement of plasmonics, we can overcome the conventional diffraction limit of light and further improve the integration of optoelectronic circuits.
format	article
author	Pengfei Sun Pengfei Xu Kejian Zhu Zhiping Zhou
author_facet	Pengfei Sun Pengfei Xu Kejian Zhu Zhiping Zhou
author_sort	Pengfei Sun
title	Silicon-Based Optoelectronics Enhanced by Hybrid Plasmon Polaritons: Bridging Dielectric Photonics and Nanoplasmonics
title_short	Silicon-Based Optoelectronics Enhanced by Hybrid Plasmon Polaritons: Bridging Dielectric Photonics and Nanoplasmonics
title_full	Silicon-Based Optoelectronics Enhanced by Hybrid Plasmon Polaritons: Bridging Dielectric Photonics and Nanoplasmonics
title_fullStr	Silicon-Based Optoelectronics Enhanced by Hybrid Plasmon Polaritons: Bridging Dielectric Photonics and Nanoplasmonics
title_full_unstemmed	Silicon-Based Optoelectronics Enhanced by Hybrid Plasmon Polaritons: Bridging Dielectric Photonics and Nanoplasmonics
title_sort	silicon-based optoelectronics enhanced by hybrid plasmon polaritons: bridging dielectric photonics and nanoplasmonics
publisher	MDPI AG
publishDate	2021
url	https://doaj.org/article/0c6dbe3f72ef4a0ea0bd02d472be1355
work_keys_str_mv	AT pengfeisun siliconbasedoptoelectronicsenhancedbyhybridplasmonpolaritonsbridgingdielectricphotonicsandnanoplasmonics AT pengfeixu siliconbasedoptoelectronicsenhancedbyhybridplasmonpolaritonsbridgingdielectricphotonicsandnanoplasmonics AT kejianzhu siliconbasedoptoelectronicsenhancedbyhybridplasmonpolaritonsbridgingdielectricphotonicsandnanoplasmonics AT zhipingzhou siliconbasedoptoelectronicsenhancedbyhybridplasmonpolaritonsbridgingdielectricphotonicsandnanoplasmonics
_version_	1718410755490971648

Silicon-Based Optoelectronics Enhanced by Hybrid Plasmon Polaritons: Bridging Dielectric Photonics and Nanoplasmonics

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