Engineering Epsilon‐Near‐Zero Media with Waveguides
Epsilon‐Near‐Zero (ENZ) media have attracted widespread interest due to their unique electromagnetic properties, which have brought distinctive characteristics and phenomena, such as spatiotemporal decoupling, supercoupling and tunneling, constant phase transmission, near‐field enhancement, and so o...
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| Published in | Advanced Physics Research Vol. 3; no. 9 |
|---|---|
| Main Authors | , , , , , |
| Format | Journal Article |
| Language | English |
| Published |
Edinburgh
John Wiley & Sons, Inc
01.09.2024
Wiley-VCH |
| Subjects | |
| Online Access | Get full text |
| ISSN | 2751-1200 2751-1200 |
| DOI | 10.1002/apxr.202400070 |
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| Abstract | Epsilon‐Near‐Zero (ENZ) media have attracted widespread interest due to their unique electromagnetic properties, which have brought distinctive characteristics and phenomena, such as spatiotemporal decoupling, supercoupling and tunneling, constant phase transmission, near‐field enhancement, and so on. However, these ENZ characteristics are existed in natural plasmonic materials at their intrinsic plasma frequencies and accompanied by significant losses, thus limiting their applications in engineering. Different from the effect ENZ media with artificially periodic structures, the waveguide ENZ media offers a promising platform with non‐periodic architectures. Unlike the natural plasmonic materials and the periodic‐structured ENZ media, the waveguide ENZ media utilizes waveguide dispersion to achieve effective ENZ characteristics and phenomena with lower loss and smaller dimensions. This review begins with an exploration of the fundamental properties of the waveguide ENZ media and then introduces the design principles of different ENZ‐based electromagnetic devices. Finally, the review concludes with the challenges and potential development directions encountered by the ENZ media in the realm of electromagnetic applications.
Waveguide Epsilon‐Near‐Zero (ENZ) media provide a promising platform characterized by non‐periodic architectures with lower loss and smaller dimensions. This review begins by exploring the fundamental properties of waveguide ENZ dielectrics. Following this, the design principles of various ENZ‐based electromagnetic devices are discussed. Finally, the review presents a range of engineering applications of waveguide ENZ media, categorized into three distinct classifications. |
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| AbstractList | Epsilon‐Near‐Zero (ENZ) media have attracted widespread interest due to their unique electromagnetic properties, which have brought distinctive characteristics and phenomena, such as spatiotemporal decoupling, supercoupling and tunneling, constant phase transmission, near‐field enhancement, and so on. However, these ENZ characteristics are existed in natural plasmonic materials at their intrinsic plasma frequencies and accompanied by significant losses, thus limiting their applications in engineering. Different from the effect ENZ media with artificially periodic structures, the waveguide ENZ media offers a promising platform with non‐periodic architectures. Unlike the natural plasmonic materials and the periodic‐structured ENZ media, the waveguide ENZ media utilizes waveguide dispersion to achieve effective ENZ characteristics and phenomena with lower loss and smaller dimensions. This review begins with an exploration of the fundamental properties of the waveguide ENZ media and then introduces the design principles of different ENZ‐based electromagnetic devices. Finally, the review concludes with the challenges and potential development directions encountered by the ENZ media in the realm of electromagnetic applications. Epsilon‐Near‐Zero (ENZ) media have attracted widespread interest due to their unique electromagnetic properties, which have brought distinctive characteristics and phenomena, such as spatiotemporal decoupling, supercoupling and tunneling, constant phase transmission, near‐field enhancement, and so on. However, these ENZ characteristics are existed in natural plasmonic materials at their intrinsic plasma frequencies and accompanied by significant losses, thus limiting their applications in engineering. Different from the effect ENZ media with artificially periodic structures, the waveguide ENZ media offers a promising platform with non‐periodic architectures. Unlike the natural plasmonic materials and the periodic‐structured ENZ media, the waveguide ENZ media utilizes waveguide dispersion to achieve effective ENZ characteristics and phenomena with lower loss and smaller dimensions. This review begins with an exploration of the fundamental properties of the waveguide ENZ media and then introduces the design principles of different ENZ‐based electromagnetic devices. Finally, the review concludes with the challenges and potential development directions encountered by the ENZ media in the realm of electromagnetic applications. Waveguide Epsilon‐Near‐Zero (ENZ) media provide a promising platform characterized by non‐periodic architectures with lower loss and smaller dimensions. This review begins by exploring the fundamental properties of waveguide ENZ dielectrics. Following this, the design principles of various ENZ‐based electromagnetic devices are discussed. Finally, the review presents a range of engineering applications of waveguide ENZ media, categorized into three distinct classifications. Abstract Epsilon‐Near‐Zero (ENZ) media have attracted widespread interest due to their unique electromagnetic properties, which have brought distinctive characteristics and phenomena, such as spatiotemporal decoupling, supercoupling and tunneling, constant phase transmission, near‐field enhancement, and so on. However, these ENZ characteristics are existed in natural plasmonic materials at their intrinsic plasma frequencies and accompanied by significant losses, thus limiting their applications in engineering. Different from the effect ENZ media with artificially periodic structures, the waveguide ENZ media offers a promising platform with non‐periodic architectures. Unlike the natural plasmonic materials and the periodic‐structured ENZ media, the waveguide ENZ media utilizes waveguide dispersion to achieve effective ENZ characteristics and phenomena with lower loss and smaller dimensions. This review begins with an exploration of the fundamental properties of the waveguide ENZ media and then introduces the design principles of different ENZ‐based electromagnetic devices. Finally, the review concludes with the challenges and potential development directions encountered by the ENZ media in the realm of electromagnetic applications. |
| Author | Fu, Pengyu Wang, Shuyu Li, Yue Li, Peihang Zhang, Yongjian Yan, Wendi |
| Author_xml | – sequence: 1 givenname: Peihang surname: Li fullname: Li, Peihang organization: Tsinghua University – sequence: 2 givenname: Wendi surname: Yan fullname: Yan, Wendi organization: Tsinghua University – sequence: 3 givenname: Shuyu surname: Wang fullname: Wang, Shuyu organization: Tsinghua University – sequence: 4 givenname: Pengyu surname: Fu fullname: Fu, Pengyu organization: Tsinghua University – sequence: 5 givenname: Yongjian surname: Zhang fullname: Zhang, Yongjian organization: Tsinghua University – sequence: 6 givenname: Yue orcidid: 0000-0001-9562-3136 surname: Li fullname: Li, Yue email: lyee@tsinghua.edu.cn organization: Beijing National Research Center for Information Science and Technology |
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| Snippet | Epsilon‐Near‐Zero (ENZ) media have attracted widespread interest due to their unique electromagnetic properties, which have brought distinctive characteristics... Abstract Epsilon‐Near‐Zero (ENZ) media have attracted widespread interest due to their unique electromagnetic properties, which have brought distinctive... |
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| SubjectTerms | Boundary conditions Decoupling Design Electromagnetic properties Electromagnetism Engineering ENZ Flexibility metamaterial Periodic structures Physical properties Plasma Plasma frequencies Plasmonics Propagation waveguide dispersion waveguide effective ENZ Waveguides |
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| Title | Engineering Epsilon‐Near‐Zero Media with Waveguides |
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