Roadmap on metasurfaces

Tutkimustuotos: Lehtiartikkelivertaisarvioitu

Standard

Roadmap on metasurfaces. / Quevedo-Teruel, Oscar; Chen, Hongsheng; Diaz-Rubio, Ana; Gok, Gurkan; Grbic, Anthony; Minatti, Gabriele; Martini, Enrica; Maci, Stefano; Eleftheriades, George; Chen, Michael; Zheludev, Nikolay; Papasimakis, Nikitas; Choudhury, Sajid; Kudyshev, Zhaxylyk A.; Saha, Soham; Reddy, Harsha; Boltasseva, Alexandra; Shalaev, Vladimir M.; Kildishev, Alexander; Sievenpiper, Daniel; Caloz, Christophe; Alu, Andrea; He, Qiong; Zhou, Lei; Valerio, Guido; Rajo-Iglesias, Eva; Sipus, Zvonimir; Mesa, Francisco; Rodriguez-Berral, Raul; Medina, Francisco; Asadchy, Victor; Tretyakov, Sergei; Craeye, Christophe.

julkaisussa: Journal of Optics, Vuosikerta 21, Nro 7, 073002, 07.2019.

Tutkimustuotos: Lehtiartikkelivertaisarvioitu

Harvard

Quevedo-Teruel, O, Chen, H, Diaz-Rubio, A, Gok, G, Grbic, A, Minatti, G, Martini, E, Maci, S, Eleftheriades, G, Chen, M, Zheludev, N, Papasimakis, N, Choudhury, S, Kudyshev, ZA, Saha, S, Reddy, H, Boltasseva, A, Shalaev, VM, Kildishev, A, Sievenpiper, D, Caloz, C, Alu, A, He, Q, Zhou, L, Valerio, G, Rajo-Iglesias, E, Sipus, Z, Mesa, F, Rodriguez-Berral, R, Medina, F, Asadchy, V, Tretyakov, S & Craeye, C 2019, 'Roadmap on metasurfaces', Journal of Optics, Vuosikerta. 21, Nro 7, 073002. https://doi.org/10.1088/2040-8986/ab161d

APA

Quevedo-Teruel, O., Chen, H., Diaz-Rubio, A., Gok, G., Grbic, A., Minatti, G., ... Craeye, C. (2019). Roadmap on metasurfaces. Journal of Optics, 21(7), [073002]. https://doi.org/10.1088/2040-8986/ab161d

Vancouver

Quevedo-Teruel O, Chen H, Diaz-Rubio A, Gok G, Grbic A, Minatti G et al. Roadmap on metasurfaces. Journal of Optics. 2019 heinä;21(7). 073002. https://doi.org/10.1088/2040-8986/ab161d

Author

Quevedo-Teruel, Oscar ; Chen, Hongsheng ; Diaz-Rubio, Ana ; Gok, Gurkan ; Grbic, Anthony ; Minatti, Gabriele ; Martini, Enrica ; Maci, Stefano ; Eleftheriades, George ; Chen, Michael ; Zheludev, Nikolay ; Papasimakis, Nikitas ; Choudhury, Sajid ; Kudyshev, Zhaxylyk A. ; Saha, Soham ; Reddy, Harsha ; Boltasseva, Alexandra ; Shalaev, Vladimir M. ; Kildishev, Alexander ; Sievenpiper, Daniel ; Caloz, Christophe ; Alu, Andrea ; He, Qiong ; Zhou, Lei ; Valerio, Guido ; Rajo-Iglesias, Eva ; Sipus, Zvonimir ; Mesa, Francisco ; Rodriguez-Berral, Raul ; Medina, Francisco ; Asadchy, Victor ; Tretyakov, Sergei ; Craeye, Christophe. / Roadmap on metasurfaces. Julkaisussa: Journal of Optics. 2019 ; Vuosikerta 21, Nro 7.

Bibtex - Lataa

@article{c8a5d6f00ddd471d98c28bf513c67225,
title = "Roadmap on metasurfaces",
abstract = "Metasurfaces are thin two-dimensional metamaterial layers that allow or inhibit the propagation of electromagnetic waves in desired directions. For example, metasurfaces have been demonstrated to produce unusual scattering properties of incident plane waves or to guide and modulate surface waves to obtain desired radiation properties. These properties have been employed, for example, to create innovative wireless receivers and transmitters. In addition, metasurfaces have recently been proposed to confine electromagnetic waves, thereby avoiding undesired leakage of energy and increasing the overall efficiency of electromagnetic instruments and devices. The main advantages of metasurfaces with respect to the existing conventional technology include their low cost, low level of absorption in comparison with bulky metamaterials, and easy integration due to their thin profile. Due to these advantages, they are promising candidates for real-world solutions to overcome the challenges posed by the next generation of transmitters and receivers of future high-rate communication systems that require highly precise and efficient antennas, sensors, active components, filters, and integrated technologies. This Roadmap is aimed at binding together the experiences of prominent researchers in the field of metasurfaces, from which explanations for the physics behind the extraordinary properties of these structures shall be provided from viewpoints of diverse theoretical backgrounds. Other goals of this endeavour are to underline the advantages and limitations of metasurfaces, as well as to lay out guidelines for their use in present and future electromagnetic devices.This Roadmap is divided into five sections:1. Metasurface based antennas. In the last few years, metasurfaces have shown possibilities for advanced manipulations of electromagnetic waves, opening new frontiers in the design of antennas. In this section, the authors explain how metasurfaces can be employed to tailor the radiation properties of antennas, their remarkable advantages in comparison with conventional antennas, and the future challenges to be solved.2. Optical metasurfaces. Although many of the present demonstrators operate in the microwave regime, due either to the reduced cost of manufacturing and testing or to satisfy the interest of the communications or aerospace industries, part of the potential use of metasurfaces is found in the optical regime. In this section, the authors summarize the classical applications and explain new possibilities for optical metasurfaces, such as the generation of superoscillatory fields and energy harvesters.3. Reconfigurable and active metasurfaces. Dynamic metasurfaces are promising new platforms for 5G communications, remote sensing and radar applications. By the insertion of active elements, metasurfaces can break the fundamental limitations of passive and static systems. In this section, we have contributions that describe the challenges and potential uses of active components in metasurfaces, including new studies on non-Foster, parity-time symmetric, and non-reciprocal metasurfaces.4. Metasurfaces with higher symmetries. Recent studies have demonstrated that the properties of metasurfaces are influenced by the symmetries of their constituent elements. Therefore, by controlling the properties of these constitutive elements and their arrangement, one can control the way in which the waves interact with the metasurface. In this section, the authors analyze the possibilities of combining more than one layer of metasurface, creating a higher symmetry, increasing the operational bandwidth of flat lenses, or producing cost-effective electromagnetic bandgaps.5. Numerical and analytical modelling of metasurfaces. In most occasions, metasurfaces are electrically large objects, which cannot be simulated with conventional software. Modelling tools that allow the engineering of the metasurface properties to get the desired response are essential in the design of practical electromagnetic devices. This section includes the recent advances and future challenges in three groups of techniques that are broadly used to analyze and synthesize metasurfaces: circuit models, analytical solutions and computational methods.",
keywords = "metasurfaces, two-dimensional metamaterials, antennas, high-rate communications, GAP WAVE-GUIDE, FREQUENCY-SELECTIVE SURFACES, EXPERIMENTAL VALIDATION, ELECTROMAGNETIC-FIELDS, IRREVERSIBLE-PROCESSES, REFRACTORY PLASMONICS, RECIPROCAL RELATIONS, EFFICIENT ANALYSIS, BROAD-BAND, ANTENNA",
author = "Oscar Quevedo-Teruel and Hongsheng Chen and Ana Diaz-Rubio and Gurkan Gok and Anthony Grbic and Gabriele Minatti and Enrica Martini and Stefano Maci and George Eleftheriades and Michael Chen and Nikolay Zheludev and Nikitas Papasimakis and Sajid Choudhury and Kudyshev, {Zhaxylyk A.} and Soham Saha and Harsha Reddy and Alexandra Boltasseva and Shalaev, {Vladimir M.} and Alexander Kildishev and Daniel Sievenpiper and Christophe Caloz and Andrea Alu and Qiong He and Lei Zhou and Guido Valerio and Eva Rajo-Iglesias and Zvonimir Sipus and Francisco Mesa and Raul Rodriguez-Berral and Francisco Medina and Victor Asadchy and Sergei Tretyakov and Christophe Craeye",
year = "2019",
month = "7",
doi = "10.1088/2040-8986/ab161d",
language = "English",
volume = "21",
journal = "Journal of Optics",
issn = "2040-8978",
number = "7",

}

RIS - Lataa

TY - JOUR

T1 - Roadmap on metasurfaces

AU - Quevedo-Teruel, Oscar

AU - Chen, Hongsheng

AU - Diaz-Rubio, Ana

AU - Gok, Gurkan

AU - Grbic, Anthony

AU - Minatti, Gabriele

AU - Martini, Enrica

AU - Maci, Stefano

AU - Eleftheriades, George

AU - Chen, Michael

AU - Zheludev, Nikolay

AU - Papasimakis, Nikitas

AU - Choudhury, Sajid

AU - Kudyshev, Zhaxylyk A.

AU - Saha, Soham

AU - Reddy, Harsha

AU - Boltasseva, Alexandra

AU - Shalaev, Vladimir M.

AU - Kildishev, Alexander

AU - Sievenpiper, Daniel

AU - Caloz, Christophe

AU - Alu, Andrea

AU - He, Qiong

AU - Zhou, Lei

AU - Valerio, Guido

AU - Rajo-Iglesias, Eva

AU - Sipus, Zvonimir

AU - Mesa, Francisco

AU - Rodriguez-Berral, Raul

AU - Medina, Francisco

AU - Asadchy, Victor

AU - Tretyakov, Sergei

AU - Craeye, Christophe

PY - 2019/7

Y1 - 2019/7

N2 - Metasurfaces are thin two-dimensional metamaterial layers that allow or inhibit the propagation of electromagnetic waves in desired directions. For example, metasurfaces have been demonstrated to produce unusual scattering properties of incident plane waves or to guide and modulate surface waves to obtain desired radiation properties. These properties have been employed, for example, to create innovative wireless receivers and transmitters. In addition, metasurfaces have recently been proposed to confine electromagnetic waves, thereby avoiding undesired leakage of energy and increasing the overall efficiency of electromagnetic instruments and devices. The main advantages of metasurfaces with respect to the existing conventional technology include their low cost, low level of absorption in comparison with bulky metamaterials, and easy integration due to their thin profile. Due to these advantages, they are promising candidates for real-world solutions to overcome the challenges posed by the next generation of transmitters and receivers of future high-rate communication systems that require highly precise and efficient antennas, sensors, active components, filters, and integrated technologies. This Roadmap is aimed at binding together the experiences of prominent researchers in the field of metasurfaces, from which explanations for the physics behind the extraordinary properties of these structures shall be provided from viewpoints of diverse theoretical backgrounds. Other goals of this endeavour are to underline the advantages and limitations of metasurfaces, as well as to lay out guidelines for their use in present and future electromagnetic devices.This Roadmap is divided into five sections:1. Metasurface based antennas. In the last few years, metasurfaces have shown possibilities for advanced manipulations of electromagnetic waves, opening new frontiers in the design of antennas. In this section, the authors explain how metasurfaces can be employed to tailor the radiation properties of antennas, their remarkable advantages in comparison with conventional antennas, and the future challenges to be solved.2. Optical metasurfaces. Although many of the present demonstrators operate in the microwave regime, due either to the reduced cost of manufacturing and testing or to satisfy the interest of the communications or aerospace industries, part of the potential use of metasurfaces is found in the optical regime. In this section, the authors summarize the classical applications and explain new possibilities for optical metasurfaces, such as the generation of superoscillatory fields and energy harvesters.3. Reconfigurable and active metasurfaces. Dynamic metasurfaces are promising new platforms for 5G communications, remote sensing and radar applications. By the insertion of active elements, metasurfaces can break the fundamental limitations of passive and static systems. In this section, we have contributions that describe the challenges and potential uses of active components in metasurfaces, including new studies on non-Foster, parity-time symmetric, and non-reciprocal metasurfaces.4. Metasurfaces with higher symmetries. Recent studies have demonstrated that the properties of metasurfaces are influenced by the symmetries of their constituent elements. Therefore, by controlling the properties of these constitutive elements and their arrangement, one can control the way in which the waves interact with the metasurface. In this section, the authors analyze the possibilities of combining more than one layer of metasurface, creating a higher symmetry, increasing the operational bandwidth of flat lenses, or producing cost-effective electromagnetic bandgaps.5. Numerical and analytical modelling of metasurfaces. In most occasions, metasurfaces are electrically large objects, which cannot be simulated with conventional software. Modelling tools that allow the engineering of the metasurface properties to get the desired response are essential in the design of practical electromagnetic devices. This section includes the recent advances and future challenges in three groups of techniques that are broadly used to analyze and synthesize metasurfaces: circuit models, analytical solutions and computational methods.

AB - Metasurfaces are thin two-dimensional metamaterial layers that allow or inhibit the propagation of electromagnetic waves in desired directions. For example, metasurfaces have been demonstrated to produce unusual scattering properties of incident plane waves or to guide and modulate surface waves to obtain desired radiation properties. These properties have been employed, for example, to create innovative wireless receivers and transmitters. In addition, metasurfaces have recently been proposed to confine electromagnetic waves, thereby avoiding undesired leakage of energy and increasing the overall efficiency of electromagnetic instruments and devices. The main advantages of metasurfaces with respect to the existing conventional technology include their low cost, low level of absorption in comparison with bulky metamaterials, and easy integration due to their thin profile. Due to these advantages, they are promising candidates for real-world solutions to overcome the challenges posed by the next generation of transmitters and receivers of future high-rate communication systems that require highly precise and efficient antennas, sensors, active components, filters, and integrated technologies. This Roadmap is aimed at binding together the experiences of prominent researchers in the field of metasurfaces, from which explanations for the physics behind the extraordinary properties of these structures shall be provided from viewpoints of diverse theoretical backgrounds. Other goals of this endeavour are to underline the advantages and limitations of metasurfaces, as well as to lay out guidelines for their use in present and future electromagnetic devices.This Roadmap is divided into five sections:1. Metasurface based antennas. In the last few years, metasurfaces have shown possibilities for advanced manipulations of electromagnetic waves, opening new frontiers in the design of antennas. In this section, the authors explain how metasurfaces can be employed to tailor the radiation properties of antennas, their remarkable advantages in comparison with conventional antennas, and the future challenges to be solved.2. Optical metasurfaces. Although many of the present demonstrators operate in the microwave regime, due either to the reduced cost of manufacturing and testing or to satisfy the interest of the communications or aerospace industries, part of the potential use of metasurfaces is found in the optical regime. In this section, the authors summarize the classical applications and explain new possibilities for optical metasurfaces, such as the generation of superoscillatory fields and energy harvesters.3. Reconfigurable and active metasurfaces. Dynamic metasurfaces are promising new platforms for 5G communications, remote sensing and radar applications. By the insertion of active elements, metasurfaces can break the fundamental limitations of passive and static systems. In this section, we have contributions that describe the challenges and potential uses of active components in metasurfaces, including new studies on non-Foster, parity-time symmetric, and non-reciprocal metasurfaces.4. Metasurfaces with higher symmetries. Recent studies have demonstrated that the properties of metasurfaces are influenced by the symmetries of their constituent elements. Therefore, by controlling the properties of these constitutive elements and their arrangement, one can control the way in which the waves interact with the metasurface. In this section, the authors analyze the possibilities of combining more than one layer of metasurface, creating a higher symmetry, increasing the operational bandwidth of flat lenses, or producing cost-effective electromagnetic bandgaps.5. Numerical and analytical modelling of metasurfaces. In most occasions, metasurfaces are electrically large objects, which cannot be simulated with conventional software. Modelling tools that allow the engineering of the metasurface properties to get the desired response are essential in the design of practical electromagnetic devices. This section includes the recent advances and future challenges in three groups of techniques that are broadly used to analyze and synthesize metasurfaces: circuit models, analytical solutions and computational methods.

KW - metasurfaces

KW - two-dimensional metamaterials

KW - antennas

KW - high-rate communications

KW - GAP WAVE-GUIDE

KW - FREQUENCY-SELECTIVE SURFACES

KW - EXPERIMENTAL VALIDATION

KW - ELECTROMAGNETIC-FIELDS

KW - IRREVERSIBLE-PROCESSES

KW - REFRACTORY PLASMONICS

KW - RECIPROCAL RELATIONS

KW - EFFICIENT ANALYSIS

KW - BROAD-BAND

KW - ANTENNA

U2 - 10.1088/2040-8986/ab161d

DO - 10.1088/2040-8986/ab161d

M3 - Review Article

VL - 21

JO - Journal of Optics

JF - Journal of Optics

SN - 2040-8978

IS - 7

M1 - 073002

ER -

ID: 36337747