Electronic transport driven by collective light-matter coupled states in a quantum device

In the majority of optoelectronic devices, emission and absorption of light are considered as perturbative phenomena. Recently, a regime of highly non-perturbative interaction, ultra-strong light-matter coupling, has attracted considerable attention, as it has led to changes in the fundamental prope...

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Vydáno v:Nature communications Ročník 14; číslo 1; s. 3914 - 8
Hlavní autoři: Pisani, Francesco, Gacemi, Djamal, Vasanelli, Angela, Li, Lianhe, Davies, Alexander Giles, Linfield, Edmund, Sirtori, Carlo, Todorov, Yanko
Médium: Journal Article
Jazyk:angličtina
Vydáno: London Nature Publishing Group UK 03.07.2023
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Témata:
142/126
147/135
639/301/1005/1007
639/624/400/2797
639/624/400/482
639/925/927/1021
Chemical reactions
Coupling
Electrical conductivity
Electrical resistivity
Electromagnetic absorption
Electron transitions
Electron transport
Electronic properties
Humanities and Social Sciences
Infrared detectors
Light
Material properties
multidisciplinary
Optics
Optimization
Optoelectronic devices
Photons
Physics
Polaritons
Quantum theory
Science
Science (multidisciplinary)
ISSN:2041-1723, 2041-1723
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Abstract In the majority of optoelectronic devices, emission and absorption of light are considered as perturbative phenomena. Recently, a regime of highly non-perturbative interaction, ultra-strong light-matter coupling, has attracted considerable attention, as it has led to changes in the fundamental properties of materials such as electrical conductivity, rate of chemical reactions, topological order, and non-linear susceptibility. Here, we explore a quantum infrared detector operating in the ultra-strong light-matter coupling regime driven by collective electronic excitations, where the renormalized polariton states are strongly detuned from the bare electronic transitions. Our experiments are corroborated by microscopic quantum theory that solves the problem of calculating the fermionic transport in the presence of strong collective electronic effects. These findings open a new way of conceiving optoelectronic devices based on the coherent interaction between electrons and photons allowing, for example, the optimization of quantum cascade detectors operating in the regime of strongly non-perturbative coupling with light. Here the authors investigate the electronic transport in microcavity-coupled quantum detector with strong collective electronic resonances. Their findings present a way to optimize photodetectors operating in the ultra-strong light-matter coupling regime.
AbstractList Abstract In the majority of optoelectronic devices, emission and absorption of light are considered as perturbative phenomena. Recently, a regime of highly non-perturbative interaction, ultra-strong light-matter coupling, has attracted considerable attention, as it has led to changes in the fundamental properties of materials such as electrical conductivity, rate of chemical reactions, topological order, and non-linear susceptibility. Here, we explore a quantum infrared detector operating in the ultra-strong light-matter coupling regime driven by collective electronic excitations, where the renormalized polariton states are strongly detuned from the bare electronic transitions. Our experiments are corroborated by microscopic quantum theory that solves the problem of calculating the fermionic transport in the presence of strong collective electronic effects. These findings open a new way of conceiving optoelectronic devices based on the coherent interaction between electrons and photons allowing, for example, the optimization of quantum cascade detectors operating in the regime of strongly non-perturbative coupling with light.
In the majority of optoelectronic devices, emission and absorption of light are considered as perturbative phenomena. Recently, a regime of highly non-perturbative interaction, ultra-strong light-matter coupling, has attracted considerable attention, as it has led to changes in the fundamental properties of materials such as electrical conductivity, rate of chemical reactions, topological order, and non-linear susceptibility. Here, we explore a quantum infrared detector operating in the ultra-strong light-matter coupling regime driven by collective electronic excitations, where the renormalized polariton states are strongly detuned from the bare electronic transitions. Our experiments are corroborated by microscopic quantum theory that solves the problem of calculating the fermionic transport in the presence of strong collective electronic effects. These findings open a new way of conceiving optoelectronic devices based on the coherent interaction between electrons and photons allowing, for example, the optimization of quantum cascade detectors operating in the regime of strongly non-perturbative coupling with light.
In the majority of optoelectronic devices, emission and absorption of light are considered as perturbative phenomena. Recently, a regime of highly non-perturbative interaction, ultra-strong light-matter coupling, has attracted considerable attention, as it has led to changes in the fundamental properties of materials such as electrical conductivity, rate of chemical reactions, topological order, and non-linear susceptibility. Here, we explore a quantum infrared detector operating in the ultra-strong light-matter coupling regime driven by collective electronic excitations, where the renormalized polariton states are strongly detuned from the bare electronic transitions. Our experiments are corroborated by microscopic quantum theory that solves the problem of calculating the fermionic transport in the presence of strong collective electronic effects. These findings open a new way of conceiving optoelectronic devices based on the coherent interaction between electrons and photons allowing, for example, the optimization of quantum cascade detectors operating in the regime of strongly non-perturbative coupling with light.Here the authors investigate the electronic transport in microcavity-coupled quantum detector with strong collective electronic resonances. Their findings present a way to optimize photodetectors operating in the ultra-strong light-matter coupling regime.
In the majority of optoelectronic devices, emission and absorption of light are considered as perturbative phenomena. Recently, a regime of highly non-perturbative interaction, ultra-strong light-matter coupling, has attracted considerable attention, as it has led to changes in the fundamental properties of materials such as electrical conductivity, rate of chemical reactions, topological order, and non-linear susceptibility. Here, we explore a quantum infrared detector operating in the ultra-strong light-matter coupling regime driven by collective electronic excitations, where the renormalized polariton states are strongly detuned from the bare electronic transitions. Our experiments are corroborated by microscopic quantum theory that solves the problem of calculating the fermionic transport in the presence of strong collective electronic effects. These findings open a new way of conceiving optoelectronic devices based on the coherent interaction between electrons and photons allowing, for example, the optimization of quantum cascade detectors operating in the regime of strongly non-perturbative coupling with light.In the majority of optoelectronic devices, emission and absorption of light are considered as perturbative phenomena. Recently, a regime of highly non-perturbative interaction, ultra-strong light-matter coupling, has attracted considerable attention, as it has led to changes in the fundamental properties of materials such as electrical conductivity, rate of chemical reactions, topological order, and non-linear susceptibility. Here, we explore a quantum infrared detector operating in the ultra-strong light-matter coupling regime driven by collective electronic excitations, where the renormalized polariton states are strongly detuned from the bare electronic transitions. Our experiments are corroborated by microscopic quantum theory that solves the problem of calculating the fermionic transport in the presence of strong collective electronic effects. These findings open a new way of conceiving optoelectronic devices based on the coherent interaction between electrons and photons allowing, for example, the optimization of quantum cascade detectors operating in the regime of strongly non-perturbative coupling with light.
In the majority of optoelectronic devices, emission and absorption of light are considered as perturbative phenomena. Recently, a regime of highly non-perturbative interaction, ultra-strong light-matter coupling, has attracted considerable attention, as it has led to changes in the fundamental properties of materials such as electrical conductivity, rate of chemical reactions, topological order, and non-linear susceptibility. Here, we explore a quantum infrared detector operating in the ultra-strong light-matter coupling regime driven by collective electronic excitations, where the renormalized polariton states are strongly detuned from the bare electronic transitions. Our experiments are corroborated by microscopic quantum theory that solves the problem of calculating the fermionic transport in the presence of strong collective electronic effects. These findings open a new way of conceiving optoelectronic devices based on the coherent interaction between electrons and photons allowing, for example, the optimization of quantum cascade detectors operating in the regime of strongly non-perturbative coupling with light. Here the authors investigate the electronic transport in microcavity-coupled quantum detector with strong collective electronic resonances. Their findings present a way to optimize photodetectors operating in the ultra-strong light-matter coupling regime.
ArticleNumber 3914
Author Linfield, Edmund
Todorov, Yanko
Pisani, Francesco
Li, Lianhe
Davies, Alexander Giles
Gacemi, Djamal
Vasanelli, Angela
Sirtori, Carlo
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  organization: Laboratoire de Physique de l’Ecole Normale Supérieure, ENS, Paris Sciences et Lettres, CNRS, Université de Paris
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AnapparaAASignatures of the ultrastrong light-matter coupling regimePhys. Rev. B2009792013032009PhRvB..79t1303A10.1103/PhysRevB.79.201303
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VigneronPBQuantum well infrared photo-detectors operating in the strong light-matter coupling regimeAppl. Phys. Lett.20191141311042019ApPhL.114m1104V10.1063/1.5084112
BayerATerahertz light–matter interaction beyond unity coupling strengthNano Lett.201717634063442017NanoL..17.6340B1:CAS:528:DC%2BC2sXhsFelsbvK10.1021/acs.nanolett.7b0310328937772
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JouyPIntersubband electroluminescent devices operating in the strong-coupling regimePhys. Rev. B2010820453222010PhRvB..82d5322J10.1103/PhysRevB.82.045322
NiemczykTCircuit quantum electrodynamics in the ultrastrong-coupling regimeNat. Phys.201067727761:CAS:528:DC%2BC3cXht1ehtbvM10.1038/nphys1730
ThomasATilting a ground-state reactivity landscape by vibrational strong couplingScience20193636156192019Sci...363..615T1:CAS:528:DC%2BC1MXisFyjsb0%3D10.1126/science.aau774230733414
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Unterrainer, K. Photon-assisted tunneling in semiconductor quantum structures. In Semiconductors and Semimetals vol. 66 127–186 (Elsevier, 1999).
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TodorovYOptical properties of metal-dielectric-metal microcavities in the THz frequency rangeOpt. Express20101813886139072010OExpr..1813886T1:CAS:528:DC%2BC3cXot1enu78%3D10.1364/OE.18.01388620588522
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A Thomas (39594_CR15) 2019; 363
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A Bayer (39594_CR44) 2017; 17
RF Kazarinov (39594_CR35) 1971; 5
T Ando (39594_CR7) 1982; 54
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C Ciuti (39594_CR12) 2005; 72
E Orgiu (39594_CR13) 2015; 14
F Herrera (39594_CR16) 2016; 116
C Ciuti (39594_CR26) 2006; 74
39594_CR27
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Snippet In the majority of optoelectronic devices, emission and absorption of light are considered as perturbative phenomena. Recently, a regime of highly...
Abstract In the majority of optoelectronic devices, emission and absorption of light are considered as perturbative phenomena. Recently, a regime of highly...
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SubjectTerms 142/126
147/135
639/301/1005/1007
639/624/400/2797
639/624/400/482
639/925/927/1021
Chemical reactions
Coupling
Electrical conductivity
Electrical resistivity
Electromagnetic absorption
Electron transitions
Electron transport
Electronic properties
Humanities and Social Sciences
Infrared detectors
Light
Material properties
multidisciplinary
Optics
Optimization
Optoelectronic devices
Photons
Physics
Polaritons
Quantum theory
Science
Science (multidisciplinary)
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Title Electronic transport driven by collective light-matter coupled states in a quantum device
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