Quantum defects by design

Optically active point defects in wide-bandgap crystals are leading building blocks for quantum information technologies including quantum processors, repeaters, simulators, and sensors. Although defects and impurities are ubiquitous in all materials, select defect configurations in certain material...

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Published inNanophotonics (Berlin, Germany) Vol. 8; no. 11; pp. 1867 - 1888
Main Authors Bassett, Lee C., Alkauskas, Audrius, Exarhos, Annemarie L., Fu, Kai-Mei C.
Format Journal Article
LanguageEnglish
Published Berlin De Gruyter 04.10.2019
Walter de Gruyter GmbH
Subjects
Crystal defects
Design defects
inverse engineering
materials discovery
Materials selection
NV center
Optical activity
photonics
Point defects
quantum emitters
quantum information processing
Quantum phenomena
quantum sensing
Repeaters
Room temperature
semiconductors
Simulators
Solid state devices
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Abstract Optically active point defects in wide-bandgap crystals are leading building blocks for quantum information technologies including quantum processors, repeaters, simulators, and sensors. Although defects and impurities are ubiquitous in all materials, select defect configurations in certain materials harbor coherent electronic and nuclear quantum states that can be optically and electronically addressed in solid-state devices, in some cases even at room temperature. Historically, the study of quantum point defects has been limited to a relatively small set of host materials and defect systems. In this article, we consider the potential for identifying defects in new materials, either to advance known applications in quantum science or to enable entirely new capabilities. We propose that, in principle, it should be possible to reverse the historical approach, which is partially based on accidental discovery, in order to quantum defects with desired properties suitable for specific applications. We discuss the biggest obstacles on the road towards this goal, in particular those related to theoretical prediction, materials growth and processing, and experimental characterization.
AbstractList Optically active point defects in wide-bandgap crystals are leading building blocks for quantum information technologies including quantum processors, repeaters, simulators, and sensors. Although defects and impurities are ubiquitous in all materials, select defect configurations in certain materials harbor coherent electronic and nuclear quantum states that can be optically and electronically addressed in solid-state devices, in some cases even at room temperature. Historically, the study of quantum point defects has been limited to a relatively small set of host materials and defect systems. In this article, we consider the potential for identifying defects in new materials, either to advance known applications in quantum science or to enable entirely new capabilities. We propose that, in principle, it should be possible to reverse the historical approach, which is partially based on accidental discovery, in order to design quantum defects with desired properties suitable for specific applications. We discuss the biggest obstacles on the road towards this goal, in particular those related to theoretical prediction, materials growth and processing, and experimental characterization.
Optically active point defects in wide-bandgap crystals are leading building blocks for quantum information technologies including quantum processors, repeaters, simulators, and sensors. Although defects and impurities are ubiquitous in all materials, select defect configurations in certain materials harbor coherent electronic and nuclear quantum states that can be optically and electronically addressed in solid-state devices, in some cases even at room temperature. Historically, the study of quantum point defects has been limited to a relatively small set of host materials and defect systems. In this article, we consider the potential for identifying defects in new materials, either to advance known applications in quantum science or to enable entirely new capabilities. We propose that, in principle, it should be possible to reverse the historical approach, which is partially based on accidental discovery, in order to design quantum defects with desired properties suitable for specific applications. We discuss the biggest obstacles on the road towards this goal, in particular those related to theoretical prediction, materials growth and processing, and experimental characterization.
Optically active point defects in wide-bandgap crystals are leading building blocks for quantum information technologies including quantum processors, repeaters, simulators, and sensors. Although defects and impurities are ubiquitous in all materials, select defect configurations in certain materials harbor coherent electronic and nuclear quantum states that can be optically and electronically addressed in solid-state devices, in some cases even at room temperature. Historically, the study of quantum point defects has been limited to a relatively small set of host materials and defect systems. In this article, we consider the potential for identifying defects in new materials, either to advance known applications in quantum science or to enable entirely new capabilities. We propose that, in principle, it should be possible to reverse the historical approach, which is partially based on accidental discovery, in order to quantum defects with desired properties suitable for specific applications. We discuss the biggest obstacles on the road towards this goal, in particular those related to theoretical prediction, materials growth and processing, and experimental characterization.
Author Bassett, Lee C.
Alkauskas, Audrius
Fu, Kai-Mei C.
Exarhos, Annemarie L.
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  surname: Alkauskas
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  surname: Exarhos
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  organization: Department of Physics, Lafayette College, Easton, PA 18042, USA
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  givenname: Kai-Mei C.
  orcidid: 0000-0003-4775-8524
  surname: Fu
  fullname: Fu, Kai-Mei C.
  organization: Department of Physics and Department of Electrical and Computer Engineering, University of Washington, Seattle, WA 98195, USA
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Snippet Optically active point defects in wide-bandgap crystals are leading building blocks for quantum information technologies including quantum processors,...
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SubjectTerms Crystal defects
Design defects
inverse engineering
materials discovery
Materials selection
NV center
Optical activity
photonics
Point defects
quantum emitters
quantum information processing
Quantum phenomena
quantum sensing
Repeaters
Room temperature
semiconductors
Simulators
Solid state devices
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Title Quantum defects by design
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