Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

Journal of Luminescence

Dynamics of S3 luminescence in diamond

Estela Pereira, Lucíla Santos

Published Jan 1, 1990• 11 citations
Publisher
DOI
10.1016/0022-2313(90)90221-v

Related papers

Lifetime and quantum efficiency of luminescence due to indirect excitons in a diamond

Atsuhiro Fujii, Ken Takiyama, R. MAKI +1 more

Journal of Luminescence•Dec 1, 2001•27 citations

Laser-induced luminescence of xenon implanted natural diamond

V.A. Martinovich, A.A. Gorokhovsky

Journal of Luminescence•Mar 3, 2004•6 citations

Instantaneous luminescence of NV− center in diamond pumped by a femtosecond laser pulse

Alexander Savvin, E. S. Andrianov, Evgenii Tereshchenkov +6 more

Journal of Luminescence•Apr 14, 2025•0 citations

Quantitative luminescence microscopy on Nitrogen-Vacancy Centres in diamond: Saturation effects under pulsed excitation

Robert Chapman, Taras Plakhotnik

Chemical Physics Letters•Apr 1, 2011•48 citations

Anti-stokes luminescence of the NV-center in diamond from a 785 nm pump beam

S. J. Potashnik, John H. Barkyoumb, Ross S. Fontenot +2 more

Bulletin of the American Physical Society•May 29, 2019•0 citations

Luminescent Diamond: A Platform for Next Generation Nanoscale Optically Driven Quantum Sensors

Nicholas A. Nunn, Alexander I. Shames, Marco D. Torelli +2 more

Luminescent diamond of technological importance primarily originates from synthetic material as opposed to natural diamond. Detonation synthesis is an ideal method for bottom-up synthesis of nanoscale particulate diamond at large scale; it is unfortunately not currently suitable for the production of luminescent diamond hosting optical centers. Electron beam irradiation is a widely used approach for introducing vacancies in diamond particles. Optical centers in diamond are exceptional candidates for next generation solid-state quantum sensors. Techniques to produce synthetic diamond can be grouped into two broad categories: static synthesis and dynamic synthesis. High pressure high temperature synthesis attempts to mimic the growth conditions of natural diamonds formed deep within the Earth’s mantle. Chemical vapor deposition diamond is produced via plasma assisted growth on a heated substrate at either atmospheric or, reduced pressure using a gas phase carbon precursor in hydrogen. Quantum sensing enabled by optical centers in diamond primarily relies on magnetic interactions associated with the optical center and their surrounding environments.

•Mar 4, 2022•8 citations
Luminescent diamond of technological importance primarily originates from synthetic material as opposed to natural diamond. Detonation synthesis is an ideal method for bottom-up synthesis of nanoscale particulate diamond at large scale; it is unfortunately not currently suitable for the production of luminescent diamond hosting optical centers. Electron beam irradiation is a widely used approach for introducing vacancies in diamond particles. Optical centers in diamond are exceptional candidates for next generation solid-state quantum sensors. Techniques to produce synthetic diamond can be grouped into two broad categories: static synthesis and dynamic synthesis. High pressure high temperature synthesis attempts to mimic the growth conditions of natural diamonds formed deep within the Earth’s mantle. Chemical vapor deposition diamond is produced via plasma assisted growth on a heated substrate at either atmospheric or, reduced pressure using a gas phase carbon precursor in hydrogen. Quantum sensing enabled by optical centers in diamond primarily relies on magnetic interactions associated with the optical center and their surrounding environments.