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Spin properties and optical transitions of the CO2 defect in silicon for quantum technology applications

Physics

Spin properties and optical transitions of the CO2 defect in silicon for quantum technology applications

P. Udvarhelyi

This research by P. Udvarhelyi delves into the intriguing CO2 defect in silicon, revealing its potential as a single-photon source and a promising platform for quantum computing, thanks to groundbreaking insights on spin interactions and optical transitions.

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Playback language: English
Abstract
This paper investigates the CO2 defect in silicon (C-center) for quantum technology applications. The authors calculated the electronic structure, spin interactions, and optical transitions of the defect using density functional theory (DFT) and other computational methods. Key findings include the determination of zero-phonon line (ZPL) energy, spin-spin and spin-orbit coupling parameters, and hyperfine interaction values. The results suggest the C-center as a promising single-photon source and potential platform for quantum computing, enabled by optical readout of the spin state in its triplet excited state.
Publisher
npj Computational Materials
Published On
Jan 31, 2022
Authors
P. Udvarhelyi
Tags
CO2 defect
silicon
quantum technology
single-photon source
density functional theory
spin interactions
optical transitions
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