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

Elsevier eBooks

Picosecond Kerr Gate

P. P. Ho

Published Jan 1, 1984• 3 citations
Publisher
DOI
10.1016/b978-0-12-049902-1.50017-7

Related papers

Satellite picosecond pulses investigated with an optical Kerr gate

Wen Jun Yu, R. R. Alfano

Optical and Quantum Electronics•May 1, 1974•7 citations

“Fast” optical Kerr gate with “slow” nonlinearity

Gediminas Jonušauskas, Roaldas A. Gadonas, C. Rullière

Optics Communications•Nov 1, 1994•11 citations

Femtosecond optical Kerr gate with double gate pulses: Simulation and experiment

Wenjiang Tan, Jun Ma, Jinhai Si +2 more

Optics & Laser Technology•Sep 13, 2021•7 citations

Picosecond response of a high−repetition−rate CS2 optical Kerr gate

Erich P. Ippen, Charles V. Shank

An optical Kerr gate is operated at high repetition rates using picosecond pulses from a mode−locked cw laser. A new mode of gate operation is demonstrated in which incremental transmission is linearly proportional to pump power. Direct temporal measurement of a 2.1−psec response time of the optical Kerr effect in CS2 is reported.

Applied Physics Letters•Feb 1, 1975•173 citations

Coherent Picosecond Interactions

A. Laubereau, W. Kaiser

Topics in current physics•Jan 1, 1980•4 citations

Ultrafast single-photon detection at high repetition rates based on optical Kerr gates under focusing

Abdul-Hamid Fattah, Assegid Mengistu Flatae, Amr Farrag +1 more

The ultrafast detection of single photons is currently restricted by the limited time resolution (a few picoseconds) of the available single-photon detectors. Optical gates offer a faster time resolution, but so far they have been applied mostly to ensembles of emitters. Here, we demonstrate through a semi-analytical model that the ultrafast time-resolved detection of single quantum emitters can be possible using an optical Kerr shutter at gigahertz rates under focused illumination. This technique provides sub-picosecond time resolution, while keeping a gate efficiency at around 85%. These findings lay the ground for future experimental investigations on the ultrafast dynamics of single quantum emitters, with implications for quantum nanophotonics and molecular physics.

arXiv:2010.06749•Optics Letters•Dec 21, 2020•10 citations
The ultrafast detection of single photons is currently restricted by the limited time resolution (a few picoseconds) of the available single-photon detectors. Optical gates offer a faster time resolution, but so far they have been applied mostly to ensembles of emitters. Here, we demonstrate through a semi-analytical model that the ultrafast time-resolved detection of single quantum emitters can be possible using an optical Kerr shutter at gigahertz rates under focused illumination. This technique provides sub-picosecond time resolution, while keeping a gate efficiency at around 85%. These findings lay the ground for future experimental investigations on the ultrafast dynamics of single quantum emitters, with implications for quantum nanophotonics and molecular physics.