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

Experimental methods in the physical sciences

Four-Wave Mixing in Single-Mode Optical Fibers

Alex R. McMillan, Yu-Ping Huang, Bryn A. Bell, Alex S. Clark, Prem Kumar, John Rarity

Published Jan 1, 2013• 14 citations
Publisher
DOI
10.1016/b978-0-12-387695-9.00012-3

Related papers

Light signal amplification using the nonlinear effect of the four photon mixing type in single mode optical fibers

E. Randrianandrasana

•Sep 1, 1985•0 citations

Comprehensive characterization of a heralded single photon source based on four-wave mixing in optical fibers

Nuno A. Silva, Armando N. Pinto

Optics Communications•Feb 13, 2014•5 citations

Four-mode squeezing in an optical fiber

Bonny L. Schumaker, Stephen H. Perlmutter, Robert M. Shelby +1 more

It has been predicted that three- or four-wave mixing with two or more pump frequencies can produce squeezing (2N-mode squeezing) that is potentially greater than that produced by single-frequency pumping (two-mode squeezing).1,2 We demonstrated four-mode squeezing via four-wave mixing with two pump frequencies in an optical fiber.3

•Apr 26, 1987•0 citations

Nonlinear effects in optical fibers

Alan J. Rogers

Optoelectronics, imaging and sensing series•Jan 1, 1995•4 citations

Quantum Information Processing Using Intermodal Four-Wave Mixing in Multi-Mode Optical Fibers

Karsten K. Rottwitt, Jesper B. Christensen, Erik Nicolai Christensen +1 more

Being able to generate and process quantum states are essential functionalities in quantum communication. Examples of the processing include conversion of the wavelength of quantum states or modification of their temporal shape. The combined use of four-wave mixing and higher order modes in optical fibers has enabled such functionalities. The use of intermodal four-wave mixing among higher order modes, enable frequency conversion over a wavelength bandwidth, large enough to avoid spontaneous Raman scattering, which is otherwise detrimental for quantum communication. The process of intermodal four-wave mixing furthermore has the advantage that the same process may be used to generate single photon states. We review recent results on the use of intermodal four-wave mixing in optical multi-mode fibers for quantum information science and show a theoretical/numerical model that may be used to predict the performance of quantum state processing devices based on four-wave mixing.

International Conference on Transparent Optical Networks•Jul 1, 2019•1 citation

NONLINEAR AND QUANTUM OPTICS IN FEW-MODE-FIBERS

Afshin Shamsshooli

•Apr 22, 2021•0 citations
Being able to generate and process quantum states are essential functionalities in quantum communication. Examples of the processing include conversion of the wavelength of quantum states or modification of their temporal shape. The combined use of four-wave mixing and higher order modes in optical fibers has enabled such functionalities. The use of intermodal four-wave mixing among higher order modes, enable frequency conversion over a wavelength bandwidth, large enough to avoid spontaneous Raman scattering, which is otherwise detrimental for quantum communication. The process of intermodal four-wave mixing furthermore has the advantage that the same process may be used to generate single photon states. We review recent results on the use of intermodal four-wave mixing in optical multi-mode fibers for quantum information science and show a theoretical/numerical model that may be used to predict the performance of quantum state processing devices based on four-wave mixing.