Pure-quartic solitons and their generalizations—Theory and experiments
Solitons are wave packets that can propagate without changing shape by balancing nonlinear effects with the effects of dispersion. In photonics, they have underpinned numerous applications, ranging from telecommunications and spectroscopy to ultrashort pulse generation. Although traditionally the do...
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doaj-b3a962fb0a934b8b91d75999d68516722021-10-06T14:17:15ZengAIP Publishing LLCAPL Photonics2378-09672021-09-0169091101091101-2210.1063/5.0059525Pure-quartic solitons and their generalizations—Theory and experimentsC. Martijn de Sterke0Antoine F. J. Runge1Darren D. Hudson2Andrea Blanco-Redondo3Institute of Photonics and Optical Science (IPOS), School of Physics, The University of Sydney, Sydney, New South Wales 2006, AustraliaInstitute of Photonics and Optical Science (IPOS), School of Physics, The University of Sydney, Sydney, New South Wales 2006, AustraliaCACI Photonics Solutions, 15 Vreeland Road, Florham Park, New Jersey 07932, USANokia Bell Labs, 600 Mountain Avenue, New Providence, New Jersey 07974, USASolitons are wave packets that can propagate without changing shape by balancing nonlinear effects with the effects of dispersion. In photonics, they have underpinned numerous applications, ranging from telecommunications and spectroscopy to ultrashort pulse generation. Although traditionally the dominant dispersion type has been quadratic dispersion, experimental and theoretical research in recent years has shown that high-order, even dispersion enriches the phenomenon and may lead to novel applications. In this Tutorial, which is aimed both at soliton novices and at experienced researchers, we review the exciting developments in this burgeoning area, which includes pure-quartic solitons and their generalizations. We include theory, numerics, and experimental results, covering both fundamental aspects and applications. The theory covers the relevant equations and the intuition to make sense of the results. We discuss experiments in silicon photonic crystal waveguides and in a fiber laser and assess the promises in additional platforms. We hope that this Tutorial will encourage our colleagues to join in the investigation of this exciting and promising field.http://dx.doi.org/10.1063/5.0059525 |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
C. Martijn de Sterke Antoine F. J. Runge Darren D. Hudson Andrea Blanco-Redondo |
spellingShingle |
C. Martijn de Sterke Antoine F. J. Runge Darren D. Hudson Andrea Blanco-Redondo Pure-quartic solitons and their generalizations—Theory and experiments APL Photonics |
author_facet |
C. Martijn de Sterke Antoine F. J. Runge Darren D. Hudson Andrea Blanco-Redondo |
author_sort |
C. Martijn de Sterke |
title |
Pure-quartic solitons and their generalizations—Theory and experiments |
title_short |
Pure-quartic solitons and their generalizations—Theory and experiments |
title_full |
Pure-quartic solitons and their generalizations—Theory and experiments |
title_fullStr |
Pure-quartic solitons and their generalizations—Theory and experiments |
title_full_unstemmed |
Pure-quartic solitons and their generalizations—Theory and experiments |
title_sort |
pure-quartic solitons and their generalizations—theory and experiments |
publisher |
AIP Publishing LLC |
series |
APL Photonics |
issn |
2378-0967 |
publishDate |
2021-09-01 |
description |
Solitons are wave packets that can propagate without changing shape by balancing nonlinear effects with the effects of dispersion. In photonics, they have underpinned numerous applications, ranging from telecommunications and spectroscopy to ultrashort pulse generation. Although traditionally the dominant dispersion type has been quadratic dispersion, experimental and theoretical research in recent years has shown that high-order, even dispersion enriches the phenomenon and may lead to novel applications. In this Tutorial, which is aimed both at soliton novices and at experienced researchers, we review the exciting developments in this burgeoning area, which includes pure-quartic solitons and their generalizations. We include theory, numerics, and experimental results, covering both fundamental aspects and applications. The theory covers the relevant equations and the intuition to make sense of the results. We discuss experiments in silicon photonic crystal waveguides and in a fiber laser and assess the promises in additional platforms. We hope that this Tutorial will encourage our colleagues to join in the investigation of this exciting and promising field. |
url |
http://dx.doi.org/10.1063/5.0059525 |
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