Logo du site
  • English
  • Français
  • Se connecter
Logo du site
  • English
  • Français
  • Se connecter
  1. Accueil
  2. Université de Neuchâtel
  3. Publications
  4. Experimentally verified pulse formation model for high-power femtosecond VECSELs
 
  • Details
Options
Vignette d'image

Experimentally verified pulse formation model for high-power femtosecond VECSELs

Auteur(s)
Sieber, Oliver D
Hoffmann, Martin 
Institut de physique 
Wittwer, Valentin 
Institut de physique 
Mangold, Mario
Golling, Matthias
Tilma, Bauke W
Südmeyer, Thomas 
Institut de physique 
Keller, Ursula
Date de parution
2013
In
Applied Physics B : Lasers and Optics, Springer
Vol.
113
No
1
De la page
133
A la page
145
Résumé
Optically pumped vertical-external-cavity surface-emitting lasers (OP-VECSELs), passively modelocked with a semiconductor saturable absorber mirror (SESAM), have generated the highest average output power from any sub-picosecond semiconductor laser. Many applications, including frequency comb synthesis and coherent supercontinuum generation, require pulses in the sub-300-fs regime. A quantitative understanding of the pulse formation mechanism is required in order to reach this regime while maintaining stable, high-average-power performance. We present a numerical model with which we have obtained excellent quantitative agreement with two recent experiments in the femtosecond regime, and we have been able to correctly predict both the observed pulse duration and the output power for the first time. Our numerical model not only confirms the soliton-like pulse formation in the femtosecond regime, but also allows us to develop several clear guidelines to scale the performance toward shorter pulses and higher average output power. In particular, we show that a key VECSEL design parameter is a high gain saturation fluence. By optimizing this parameter, 200-fs pulses with an average output power of more than 1 W should be possible.
Identifiants
https://libra.unine.ch/handle/123456789/8300
_
10.1007/s00340-013-5449-7
Type de publication
journal article
Dossier(s) à télécharger
 main article: Sieber_O.-Experimentally_verified_pulse-20140813.pdf (1.82 MB)
google-scholar
Présentation du portailGuide d'utilisationStratégie Open AccessDirective Open Access La recherche à l'UniNE Open Access ORCIDNouveautés

Service information scientifique & bibliothèques
Rue Emile-Argand 11
2000 Neuchâtel
contact.libra@unine.ch

Propulsé par DSpace, DSpace-CRIS & 4Science | v2022.02.00