Tunable, CW laser emission at 225 nm via intracavity frequency tripling in a semiconductor disk laser

Julio M. Rodríguez-García, David Pabœuf, Jennifer E. Hastie

Research output: Contribution to journalArticle

1 Citation (Scopus)

Abstract

Numerous applications would benefit from a compact laser source with tunable, continuous-wave emission in the deep ultraviolet (wavelengths <250nm); however, very few laser sources have been demonstrated with direct emission in this spectral region and options are generally limited to pulsed, fixed wavelength sources or complex and impractical setups for nonlinear frequency mixing of the emission of several infrared lasers in various external enhancement cavities. Here we propose an all-solid-state, continuous-wave, tunable laser with emission between 224 nm and 226 nm via intracavity frequency tripling in an AlGaInP-based semiconductor disk laser (SDL). Output power up to 78 µW is achieved in CW operation, with a tuning range over 350 cm-1. AlGaInP-based SDLs may be designed to emit anywhere between ~640 – 690 nm such that wavelengths between 213 nm and 230 nm may be targeted for specific applications using a similar set-up. An in-depth study of the nonlinear conversion has been carried out to understand the limitations of the set-up, namely large walk-off angles for phase-matching in the nonlinear crystals, and the potential for increasing the output power to several milli-Watts. This is, to the authors' knowledge, the first implementation of intracavity frequency tripling in a visible SDL and the shortest wavelength emitted from an SDL system.
LanguageEnglish
Article number5100608
Number of pages8
JournalIEEE Journal of Selected Topics in Quantum Electronics
Volume23
Issue number6
Early online date24 Apr 2017
DOIs
Publication statusE-pub ahead of print - 24 Apr 2017

Fingerprint

Videodisks
Continuous wave lasers
Semiconductor materials
Wavelength
lasers
wavelengths
continuous radiation
Laser tuning
Phase matching
Infrared lasers
Lasers
output
tunable lasers
phase matching
Tuning
infrared lasers
Crystals
tuning
solid state
cavities

Keywords

  • semiconductor lasers
  • surface emitting lasers
  • ultraviolet sources
  • continuous wave
  • tunable
  • frequency conversion
  • harmonic generation
  • nonlinear optics

Cite this

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title = "Tunable, CW laser emission at 225 nm via intracavity frequency tripling in a semiconductor disk laser",
abstract = "Numerous applications would benefit from a compact laser source with tunable, continuous-wave emission in the deep ultraviolet (wavelengths <250nm); however, very few laser sources have been demonstrated with direct emission in this spectral region and options are generally limited to pulsed, fixed wavelength sources or complex and impractical setups for nonlinear frequency mixing of the emission of several infrared lasers in various external enhancement cavities. Here we propose an all-solid-state, continuous-wave, tunable laser with emission between 224 nm and 226 nm via intracavity frequency tripling in an AlGaInP-based semiconductor disk laser (SDL). Output power up to 78 µW is achieved in CW operation, with a tuning range over 350 cm-1. AlGaInP-based SDLs may be designed to emit anywhere between ~640 – 690 nm such that wavelengths between 213 nm and 230 nm may be targeted for specific applications using a similar set-up. An in-depth study of the nonlinear conversion has been carried out to understand the limitations of the set-up, namely large walk-off angles for phase-matching in the nonlinear crystals, and the potential for increasing the output power to several milli-Watts. This is, to the authors' knowledge, the first implementation of intracavity frequency tripling in a visible SDL and the shortest wavelength emitted from an SDL system.",
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Tunable, CW laser emission at 225 nm via intracavity frequency tripling in a semiconductor disk laser. / Rodríguez-García, Julio M.; Pabœuf, David; Hastie, Jennifer E.

In: IEEE Journal of Selected Topics in Quantum Electronics, Vol. 23, No. 6, 5100608, 24.04.2017.

Research output: Contribution to journalArticle

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