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

Optics Communications

Spectral characteristics of steady-state amplifiers

Mark D. Rotter, Roger A. Haas

Published Apr 1, 1990• 1 citation
Publisher
DOI
10.1016/0030-4018(90)90557-a

Related papers

Spectral characteristics of short-pulse amplifiers

Mark D. Rotter, Roger A. Haas

Optics Communications•Jun 1, 1989•13 citations

Steady-state pulses in degenerate swept-gain amplifiers

J.A. Hermann

Physics Letters A•Aug 1, 1978•2 citations

The chirped steady state pulse in an amplifier with loss

Valentin P. Petrov, Wolfgang Rudolph

Physics Letters A•Apr 1, 1990•3 citations

Spectral characteristics of a thermally inhomogeneous resonantly amplifying medium

Victor L. Kolpashchikov, R. I. Soloukhin, T. A. Syroezhko

Journal of Applied Spectroscopy•Dec 1, 1978•0 citations

Transient and steady-state gain in stimulated Brillouin amplifiers

Dieter Pohl, Martin Maier, W. Kaiser

IEEE Journal of Quantum Electronics•May 1, 1968•5 citations

Energy extraction from pulsed amplified stimulated emission lasers operating under conditions of strong saturation

S. M. Hooker, David James Spence

The output of pulsed, homogeneously broadened amplified spontaneous emission (ASE) lasers operating under conditions of strong saturation is considered. An expression for the maximum power (energy) per unit volume that may be extracted from steady-state (pulsed) systems is derived and shown to be independent of the saturation intensity. Numerical calculations of the temporal evolution of the populations in the laser levels and the growth in the ASE fluence, peak intensity, and spectral width are presented for three types of laser system: quasi steady state, short pump pulses, and self-termination. In all cases the growth in the fluence of the ASE pulse is found to agree with an analytic solution derived for conditions of strong saturation. The calculated growth in intensity of the ASE pulse is compared with expressions derived by Pert [J. Opt. Soc. Am. B11, 1425 (1994)] for the steady-state case. As expected, good agreement is found for the quasi-steady-state system, but in the limit of strong saturation significant differences occur for the short pump pulse and self-terminating laser systems considered. For all cases considered, the variation of the spectral width of the ASE pulse is found to be in reasonable agreement with that predicted by Pert for steady-state conditions.

Journal of the Optical Society of America B•Jun 1, 2006•2 citations
The output of pulsed, homogeneously broadened amplified spontaneous emission (ASE) lasers operating under conditions of strong saturation is considered. An expression for the maximum power (energy) per unit volume that may be extracted from steady-state (pulsed) systems is derived and shown to be independent of the saturation intensity. Numerical calculations of the temporal evolution of the populations in the laser levels and the growth in the ASE fluence, peak intensity, and spectral width are presented for three types of laser system: quasi steady state, short pump pulses, and self-termination. In all cases the growth in the fluence of the ASE pulse is found to agree with an analytic solution derived for conditions of strong saturation. The calculated growth in intensity of the ASE pulse is compared with expressions derived by Pert [J. Opt. Soc. Am. B11, 1425 (1994)] for the steady-state case. As expected, good agreement is found for the quasi-steady-state system, but in the limit of strong saturation significant differences occur for the short pump pulse and self-terminating laser systems considered. For all cases considered, the variation of the spectral width of the ASE pulse is found to be in reasonable agreement with that predicted by Pert for steady-state conditions.