DocumentCode
1073372
Title
Pulse compression inside an actively AM mode-locked ND:YAG laser using a liquid Kerr cell
Author
Duerinckx, André J. ; Vanherzeele, Herman A. ; Eck, James ; Siegman, Anthony E.
Author_Institution
Stanford University, Stanford, CA, USA
Volume
14
Issue
12
fYear
1978
fDate
12/1/1978 12:00:00 AM
Firstpage
983
Lastpage
992
Abstract
A mode-locked Nd:YAG laser capable of generating pulses substantially shorter than the present limit of 30-50 ps, while retaining the stability of active mode locking, would be a useful development. We present here a simplified theoretical analysis and a preliminary experimental verification of the use of an optical Kerr cell as a passive lossless pulse compressor inside a
-switched and actively mode-locked YAG laser. The theoretical model indicates possible compression to as short as ∼5 ps in a typical low-power Nd:YAG laser. The preliminary experimental results show substantial pulse compression via the predicted mechanism, though still not below ∼30 ps. The technique appears capable, however, of pulse compression to substantially shorter values without the instabilities, statistical fluctuations, or energy losses associated with saturable-absorber mode locking.
-switched and actively mode-locked YAG laser. The theoretical model indicates possible compression to as short as ∼5 ps in a typical low-power Nd:YAG laser. The preliminary experimental results show substantial pulse compression via the predicted mechanism, though still not below ∼30 ps. The technique appears capable, however, of pulse compression to substantially shorter values without the instabilities, statistical fluctuations, or energy losses associated with saturable-absorber mode locking.Keywords
Energy loss; Fluctuations; Laser mode locking; Laser stability; Laser theory; Optical losses; Optical pulse compression; Optical pulse generation; Optical pulses; Pulse compression methods;
fLanguage
English
Journal_Title
Quantum Electronics, IEEE Journal of
Publisher
ieee
ISSN
0018-9197
Type
jour
DOI
10.1109/JQE.1978.1069733
Filename
1069733
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