Coherent light generators – Particular resonant cavity
Patent
1992-12-10
1994-05-03
Gonzalez, Frank
Coherent light generators
Particular resonant cavity
372 7, 372 49, 372 66, 372 70, 372 99, H01S 308
Patent
active
053094719
ABSTRACT:
Optically pumped laser minicavity, its production process and laser using said cavity, wherein the minicavity comprises an electrically insulating, parallelepipedic, solid emitter (1b), having two polished parallel lateral faces (6, 8), a monocrystalline substrate (2) and several monocrystalline layers epitaxied on the substrate and having in directions parallel to said faces a hardness equal to that of the substrate, one of the layers constituting a guide layer (4) able to guide the light emitted by the emitter and the pumping light and another layer (12) constituting a non-guiding protective layer, the protective layer and the substrate constituting two opposite faces of the emitter perpendicular to the lateral faces, laser activating ions being contained within the substrate and/or in one of the layers. In the case of an internal cavity, semi-reflecting mirrors (9, 10) are placed on the lateral faces of the emitter.
REFERENCES:
patent: 3579142 (1971-05-01), Smiley
patent: 4002998 (1977-01-01), Conwell et al.
patent: 4523316 (1985-06-01), Botez
patent: 5023877 (1991-06-01), Eden et al.
patent: 5107538 (1992-04-01), Benton et al.
Patent Abstracts of Japan, vol. 7, No. 140 (E-182)(1285), Jun. 18, 1983, & JP-A-58 054 690, Mar. 31, 1983, Taketoshi Hibiya, "Epitaxial Garnet Laser Element".
Siemens Research and Development Reports, vol. 5, No. 5 May 1976, pp. 287-295, G. Winzer, et al., "Miniature Neodymium Laser (MNL) As Possible Transmitters for Fiber-Optic Communication Systems", Part 1. Stoichiometric Materials.
Siemens Research and Development Reports, vol. 5, No. 5, May 1976, pp. 296-302, P. Mockel, et al., "Miniature Neodymium Laser (MNL) As Possible Transmitters for Fiber-Optic Communication Systems", Part 2. YAG:Nd.sup.3 -Waveguide Lasers.
Journal of Applied Physics, vol. 50, No. 2, Feb. 1979, pp. 653-659, Ken'Ichi Kubodera, et al., "Single-Transverse-Mode LiNdP.sub.4 O.sub.12 Slab Waveguide Laser".
IEEE Photonics Technology Letters, vol. 2, No. 7, Jul. 1990, pp. 459-460, Hiroshi Aoki, et al., "Glass Waveguide Laser".
Journal of Applied Physics, vol. 45, No. 8, Aug. 1974, pp. 3460-3462, P. Mockel, et al., "A Flashlamp-Pumped YAG: Nd.sup.3- Waveguide Laser".
Journal of Applied Physics, vol. 49, No. 1, Jan. 1978, pp. 65-68, Ken'Ichi Kubodera, et al., "A Slab Waveguide Laser Formed of Glass-Clad LiNdP.sub.4 O.sub.12 ".
Database WPIL, JP-A-86-327671, B. Deveaud, et al., "Semiconductor Laser Structure--Comprises Gallium Aluminium Arsenide or Phosphide as Active Layer, on Semiconductor Substrate", Oct. 31, 1986.
Chambaz Bernard
Chartier Isabelle
Ferrand Bernard
Pelenc Denis
Commissariat a l''Energie Atomique
Gonzalez Frank
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