Version: 2024.08
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This area was updated. Please refer to the CPC Notices of Changes and Notices of Editorial Corrections for more information.
H01S 1/00 | Masers, i.e. devices using stimulated emission of electromagnetic radiation in the microwave range [2019-01] |
H01S 1/005 | . | {using a relativistic beam of charged particles, e.g. electron cyclotron maser, gyrotron} [2013-01] |
H01S 1/02 | . | solid [2013-01] |
H01S 1/04 | . | liquid [2013-01] |
H01S 1/06 | . | Gaseous {, i.e. beam masers} [2019-01] |
H01S 3/00 | Lasers, i.e. devices using stimulated emission of electromagnetic radiation in the infrared, visible or ultraviolet wave range (semiconductors lasers H01S 5/00) [2019-01] |
H01S 3/0007 | . | {Applications not otherwise provided for (working metals or other materials by laser beam B23K 26/00; using photons to produce a reactive propulsive thrust F03H 3/00; optical recording of measured values in general G01D 15/14; optics in general G02B; holographic processes or apparatus G03H; optical marking or sensing of data record carriers G06K 7/10 - G06K 7/14, G06K 15/12; injection heating of plasma by laser H05H 1/22; acceleration of neutral particles by electromagnetic wave pressure H05H 3/04)} [2016-05] |
H01S 3/0014 | . | {Monitoring arrangements not otherwise provided for (photometry G01J 1/00, e.g. G01J 1/4257; radiation pyrometry G01J 5/00; measuring coherence of light G01J 9/00; measuring wavelength of light G01J 9/00, e.g. G01J 9/0246; measuring optical pulses G01J 11/00; calorimetrically measuring power of laser beams G01K 17/003)} [2013-01] |
H01S 3/005 | . | {Optical devices external to the laser cavity, specially adapted for lasers, e.g. for homogenisation of the beam or for manipulating laser pulses, e.g. pulse shaping (shaping laser beam for working metal or other materials B23K 26/06; optical elements, systems or apparatus in general G02B)} [2013-01] |
H01S 3/0057 | . . | {Temporal shaping, e.g. pulse compression, frequency chirping (soliton generation and propagation G02F 1/3513, H01S 3/063 and H01S 3/108)} [2013-01] |
H01S 3/0064 | . . | {Anti-reflection devices, e.g. optical isolaters (absorbing layers for marking or protecting purposes in laser working B23K 26/50; magneto-optical non-reciprocal devices G02F 1/093, G02F 1/0955)} [2018-08] |
H01S 3/0071 | . . | {Beam steering, e.g. whereby a mirror outside the cavity is present to change the beam direction} [2013-01] |
H01S 3/0078 | . . | {Frequency filtering} [2013-01] |
H01S 3/0085 | . . | {Modulating the output, i.e. the laser beam is modulated outside the laser cavity} [2013-01] |
H01S 3/0092 | . . | {Nonlinear frequency conversion, e.g. second harmonic generation [SHG] or sum- or difference-frequency generation outside the laser cavity (nonlinear frequency conversion per se G02F 1/35)} [2013-01] |
H01S 3/02 | . |
H01S 3/022 | . . | {of liquid lasers} [2013-01] |
H01S 3/025 | . . | {of solid state lasers, e.g. housings or mountings} [2013-01] |
H01S 3/027 | . . . | {comprising a special atmosphere inside the housing} [2013-01] |
H01S 3/03 | . . | of gas laser discharge tubes [2019-01] |
H01S 3/0305 | . . . | {Selection of materials for the tube or the coatings thereon} [2013-01] |
H01S 3/031 | . . . | {Metal vapour lasers, e.g. metal vapour generation} [2013-01] |
H01S 3/0315 | . . . | {Waveguide lasers} [2013-01] |
H01S 3/032 | . . . | for confinement of the discharge, e.g. by special features of the discharge constricting tube [2013-01] |
H01S 3/0323 | . . . . | {by special features of the discharge constricting tube, e.g. capillary} [2013-01] |
H01S 3/0326 | . . . . | {by an electromagnetic field} [2013-01] |
H01S 3/034 | . . . | Optical devices within, or forming part of, the tube, e.g. windows, mirrors (reflectors having variable properties or positions for initial adjustment of the resonator H01S 3/086) [2017-08] |
H01S 3/0343 | . . . . | {Aerodynamic windows} [2013-01] |
H01S 3/0346 | . . . . | {Protection of windows or mirrors against deleterious effects (cooling arrangements H01S 3/0401)} [2013-01] |
H01S 3/036 | . . . | Means for obtaining or maintaining the desired gas pressure within the tube, e.g. by gettering, replenishing; Means for circulating the gas, e.g. for equalising the pressure within the tube {(H01S 3/031 takes precedence)} [2019-01] |
H01S 3/038 | . . . | Electrodes, e.g. special shape, configuration or composition [2013-01] |
H01S 3/0381 | . . . . | {Anodes or particular adaptations thereof} [2013-01] |
H01S 3/0382 | . . . . | {Cathodes or particular adaptations thereof} [2013-01] |
H01S 3/0384 | . . . . | {Auxiliary electrodes, e.g. for pre-ionisation or triggering, or particular adaptations therefor} [2013-01] |
H01S 3/0385 | . . . . | {Shape} [2013-01] |
H01S 3/0387 | . . . . . | {Helical shape} [2013-01] |
H01S 3/0388 | . . . . | {Compositions, materials or coatings} [2013-01] |
H01S 3/04 | . . | Arrangements for thermal management [2021-01] |
H01S 3/0401 | . . . | {of optical elements being part of laser resonator, e.g. windows, mirrors, lenses} [2013-01] |
H01S 3/0402 | . . . | {for liquid lasers} [2013-01] |
H01S 3/0404 | . . . | {Air- or gas cooling, e.g. by dry nitrogen} [2013-01] |
H01S 3/0405 | . . . | {Conductive cooling, e.g. by heat sinks or thermo-electric elements} [2013-01] |
H01S 3/0407 | . . . | {Liquid cooling, e.g. by water} [2013-01] |
H01S 3/0408 | . . . | {Radiative cooling, e.g. by anti-Stokes scattering in the active medium} [2013-01] |
H01S 3/041 | . . . |
H01S 3/042 | . . . |
H01S 3/05 | . | Construction or shape of optical resonators; Accommodation of active medium therein; Shape of active medium [2017-05] |
H01S 3/06 | . . | Construction or shape of active medium [2013-01] |
H01S 3/0602 | . . . | {Crystal lasers or glass lasers (H01S 3/063 takes precedence)} [2013-01] |
H01S 3/0604 | . . . . | {in the form of a plate or disc} [2013-01] |
H01S 3/0606 | . . . . | {with polygonal cross-section, e.g. slab, prism (H01S 3/0604 takes precedence)} [2013-01] |
H01S 3/0608 | . . . . | {Laser crystal with a hole, e.g. a hole or bore for housing a flashlamp or a mirror} [2013-01] |
H01S 3/061 | . . . . | {with elliptical or circular cross-section and elongated shape, e.g. rod} [2013-01] |
H01S 3/0612 | . . . . | {Non-homogeneous structure (H01S 3/07 takes precedence)} [2013-01] |
H01S 3/0615 | . . . . | {Shape of end-face} [2013-01] |
H01S 3/0617 | . . . . | {having a varying composition or cross-section in a specific direction} [2013-01] |
H01S 3/0619 | . . . | {Coatings, e.g. AR, HR, passivation layer} [2013-01] |
H01S 3/0621 | . . . . | {Coatings on the end-faces, e.g. input/output surfaces of the laser light} [2013-01] |
H01S 3/0623 | . . . . . | {Antireflective [AR]} [2013-01] |
H01S 3/0625 | . . . . | {Coatings on surfaces other than the end-faces} [2013-01] |
H01S 3/0627 | . . . | {the resonator being monolithic, e.g. microlaser} [2013-01] |
H01S 3/063 | . . . | Waveguide lasers, {i.e. whereby the dimensions of the waveguide are of the order of the light wavelength (waveguide gas lasers H01S 3/0315)} [2013-01] |
H01S 3/0632 | . . . . | {Thin film lasers in which light propagates in the plane of the thin film} [2013-01] |
H01S 3/0635 | . . . . . | {provided with a periodic structure, e.g. using distributed feed-back, grating couplers (controlling, e.g. modulating distributed feed-back lasers H01S 3/102)} [2013-01] |
H01S 3/0637 | . . . . . | {Integrated lateral waveguide, e.g. the active waveguide is integrated on a substrate made by Si on insulator technology (Si/SiO2)} [2013-01] |
H01S 3/067 | . . . . | Fibre lasers [2019-01] |
H01S 3/06704 | . . . . . | {Housings; Packages} [2013-01] |
H01S 3/06708 | . . . . . | {Constructional details of the fibre, e.g. compositions, cross-section, shape or tapering (optical fibres as passive waveguides G02B 6/02)} [2013-01] |
H01S 3/06712 | . . . . . . | {Polarising fibre; Polariser} [2013-01] |
H01S 3/06716 | . . . . . . | {Fibre compositions (per se C03C 13/04)or doping with active elements (lasing materials in general H01S 3/14)} [2013-01] |
H01S 3/0672 | . . . . . . | {Non-uniform radial doping} [2013-01] |
H01S 3/06725 | . . . . . . | {Fibre characterized by a specific dispersion, e.g. for pulse shaping in soliton lasers or for dispersion compensating [DCF]} [2013-01] |
H01S 3/06729 | . . . . . . | {Peculiar transverse fibre profile} [2013-01] |
H01S 3/06733 | . . . . . . . | {Fibre having more than one cladding} [2013-01] |
H01S 3/06737 | . . . . . . . | {Fibre having multiple non-coaxial cores, e.g. multiple active cores or separate cores for pump and gain} [2013-01] |
H01S 3/06741 | . . . . . . . | {Photonic crystal fibre, i.e. the fibre having a photonic bandgap} [2013-01] |
H01S 3/06745 | . . . . . . | {Tapering of the fibre, core or active region} [2013-01] |
H01S 3/0675 | . . . . . | {Resonators including a grating structure, e.g. distributed Bragg reflectors [DBR] or distributed feedback [DFB] fibre lasers} [2013-01] |
H01S 3/06754 | . . . . . | {Fibre amplifiers (H01S 3/06708 takes precedence)} [2013-01] |
H01S 3/06758 | . . . . . . | {Tandem amplifiers} [2013-01] |
H01S 3/06762 | . . . . . . | {having a specific amplification band} [2013-01] |
H01S 3/06766 | . . . . . . . | {C-band amplifiers, i.e. amplification in the range of about 1530 nm to 1560 nm} [2013-01] |
H01S 3/0677 | . . . . . . . | {L-band amplifiers, i.e. amplification in the range of about 1560 nm to 1610 nm} [2013-01] |
H01S 3/06775 | . . . . . . . | {S-band amplifiers, i.e. amplification in the range of about 1450 nm to 1530 nm} [2013-01] |
H01S 3/06779 | . . . . . . | {with optical power limiting} [2013-01] |
H01S 3/06783 | . . . . . . | {Amplifying coupler} [2013-01] |
H01S 3/06787 | . . . . . . | {Bidirectional amplifier} [2013-01] |
H01S 3/06791 | . . . . . | {Fibre ring lasers (fibre laser gyrometers G01C 19/72)} [2013-01] |
H01S 3/06795 | . . . . . | {with superfluorescent emission, e.g. amplified spontaneous emission sources for fibre laser gyrometers (fibre laser gyrometers per se G01C 19/72)} [2013-01] |
H01S 3/07 | . . . |
H01S 3/073 | . . . . | {Gas lasers comprising separate discharge sections in one cavity, e.g. hybrid lasers (tandem arrangements of separate gas lasers H01S 3/2366)} [2013-01] |
H01S 3/076 | . . . . . | {Folded-path lasers} [2013-01] |
H01S 3/08 | . . | Construction or shape of optical resonators or components thereof [2023-01] |
H01S 3/08004 | . . . | {incorporating a dispersive element, e.g. a prism for wavelength selection (H01S 3/0811, H01S 3/08022 take precedence)} [2013-01] |
H01S 3/08009 | . . . . | {using a diffraction grating} [2013-01] |
H01S 3/08013 | . . . | {Resonator comprising a fibre, e.g. for modifying dispersion or repetition rate (the active medium being a fibre H01S 3/067)} [2015-09] |
H01S 3/08018 | . . . | Mode suppression [2023-01] |
H01S 3/08022 | . . . . |
H01S 3/08027 | . . . . . | {by a filter, e.g. a Fabry-Perot filter is used for wavelength setting} [2023-01] |
H01S 3/08031 | . . . . . | Single-mode emission [2023-01] |
H01S 3/08036 | . . . . . . | using intracavity dispersive, polarising or birefringent elements [2023-01] |
H01S 3/0804 | . . . . | Transverse or lateral modes [2023-01] |
H01S 3/08045 | . . . . . | Single-mode emission [2023-01] |
H01S 3/0805 | . . . . . | by apertures, e.g. pin-holes or knife-edges [2023-01] |
H01S 3/08054 | . . . | {Passive cavity elements acting on the polarization, e.g. a polarizer for branching or walk-off compensation (quarter-wave plates in a Q-switch laser H01S 3/1124, H01S 3/115)} [2013-01] |
H01S 3/08059 | . . . |
H01S 3/08063 | . . . . | {Graded reflectivity, e.g. variable reflectivity mirror} [2013-01] |
H01S 3/08068 | . . . . | {Holes; Stepped surface; Special cross-section} [2013-01] |
H01S 3/08072 | . . . | {Thermal lensing or thermally induced birefringence; Compensation thereof} [2013-01] |
H01S 3/08077 | . . . . | {Pump induced waveguiding, i.e. the pump induces refractive index change in the laser medium to guide the amplified light, e.g. gain- or loss- guiding or thermally induced refractive index change} [2013-01] |
H01S 3/08081 | . . . | {Unstable resonators} [2013-01] |
H01S 3/08086 | . . . | {Multiple-wavelength emission} [2013-01] |
H01S 3/0809 | . . . . | {Two-wavelenghth emission} [2013-01] |
H01S 3/08095 | . . . | {Zig-zag travelling beam through the active medium} [2013-01] |
H01S 3/081 | . . . | comprising three or more reflectors [2023-01] |
H01S 3/0811 | . . . . | {incorporating a dispersive element, e.g. a prism for wavelength selection} [2013-01] |
H01S 3/0812 | . . . . . | {using a diffraction grating} [2013-01] |
H01S 3/0813 | . . . . | {Configuration of resonator} [2013-01] |
H01S 3/0815 | . . . . . | {having 3 reflectors, e.g. V-shaped resonators} [2020-05] |
H01S 3/0816 | . . . . . | {having 4 reflectors, e.g. Z-shaped resonators} [2020-05] |
H01S 3/0817 | . . . . . | {having 5 reflectors, e.g. W-shaped resonators} [2020-05] |
H01S 3/0818 | . . . . | {Unstable resonators} [2013-01] |
H01S 3/082 | . . . . | defining a plurality of resonators, e.g. for mode selection or suppression [2023-01] |
H01S 3/0823 | . . . . . | {incorporating a dispersive element, e.g. a prism for wavelength selection} [2013-01] |
H01S 3/0826 | . . . . . . | {using a diffraction grating} [2013-01] |
H01S 3/083 | . . . . |
H01S 3/0835 | . . . . . | {Gas ring lasers} [2013-01] |
H01S 3/086 | . . . |
H01S 3/09 | . | Processes or apparatus for excitation, e.g. pumping [2013-01] |
H01S 3/0903 | . . | {Free-electron laser} [2013-01] |
H01S 3/0906 | . . | {Electrical, electrochemical, or electron-beam pumping of a dye laser} [2013-01] |
H01S 3/091 | . . | using optical pumping [2013-01] |
H01S 3/0912 | . . . | {Electronics or drivers for the pump source, i.e. details of drivers or circuitry specific for laser pumping (laser diode drivers H01S 5/042)} [2013-01] |
H01S 3/0915 | . . . | by incoherent light [2013-01] |
H01S 3/09155 | . . . . | {by cathodo-luminescence} [2013-01] |
H01S 3/092 | . . . . | of flash lamp (H01S 3/0937 takes precedence {; flash lamps per se H01J 61/80; circuit arrangements for operating flash lamps in general H05B 41/30}) [2017-08] |
H01S 3/093 | . . . . . | focusing or directing the excitation energy into the active medium [2013-01] |
H01S 3/0931 | . . . . . . | {Imaging pump cavity, e.g. elliptical} [2013-01] |
H01S 3/0933 | . . . . | of a semiconductor, e.g. light emitting diode [2013-01] |
H01S 3/0937 | . . . . | produced by exploding or combustible material [2013-01] |
| H01S 3/094 | . . . | by coherent light [2016-05] NOTE
|
H01S 3/094003 | . . . . | {the pumped medium being a fibre} [2013-01] |
H01S 3/094007 | . . . . . | {Cladding pumping, i.e. pump light propagating in a clad surrounding the active core} [2013-01] |
H01S 3/094011 | . . . . . | {with bidirectional pumping, i.e. with injection of the pump light from both two ends of the fibre} [2013-01] |
H01S 3/094015 | . . . . . | {with pump light recycling, i.e. with reinjection of the unused pump light back into the fiber, e.g. by reflectors or circulators} [2013-01] |
H01S 3/094019 | . . . . . | {Side pumped fibre, whereby pump light is coupled laterally into the fibre via an optical component like a prism, or a grating, or via V-groove coupling} [2013-01] |
H01S 3/094023 | . . . . . | {with ASE light recycling, with reinjection of the ASE light back into the fiber, e.g. by reflectors or circulators} [2013-01] |
H01S 3/094026 | . . . . | {for synchronously pumping, e.g. for mode locking} [2018-02] |
H01S 3/09403 | . . . . | {Cross-pumping, e.g. Förster process involving intermediate medium for excitation transfer} [2013-01] |
H01S 3/094034 | . . . . | {the pumped medium being a dye} [2013-01] |
H01S 3/094038 | . . . . | {End pumping} [2013-01] |
H01S 3/094042 | . . . . | {of a fibre laser} [2013-01] |
H01S 3/094046 | . . . . . | {of a Raman fibre laser} [2013-01] |
H01S 3/094049 | . . . . | {Guiding of the pump light} [2013-01] |
H01S 3/094053 | . . . . . | {Fibre coupled pump, e.g. delivering pump light using a fibre or a fibre bundle} [2013-01] |
H01S 3/094057 | . . . . . | {by tapered duct or homogenized light pipe, e.g. for concentrating pump light} [2013-01] |
H01S 3/094061 | . . . . | {Shared pump, i.e. pump light of a single pump source is used to pump plural gain media in parallel} [2013-01] |
H01S 3/094065 | . . . . | {Single-mode pumping} [2013-01] |
H01S 3/094069 | . . . . | {Multi-mode pumping} [2013-01] |
H01S 3/094073 | . . . . | {Non-polarized pump, e.g. depolarizing the pump light for Raman lasers} [2013-01] |
H01S 3/094076 | . . . . | {Pulsed or modulated pumping (H01S 3/1024 takes precedence)} [2013-01] |
H01S 3/09408 | . . . . | {Pump redundancy} [2013-01] |
H01S 3/094084 | . . . . | {with pump light recycling, i.e. with reinjection of the unused pump light, e.g. by reflectors or circulators} [2013-01] |
H01S 3/094088 | . . . . | {with ASE light recycling, i.e. with reinjection of the ASE light, e.g. by reflectors or circulators} [2013-01] |
H01S 3/094092 | . . . . | {Upconversion pumping} [2013-01] |
H01S 3/094096 | . . . . | {Multi-wavelength pumping} [2013-01] |
H01S 3/0941 | . . . . | of a laser diode [2013-01] |
H01S 3/09415 | . . . . . | {the pumping beam being parallel to the lasing mode of the pumped medium, e.g. end-pumping} [2013-01] |
H01S 3/0943 | . . . . | of a gas laser [2013-01] |
H01S 3/0947 | . . . . | of an organic dye laser [2013-01] |
H01S 3/095 | . . | using chemical or thermal pumping [2019-01] |
H01S 3/09505 | . . . | {involving photochemical reactions, e.g. photodissociation (iodine lasers H01S 3/2215)} [2017-08] |
H01S 3/0951 | . . . | by increasing the pressure in the laser gas medium [2013-01] |
H01S 3/0953 | . . . . | Gas dynamic lasers, i.e. with expansion of the laser gas medium to supersonic flow speeds [2017-08] |
H01S 3/0955 | . . | using pumping by high energy particles {(H01S 3/0903, H01S 3/0906, H01S 3/09707 take precedence)} [2013-01] |
H01S 3/0957 | . . . | by high energy nuclear particles [2013-01] |
H01S 3/0959 | . . . | by an electron beam [2013-01] |
H01S 3/097 | . . | by gas discharge of a gas laser [2013-01] |
H01S 3/09702 | . . . | {Details of the driver electronics and electric discharge circuits} [2013-01] |
H01S 3/09705 | . . . | {with particular means for stabilising the discharge} [2013-01] |
H01S 3/09707 | . . . | {using an electron or ion beam (free-electron laser H01S 3/0903)} [2013-01] |
H01S 3/0971 | . . . |
H01S 3/09713 | . . . . | {with auxiliary ionisation, e.g. double discharge excitation} [2013-01] |
H01S 3/09716 | . . . . . | {by ionising radiation} [2013-01] |
H01S 3/0973 | . . . . | having a travelling wave passing through the active medium [2013-01] |
H01S 3/0975 | . . . | using inductive or capacitive excitation [2013-01] |
H01S 3/0977 | . . . |
H01S 3/09775 | . . . . | {by ionising radiation} [2013-01] |
H01S 3/0979 | . . . | Gas dynamic lasers, i.e. with expansion of the laser gas medium to supersonic flow speeds [2013-01] |
| H01S 3/10 | . | Controlling the intensity, frequency, phase, polarisation or direction of the emitted radiation, e.g. switching, gating, modulating or demodulating [2019-01] NOTE
|
H01S 3/10007 | . . | {in optical amplifiers} [2020-08] |
H01S 3/1001 | . . . | {by controlling the optical pumping} [2020-08] |
H01S 3/10013 | . . . | {by controlling the temperature of the active medium} [2020-08] |
H01S 3/10015 | . . . | {by monitoring or controlling, e.g. attenuating, the input signal} [2013-01] |
H01S 3/10023 | . . . | {by functional association of additional optical elements, e.g. filters, gratings, reflectors} [2013-01] |
H01S 3/1003 | . . . . | {tunable optical elements, e.g. acousto-optic filters, tunable gratings} [2019-08] |
H01S 3/10038 | . . | {Amplitude control} [2013-01] |
H01S 3/10046 | . . . | {Pulse repetition rate control (H01S 3/11 takes precedence)} [2013-01] |
H01S 3/10053 | . . | {Phase control} [2013-01] |
H01S 3/10061 | . . | {Polarization control} [2013-01] |
H01S 3/10069 | . . | {Memorized or pre-programmed characteristics, e.g. look-up table [LUT]} [2013-01] |
H01S 3/10076 | . . | {using optical phase conjugation, e.g. phase conjugate reflection} [2013-01] |
H01S 3/10084 | . . | {Frequency control by seeding} [2013-01] |
H01S 3/10092 | . . . | {Coherent seed, e.g. injection locking} [2013-01] |
H01S 3/101 | . . | Lasers provided with means to change the location from which, or the direction in which, laser radiation is emitted [2019-01] |
H01S 3/102 | . . | by controlling the active medium, e.g. by controlling the processes or apparatus for excitation (H01S 3/13 takes precedence) [2013-01] |
H01S 3/1022 | . . . | {by controlling the optical pumping} [2013-01] |
H01S 3/1026 | . . . | {Controlling the active medium by translation or rotation, e.g. to remove heat from that part of the active medium that is situated on the resonator axis} [2013-01] |
H01S 3/1028 | . . . | {by controlling the temperature} [2013-01] |
H01S 3/104 | . . . | in gas lasers [2013-01] |
H01S 3/105 | . . | by controlling the mutual position or the reflecting properties of the reflectors of the cavity {, e.g. by controlling the cavity length}({H01S 3/10076}, H01S 3/13 take precedence) [2016-08] |
H01S 3/1051 | . . . | {one of the reflectors being of the type using frustrated reflection} [2013-01] |
H01S 3/1053 | . . . | {Control by pressure or deformation} [2013-01] |
H01S 3/1055 | . . . | one of the reflectors being constituted by a diffraction grating [2013-01] |
H01S 3/106 | . . | by controlling devices placed within the cavity ({H01S 3/10076,} H01S 3/13 take precedence) [2023-01] |
H01S 3/1061 | . . . | {using a variable absorption device} [2013-01] |
H01S 3/1062 | . . . | {using a controlled passive interferometer, e.g. a Fabry-Perot etalon} [2013-01] |
H01S 3/1063 | . . . | {using a solid state device provided with at least one potential jump barrier} [2013-01] |
H01S 3/1065 | . . . | {using liquid crystals} [2013-01] |
H01S 3/1066 | . . . | {using a magneto-optical device} [2013-01] |
H01S 3/1067 | . . . | {using pressure or deformation} [2013-01] |
H01S 3/1068 | . . . | {using an acousto-optical device} [2013-01] |
H01S 3/107 | . . . | using electro-optic devices, e.g. exhibiting Pockels or Kerr effect {(H01S 3/1061, H01S 3/1063, H01S 3/1065 take precedence)} [2023-01] |
H01S 3/1075 | . . . . | {for optical deflection} [2013-01] |
H01S 3/108 | . . . | using non-linear optical devices, e.g. exhibiting Brillouin or Raman scattering {(mode locking using a non-linear element H01S 3/1112)} [2023-01] |
H01S 3/1083 | . . . . | {using parametric generation} [2013-01] |
H01S 3/1086 | . . . . | {using scattering effects, e.g. Raman or Brillouin effect} [2013-01] |
H01S 3/109 | . . . . | Frequency multiplication, e.g. harmonic generation [2023-01] |
H01S 3/1095 | . . . . . | {self doubling, e.g. lasing and frequency doubling by the same active medium} [2013-01] |
H01S 3/11 | . . | Mode locking; Q-switching; Other giant-pulse techniques, e.g. cavity dumping [2024-01] |
H01S 3/1103 | . . . | {Cavity dumping} [2013-01] |
H01S 3/1106 | . . . | Mode locking [2023-01] |
H01S 3/1109 | . . . . | Active mode locking [2023-01] |
H01S 3/1112 | . . . . | Passive mode locking [2023-01] |
H01S 3/1115 | . . . . . | using intracavity saturable absorbers [2023-01] |
H01S 3/1118 | . . . . . . | Semiconductor saturable absorbers, e.g. semiconductor saturable absorber mirrors [SESAMs]; Solid-state saturable absorbers, e.g. carbon nanotube [CNT] based [2023-01] |
H01S 3/1121 | . . . . | {Harmonically mode locking lasers, e.g. modulation frequency equals multiple integers or a fraction of the resonator roundtrip time} [2023-01] |
H01S 3/1123 | . . . | Q-switching [2024-01] |
H01S 3/1124 | . . . . | {using magneto-optical devices} [2023-01] |
H01S 3/1127 | . . . . | {using pulse transmission mode [PTM]} [2023-01] |
H01S 3/113 | . . . . | using intracavity saturable absorbers [2023-01] |
H01S 3/115 | . . . . | using intracavity electro-optic devices [2023-01] |
H01S 3/117 | . . . . | using intracavity acousto-optic devices [2023-01] |
H01S 3/121 | . . . . | using intracavity mechanical devices [2023-01] |
H01S 3/123 | . . . . . | using rotating mirrors [2023-01] |
H01S 3/125 | . . . . . | using rotating prisms [2023-01] |
H01S 3/127 | . . . . | Plural Q-switches [2023-01] |
| H01S 3/13 | . . | Stabilisation of laser output parameters, e.g. frequency or amplitude [2023-01] NOTE
|
H01S 3/1301 | . . . | {in optical amplifiers} [2020-08] |
H01S 3/13013 | . . . . | {by controlling the optical pumping} [2020-08] |
H01S 3/13017 | . . . . | {by controlling the temperature of the active medium} [2020-08] |
H01S 3/1302 | . . . . | {by all-optical means, e.g. gain-clamping} [2013-01] |
H01S 3/1303 | . . . | {by using a passive reference, e.g. absorption cell (H01S 3/139 takes precedence)} [2013-01] |
H01S 3/1304 | . . . | {by using an active reference, e.g. second laser, klystron or other standard frequency source (H01S 3/139 takes precedence; automatic control of electronic generators H03L 7/00)} [2013-01] |
H01S 3/1305 | . . . | {Feedback control systems} [2013-01] |
H01S 3/1306 | . . . | {Stabilisation of the amplitude} [2013-01] |
H01S 3/1307 | . . . | {Stabilisation of the phase} [2013-01] |
H01S 3/1308 | . . . | {Stabilisation of the polarisation} [2013-01] |
H01S 3/131 | . . . | by controlling the active medium, e.g. by controlling the processes or apparatus for excitation [2013-01] |
H01S 3/1312 | . . . . | {by controlling the optical pumping} [2013-01] |
H01S 3/1315 | . . . . | {by gain saturation} [2013-01] |
H01S 3/1317 | . . . . | {by controlling the temperature} [2013-01] |
H01S 3/134 | . . . . | in gas lasers [2013-01] |
H01S 3/136 | . . . | by controlling devices placed within the cavity [2023-01] |
H01S 3/137 | . . . . | for stabilising of frequency [2013-01] |
H01S 3/139 | . . . | by controlling the mutual position or the reflecting properties of the reflectors of the cavity {, e.g. by controlling the cavity length} [2016-08] |
H01S 3/1392 | . . . . | {by using a passive reference, e.g. absorption cell (H01S 3/1396, H01S 3/1398 take precedence)} [2013-01] |
H01S 3/1394 | . . . . | {by using an active reference, e.g. second laser, klystron or other standard frequency source} [2013-01] |
H01S 3/1396 | . . . . | {by using two modes present, e.g. Zeeman splitting (H01S 3/1398 takes precedence)} [2013-01] |
H01S 3/1398 | . . . . | {by using a supplementary modulation of the output} [2013-01] |
H01S 3/14 | . | characterised by the material used as the active medium [2013-01] |
H01S 3/16 | . . | Solid materials [2013-01] |
H01S 3/1601 | . . . | {characterised by an active (lasing) ion} [2013-01] |
H01S 3/1603 | . . . . | {rare earth} [2013-01] |
H01S 3/1605 | . . . . . | {terbium} [2013-01] |
H01S 3/1606 | . . . . . | {dysprosium} [2013-01] |
H01S 3/1608 | . . . . . | {erbium} [2013-01] |
H01S 3/161 | . . . . . | {holmium} [2013-01] |
H01S 3/1611 | . . . . . | {neodymium} [2013-01] |
H01S 3/1613 | . . . . . | {praseodymium} [2013-01] |
H01S 3/1615 | . . . . . | {samarium} [2013-01] |
H01S 3/1616 | . . . . . | {thulium} [2013-01] |
H01S 3/1618 | . . . . . | {ytterbium} [2013-01] |
H01S 3/162 | . . . . | {transition metal} [2013-01] |
H01S 3/1621 | . . . . . | {cobalt} [2013-01] |
H01S 3/1623 | . . . . . | {chromium, e.g. Alexandrite} [2013-01] |
H01S 3/1625 | . . . . . | {titanium} [2013-01] |
H01S 3/1626 | . . . . | {uranium} [2013-01] |
H01S 3/1628 | . . . | {characterised by a semiconducting matrix} [2013-01] |
H01S 3/163 | . . . | {characterised by a crystal matrix} [2013-01] |
H01S 3/1631 | . . . . | {aluminate} [2013-01] |
H01S 3/1633 | . . . . . | {BeAl2O4, i.e. Chrysoberyl} [2016-08] |
H01S 3/1635 | . . . . . | {LaMgAl11O19 (LNA, Lanthanum Magnesium Hexaluminate)} [2013-01] |
H01S 3/1636 | . . . . . | {Al2O3 (Sapphire)} [2013-01] |
H01S 3/1638 | . . . . . | {YAlO3 (YALO or YAP, Yttrium Aluminium Perovskite)} [2013-01] |
H01S 3/164 | . . . . | {garnet} [2013-01] |
H01S 3/1641 | . . . . . | {GGG} [2013-01] |
H01S 3/1643 | . . . . . | {YAG} [2013-01] |
H01S 3/1645 | . . . . | {halide} [2013-01] |
H01S 3/1646 | . . . . . | {BaY2F8} [2013-01] |
H01S 3/1648 | . . . . . | {with the formula XYZF6 (Colquiriite structure), wherein X is Li, Na, K or Rb, Y is Mg, Ca, Sr, Cd or Ba and Z is Al, Sc or Ga} [2013-01] |
H01S 3/165 | . . . . . | {with the formula MF2, wherein M is Ca, Sr or Ba} [2013-01] |
H01S 3/1651 | . . . . . | {SrAlF5} [2013-01] |
H01S 3/1653 | . . . . . | {YLiF4(YLF, LYF)} [2013-01] |
H01S 3/1655 | . . . . | {silicate} [2013-01] |
H01S 3/1656 | . . . . . | {BeAl2(SiO3)6} [2013-01] |
H01S 3/1658 | . . . . . | {Mg2SiO4 (Forsterite)} [2013-01] |
H01S 3/166 | . . . . . | {La3Ga5SiO14 [LGS]} [2013-01] |
H01S 3/1661 | . . . . . | {Y2SiO5 [YSO]} [2013-01] |
H01S 3/1663 | . . . . | {beryllate} [2013-01] |
H01S 3/1665 | . . . . . | {La2Be2O5 [BEL]} [2013-01] |
H01S 3/1666 | . . . . | {borate, carbonate, arsenide} [2013-01] |
H01S 3/1668 | . . . . | {scandate} [2013-01] |
H01S 3/167 | . . . . . | {Sc2O3} [2013-01] |
H01S 3/1671 | . . . . | {vanadate, niobate, tantalate} [2013-01] |
H01S 3/1673 | . . . . . | {YVO4 [YVO]} [2013-01] |
H01S 3/1675 | . . . . | {titanate, germanate, molybdate, tungstate} [2013-01] |
H01S 3/1676 | . . . . . | {Li4Ge5O12} [2013-01] |
H01S 3/1678 | . . . . . | {LaBGeO5} [2013-01] |
H01S 3/168 | . . . | {using an organic dye dispersed in a solid matrix} [2013-01] |
H01S 3/1681 | . . . | {using colour centres} [2013-01] |
H01S 3/1683 | . . . | {using superconductivity, e.g. provided with Josephson junctions} [2016-08] |
H01S 3/1685 | . . . | {Ceramics} [2013-01] |
H01S 3/1686 | . . . | {Liquid crystal active layer} [2013-01] |
H01S 3/1688 | . . . | {Stoichiometric laser compounds, i.e. in which the active element forms one component of a stoichiometric formula rather than being merely a dopant} [2013-01] |
H01S 3/169 | . . . | {Nanoparticles, e.g. doped nanoparticles acting as a gain material} [2013-01] |
H01S 3/1691 | . . . | {characterised by additives / sensitisers / promoters as further dopants} [2013-01] |
H01S 3/1693 | . . . . | {aluminium} [2013-01] |
H01S 3/1695 | . . . . | {germanium} [2013-01] |
H01S 3/1696 | . . . . | {transition metal} [2013-01] |
H01S 3/1698 | . . . . | {rare earth} [2013-01] |
H01S 3/17 | . . . | amorphous, e.g. glass [2019-01] |
H01S 3/171 | . . . . | {chalcogenide glass} [2013-01] |
H01S 3/172 | . . . . | {selenide glass} [2013-01] |
H01S 3/173 | . . . . | {fluoride glass, e.g. fluorozirconate or ZBLAN [ ZrF4-BaF2-LaF3-AlF3-NaF]} [2013-01] |
H01S 3/175 | . . . . | {phosphate glass} [2013-01] |
H01S 3/176 | . . . . | {silica or silicate glass} [2013-01] |
H01S 3/177 | . . . . | {telluride glass} [2013-01] |
H01S 3/178 | . . . . | {plastic} [2013-01] |
H01S 3/20 | . . | Liquids [2013-01] |
H01S 3/207 | . . . | including a chelate {, e.g. including atoms or ions, e.g. Nd} [2016-08] |
H01S 3/213 | . . . | including an organic dye [2013-01] |
H01S 3/22 | . . | Gases [2013-01] |
H01S 3/2207 | . . . | {Noble gas ions, e.g. Ar+>, Kr+>} [2013-01] |
H01S 3/2215 | . . . | {Iodine compounds or atomic iodine} [2013-01] |
H01S 3/2222 | . . . | {Neon, e.g. in helium-neon (He-Ne) systems} [2013-01] |
H01S 3/223 | . . . | the active gas being polyatomic, i.e. containing two or more atoms (H01S 3/227 takes precedence) [2023-01] |
H01S 3/2232 | . . . . | {Carbon dioxide (CO2) or monoxide [CO]} [2013-01] |
H01S 3/2235 | . . . . | {Dye vapour} [2013-01] |
H01S 3/2237 | . . . . | {Molecular nitrogen (N2), e.g. in noble gas-N2 systems} [2013-01] |
H01S 3/225 | . . . . | comprising an excimer or exciplex [2013-01] |
H01S 3/2251 | . . . . . | {ArF, i.e. argon fluoride is comprised for lasing around 193 nm} [2013-01] |
H01S 3/2253 | . . . . . | {XeCl, i.e. xenon chloride is comprised for lasing around 308 nm} [2013-01] |
H01S 3/2255 | . . . . . | {XeF, i.e. xenon fluoride is comprised for lasing around 351 nm} [2013-01] |
H01S 3/2256 | . . . . . | {KrF, i.e. krypton fluoride is comprised for lasing around 248 nm} [2013-01] |
H01S 3/2258 | . . . . . | {F2, i.e. molecular fluoride is comprised for lasing around 157 nm} [2013-01] |
H01S 3/227 | . . . | Metal vapour [2013-01] |
H01S 3/23 | . |
H01S 3/2308 | . . | {Amplifier arrangements, e.g. MOPA} [2013-01] |
H01S 3/2316 | . . . | {Cascaded amplifiers} [2013-01] |
H01S 3/2325 | . . . | {Multi-pass amplifiers, e.g. regenerative amplifiers} [2013-01] |
H01S 3/2333 | . . . . | {Double-pass amplifiers} [2013-01] |
H01S 3/2341 | . . . . | {Four pass amplifiers} [2013-01] |
H01S 3/235 | . . . . | {Regenerative amplifiers} [2013-01] |
H01S 3/2358 | . . | {comprising dyes as the active medium} [2013-01] |
H01S 3/2366 | . . | {comprising a gas as the active medium (H01S 3/10092, H01S 3/2383 take precedence)} [2013-01] |
H01S 3/2375 | . . | {Hybrid lasers (H01S 3/07 takes precedence)} [2013-01] |
H01S 3/2383 | . . | {Parallel arrangements} [2013-01] |
H01S 3/2391 | . . . | {emitting at different wavelengths} [2013-01] |
H01S 3/30 | . | using scattering effects, e.g. stimulated Brillouin or Raman effects [2013-01] |
H01S 3/302 | . . | {in an optical fibre} [2013-01] |
H01S 3/305 | . . | {in a gas} [2013-01] |
H01S 3/307 | . . | {in a liquid} [2013-01] |
H01S 4/00 |
| H01S 5/00 | NOTE
|
H01S 5/0014 | . |
H01S 5/0021 | . . | {Degradation or life time measurements} [2013-01] |
H01S 5/0028 | . . | {Laser diodes used as detectors} [2013-01] |
H01S 5/0035 | . . | {Simulations of laser characteristics} [2013-01] |
H01S 5/0042 | . . | {On wafer testing, e.g. lasers are tested before separating wafer into chips} [2013-01] |
H01S 5/005 | . | {Optical components external to the laser cavity, specially adapted therefor, e.g. for homogenisation or merging of the beams or for manipulating laser pulses, e.g. pulse shaping (H01S 5/026, H01S 5/18388 take precedence)} [2022-01] |
H01S 5/0057 | . . | {for temporal shaping, e.g. pulse compression, frequency chirping} [2021-01] |
H01S 5/0064 | . . | {Anti-reflection components, e.g. optical isolators} [2021-01] |
H01S 5/0071 | . . | {for beam steering, e.g. using a mirror outside the cavity to change the beam direction} [2021-01] |
H01S 5/0078 | . . | {for frequency filtering} [2021-01] |
H01S 5/0085 | . . | {for modulating the output, i.e. the laser beam is modulated outside the laser cavity} [2021-01] |
H01S 5/0092 | . . | {for nonlinear frequency conversion, e.g. second harmonic generation [SHG] or sum- or difference-frequency generation outside the laser cavity} [2021-01] |
H01S 5/02 | . | Structural details or components not essential to laser action [2013-01] |
H01S 5/0201 | . . | {Separation of the wafer into individual elements, e.g. by dicing, cleaving, etching or directly during growth} [2013-01] |
H01S 5/0202 | . . . | {Cleaving} [2013-01] |
H01S 5/0203 | . . . | {Etching} [2013-01] |
H01S 5/0205 | . . . | {during growth of the semiconductor body} [2013-01] |
H01S 5/0206 | . . | {Substrates, e.g. growth, shape, material, removal or bonding; (specific crystal orientation H01S 5/3202)} [2013-01] |
H01S 5/0207 | . . . | {Substrates having a special shape} [2013-01] |
H01S 5/0208 | . . . | {Semi-insulating substrates} [2013-01] |
H01S 5/021 | . . . | {Silicon based substrates} [2013-01] |
H01S 5/0211 | . . . | {Substrates made of ternary or quaternary compounds} [2013-01] |
H01S 5/0212 | . . . . | {with a graded composition} [2013-01] |
H01S 5/0213 | . . . | {Sapphire, quartz or diamond based substrates} [2013-01] |
H01S 5/0215 | . . . | {Bonding to the substrate} [2013-01] |
H01S 5/0216 | . . . . | {using an intermediate compound, e.g. a glue or solder} [2013-01] |
H01S 5/0217 | . . . | {Removal of the substrate} [2013-01] |
H01S 5/0218 | . . . | {Substrates comprising semiconducting materials from other groups of the Periodic Table than the materials of the active layer} [2024-08] |
H01S 5/022 | . . | Mountings; Housings [2023-08] |
H01S 5/02208 | . . . | characterised by the shape of the housings [2021-01] |
H01S 5/02212 | . . . . | Can-type, e.g. TO-CAN housings with emission along or parallel to symmetry axis [2021-01] |
H01S 5/02216 | . . . . | Butterfly-type, i.e. with electrode pins extending horizontally from the housings [2021-01] |
H01S 5/02218 | . . . | Material of the housings; Filling of the housings [2023-08] |
H01S 5/0222 | . . . . | Gas-filled housings [2021-01] |
H01S 5/02224 | . . . . . | the gas comprising oxygen, e.g. for avoiding contamination of the light emitting facets [2021-01] |
H01S 5/02232 | . . . . | Liquid-filled housings [2021-01] |
H01S 5/02234 | . . . . | Resin-filled housings; the housings being made of resin [2021-01] |
H01S 5/02235 | . . . | Getter material for absorbing contamination [2021-01] |
H01S 5/0225 | . . . | Out-coupling of light [2021-01] |
H01S 5/02251 | . . . . | using optical fibres [2021-01] |
H01S 5/02253 | . . . . | using lenses [2021-01] |
H01S 5/02255 | . . . . | using beam deflecting elements [2021-01] |
H01S 5/02257 | . . . . | using windows, e.g. specially adapted for back-reflecting light to a detector inside the housing [2021-01] |
H01S 5/023 | . . . | Mount members, e.g. sub-mount members [2023-08] |
H01S 5/0231 | . . . . | Stems [2023-08] |
H01S 5/02315 | . . . . | Support members, e.g. bases or carriers [2023-08] |
H01S 5/0232 | . . . . | Lead-frames [2023-08] |
H01S 5/02325 | . . . . | Mechanically integrated components on mount members or optical micro-benches [2021-01] |
H01S 5/02326 | . . . . . | Arrangements for relative positioning of laser diodes and optical components, e.g. grooves in the mount to fix optical fibres or lenses [2021-01] |
H01S 5/0233 | . . . | Mounting configuration of laser chips [2023-08] |
H01S 5/02335 | . . . . | Up-side up mountings, e.g. epi-side up mountings or junction up mountings [2023-08] |
H01S 5/0234 | . . . . | Up-side down mountings, e.g. Flip-chip, epi-side down mountings or junction down mountings [2021-01] |
H01S 5/02345 | . . . . | Wire-bonding [2021-01] |
H01S 5/0235 | . . . | Method for mounting laser chips [2021-01] |
H01S 5/02355 | . . . . | Fixing laser chips on mounts [2021-01] |
H01S 5/0236 | . . . . . | using an adhesive [2021-01] |
H01S 5/02365 | . . . . . | by clamping [2021-01] |
H01S 5/0237 | . . . . . | by soldering [2021-01] |
H01S 5/02375 | . . . . | Positioning of the laser chips [2023-08] |
H01S 5/0238 | . . . . . | using marks [2023-08] |
H01S 5/02385 | . . . . . | using laser light as reference [2023-08] |
H01S 5/0239 | . . . | Combinations of electrical or optical elements [2023-08] |
H01S 5/024 | . . | Arrangements for thermal management [2021-01] |
H01S 5/02407 | . . . | {Active cooling, e.g. the laser temperature is controlled by a thermo-electric cooler or water cooling} [2013-01] |
H01S 5/02415 | . . . . | {by using a thermo-electric cooler [TEC], e.g. Peltier element} [2013-01] |
H01S 5/02423 | . . . . | {Liquid cooling, e.g. a liquid cools a mount of the laser} [2013-01] |
H01S 5/0243 | . . . . . | {Laser is immersed in the coolant, i.e. the whole laser chip is immersed in the liquid for cooling} [2013-01] |
H01S 5/02438 | . . . | {Characterized by cooling of elements other than the laser chip, e.g. an optical element being part of an external cavity or a collimating lens} [2020-05] |
H01S 5/02446 | . . . . | {Cooling being separate from the laser chip cooling} [2020-05] |
H01S 5/02453 | . . . | {Heating, e.g. the laser is heated for stabilisation against temperature fluctuations of the environment (H01S 5/0612 takes precedence, for monolithically integrated heaters see also H01S 5/0261)} [2013-01] |
H01S 5/02461 | . . . | {Structure or details of the laser chip to manipulate the heat flow, e.g. passive layers in the chip with a low heat conductivity} [2013-01] |
H01S 5/02469 | . . . | {Passive cooling, e.g. where heat is removed by the housing as a whole or by a heat pipe without any active cooling element like a TEC} [2013-01] |
H01S 5/02476 | . . . | {Heat spreaders, i.e. improving heat flow between laser chip and heat dissipating elements} [2013-01] |
H01S 5/02484 | . . . . | {Sapphire or diamond heat spreaders} [2013-01] |
H01S 5/02492 | . . . . | {CuW heat spreaders} [2013-01] |
H01S 5/026 | . . | Monolithically integrated components, e.g. waveguides, monitoring photo-detectors, drivers (stabilisation of output H01S 5/06) [2019-01] |
H01S 5/0261 | . . . | {Non-optical elements, e.g. laser driver components, heaters (H01S 5/0265 takes precedence)} [2013-01] |
H01S 5/0262 | . . . | {Photo-diodes, e.g. transceiver devices, bidirectional devices (H01S 5/0265 takes precedence)} [2013-01] |
H01S 5/0264 | . . . . | {for monitoring the laser-output} [2013-01] |
H01S 5/0265 | . . . | {Intensity modulators (intra-cavity modulators H01S 5/0625)} [2018-02] |
H01S 5/0267 | . . . | {Integrated focusing lens (H01S 5/18388 takes precedence)} [2013-01] |
H01S 5/0268 | . . . | {Integrated waveguide grating router, e.g. emission of a multi-wavelength laser array is combined by a "dragon router"} [2013-01] |
H01S 5/028 | . . | Coatings {; Treatment of the laser facets, e.g. etching, passivation layers or reflecting layers} [2017-08] |
H01S 5/0281 | . . . | {Coatings made of semiconductor materials} [2013-01] |
H01S 5/0282 | . . . | {Passivation layers or treatments} [2013-01] |
H01S 5/0283 | . . . . | {Optically inactive coating on the facet, e.g. half-wave coating} [2013-01] |
H01S 5/0284 | . . . | {Coatings with a temperature dependent reflectivity} [2013-01] |
H01S 5/0285 | . . . | {Coatings with a controllable reflectivity} [2013-01] |
H01S 5/0286 | . . . | {Coatings with a reflectivity that is not constant over the facets, e.g. apertures} [2013-01] |
H01S 5/0287 | . . . | {Facet reflectivity} [2013-01] |
H01S 5/0288 | . . . . | {Detuned facet reflectivity, i.e. reflectivity peak is different from gain maximum} [2013-01] |
H01S 5/04 | . | Processes or apparatus for excitation, e.g. pumping, {e.g. by electron beams}(H01S 5/06 takes precedence) [2013-01] |
H01S 5/041 | . . | {Optical pumping} [2013-01] |
H01S 5/042 | . . | Electrical excitation {; Circuits therefor (monolithically integrated laser drive components H01S 5/0261)} [2020-05] |
H01S 5/0421 | . . . | {characterised by the semiconducting contacting layers (electrodes H01S 5/0425)} [2013-01] |
H01S 5/0422 | . . . . | {with n- and p-contacts on the same side of the active layer} [2013-01] |
H01S 5/0424 | . . . . . | {lateral current injection} [2013-01] |
H01S 5/0425 | . . . | {Electrodes, e.g. characterised by the structure} [2020-08] |
H01S 5/04252 | . . . . | {characterised by the material} [2020-08] |
H01S 5/04253 | . . . . . | {having specific optical properties, e.g. transparent electrodes} [2020-08] |
H01S 5/04254 | . . . . | {characterised by the shape} [2020-08] |
H01S 5/04256 | . . . . | {characterised by the configuration} [2020-08] |
H01S 5/04257 | . . . . . | {having positive and negative electrodes on the same side of the substrate} [2020-08] |
H01S 5/0427 | . . . | {for applying modulation to the laser} [2013-01] |
H01S 5/0428 | . . . | {for applying pulses to the laser} [2013-01] |
H01S 5/06 | . | Arrangements for controlling the laser output parameters, e.g. by operating on the active medium [2019-01] |
H01S 5/0601 | . . | {comprising an absorbing region (H01S 5/0604, H01S 5/0607, H01S 5/0615 and H01S 5/065 take precedence; bistable laser devices in general G02F 3/026)} [2013-01] |
H01S 5/0602 | . . . | {which is an umpumped part of the active layer} [2013-01] |
H01S 5/0604 | . . | {comprising a non-linear region, e.g. generating harmonics of the laser frequency} [2013-01] |
H01S 5/0605 | . . . | {Self doubling, e.g. lasing and frequency doubling by the same active medium} [2013-01] |
H01S 5/0607 | . . | {by varying physical parameters other than the potential of the electrodes, e.g. by an electric or magnetic field, mechanical deformation, pressure, light, temperature} [2013-01] |
H01S 5/0608 | . . . | {controlled by light, e.g. optical switch} [2013-01] |
H01S 5/0609 | . . . . | {acting on an absorbing region, e.g. wavelength convertors} [2013-01] |
H01S 5/0611 | . . . . . | {wavelength convertors} [2020-05] |
H01S 5/0612 | . . . | {controlled by temperature} [2013-01] |
H01S 5/0614 | . . . | {controlled by electric field, i.e. whereby an additional electric field is used to tune the bandgap, e.g. using the Stark-effect} [2017-01] |
H01S 5/0615 | . . | {Q-switching, i.e. in which the quality factor of the optical resonator is rapidly changed} [2013-01] |
H01S 5/0617 | . . | {using memorised or pre-programmed laser characteristics} [2013-01] |
H01S 5/0618 | . . | {Details on the linewidth enhancement parameter alpha} [2013-01] |
H01S 5/062 | . . |
H01S 5/06203 | . . . | {Transistor-type lasers (H01S 5/0608 takes precedence)} [2013-01] |
H01S 5/06206 | . . . . | {Controlling the frequency of the radiation, e.g. tunable twin-guide lasers [TTG]} [2013-01] |
H01S 5/06209 | . . . | {in single-section lasers (H01S 5/0608 takes precedence)} [2013-01] |
H01S 5/06213 | . . . . | {Amplitude modulation} [2013-01] |
H01S 5/06216 | . . . . | {Pulse modulation or generation} [2013-01] |
H01S 5/0622 | . . . . | {Controlling the frequency of the radiation} [2013-01] |
H01S 5/06223 | . . . | {using delayed or positive feedback} [2013-01] |
H01S 5/06226 | . . . | {Modulation at ultra-high frequencies} [2013-01] |
H01S 5/0623 | . . . . | {using the beating between two closely spaced optical frequencies, i.e. heterodyne mixing} [2013-01] |
H01S 5/06233 | . . . | {Controlling other output parameters than intensity or frequency} [2013-01] |
H01S 5/06236 | . . . . | {controlling the polarisation, e.g. TM/TE polarisation switching} [2013-01] |
H01S 5/0624 | . . . . | {controlling the near- or far field} [2013-01] |
H01S 5/06243 | . . . . | {controlling the position or direction of the emitted beam} [2013-01] |
H01S 5/06246 | . . . . | {controlling the phase} [2013-01] |
H01S 5/0625 | . . . | in multi-section lasers [2013-01] |
H01S 5/06251 | . . . . | {Amplitude modulation} [2013-01] |
H01S 5/06253 | . . . . | {Pulse modulation} [2013-01] |
H01S 5/06255 | . . . . | {Controlling the frequency of the radiation} [2013-01] |
H01S 5/06256 | . . . . . | {with DBR-structure} [2013-01] |
H01S 5/06258 | . . . . . | {with DFB-structure} [2013-01] |
H01S 5/065 | . . | Mode locking; Mode suppression; Mode selection {; Self pulsating} [2017-08] |
H01S 5/0651 | . . . | {Mode control} [2013-01] |
H01S 5/0652 | . . . . | {Coherence lowering or collapse, e.g. multimode emission by additional input or modulation} [2013-01] |
H01S 5/0653 | . . . . | {Mode suppression, e.g. specific multimode} [2013-01] |
H01S 5/0654 | . . . . . | {Single longitudinal mode emission} [2013-01] |
H01S 5/0655 | . . . . . | {Single transverse or lateral mode emission} [2013-01] |
H01S 5/0656 | . . . | {Seeding, i.e. an additional light input is provided for controlling the laser modes, for example by back-reflecting light from an external optical component (H01S 5/14, H01S 5/4062 and H01S 5/4006 take precedence)} [2013-01] |
H01S 5/0657 | . . . | {Mode locking, i.e. generation of pulses at a frequency corresponding to a roundtrip in the cavity} [2018-02] |
H01S 5/0658 | . . . | {Self-pulsating} [2013-01] |
H01S 5/068 | . . |
H01S 5/06804 | . . . | {by monitoring an external parameter, e.g. temperature} [2013-01] |
H01S 5/06808 | . . . | {by monitoring the electrical laser parameters, e.g. voltage or current} [2013-01] |
H01S 5/06812 | . . . | {by monitoring or fixing the threshold current or other specific points of the L-I or V-I characteristics} [2013-01] |
H01S 5/06817 | . . . | {Noise reduction} [2013-01] |
H01S 5/06821 | . . . | {Stabilising other output parameters than intensity or frequency, e.g. phase, polarisation or far-fields} [2013-01] |
H01S 5/06825 | . . . | {Protecting the laser, e.g. during switch-on/off, detection of malfunctioning or degradation} [2013-01] |
H01S 5/0683 | . . . | by monitoring the optical output parameters [2015-11] |
H01S 5/06832 | . . . . | {Stabilising during amplitude modulation} [2013-01] |
H01S 5/06835 | . . . . | {Stabilising during pulse modulation or generation} [2013-01] |
H01S 5/06837 | . . . . | {Stabilising otherwise than by an applied electric field or current, e.g. by controlling the temperature} [2013-01] |
H01S 5/0687 | . . . . | Stabilising the frequency of the laser [2013-01] |
H01S 5/10 | . | Construction or shape of the optical resonator {, e.g. extended or external cavity, coupled cavities, bent-guide, varying width, thickness or composition of the active region (H01S 5/20 takes precedence)} [2017-08] |
H01S 5/1003 | . . | {Waveguide having a modified shape along the axis, e.g. branched, curved, tapered, voids} [2013-01] |
H01S 5/1007 | . . . | {Branched waveguides} [2013-01] |
H01S 5/101 | . . . | {Curved waveguide (H01S 5/1243 takes precedence)} [2013-01] |
H01S 5/1014 | . . . | {Tapered waveguide, e.g. spotsize converter (H01S 5/1064 takes precedence)} [2013-01] |
H01S 5/1017 | . . . | {Waveguide having a void for insertion of materials to change optical properties} [2013-01] |
H01S 5/1021 | . . | {Coupled cavities (H01S 5/14 takes precedence)} [2013-01] |
H01S 5/1025 | . . | {Extended cavities} [2013-01] |
H01S 5/1028 | . . | {Coupling to elements in the cavity, e.g. coupling to waveguides adjacent the active region, e.g. forward coupled [DFC] structures} [2013-01] |
H01S 5/1032 | . . . | {Coupling to elements comprising an optical axis that is not aligned with the optical axis of the active region} [2013-01] |
H01S 5/1035 | . . . . | {Forward coupled structures [DFC]} [2013-01] |
H01S 5/1039 | . . | {Details on the cavity length} [2013-01] |
H01S 5/1042 | . . | {Optical microcavities, e.g. cavity dimensions comparable to the wavelength} [2013-01] |
H01S 5/1046 | . . | {Comprising interactions between photons and plasmons, e.g. by a corrugated surface} [2013-01] |
H01S 5/1053 | . . | {Comprising an active region having a varying composition or cross-section in a specific direction} [2018-02] |
H01S 5/1057 | . . . | {varying composition along the optical axis} [2013-01] |
H01S 5/106 | . . . | {varying thickness along the optical axis} [2013-01] |
H01S 5/1064 | . . . | {varying width along the optical axis} [2013-01] |
H01S 5/1067 | . . . | {comprising nanoparticles} [2013-01] |
H01S 5/1071 | . . | {Ring-lasers} [2013-01] |
H01S 5/1075 | . . . | {Disk lasers with special modes, e.g. whispering gallery lasers} [2013-01] |
H01S 5/1078 | . . | {with means to control the spontaneous emission, e.g. reducing or reinjection} [2013-01] |
H01S 5/1082 | . . | {with a special facet structure, e.g. structured, non planar, oblique} [2013-01] |
H01S 5/1085 | . . . | {Oblique facets} [2013-01] |
H01S 5/1089 | . . | {Unstable resonators} [2013-01] |
H01S 5/1092 | . . | {Multi-wavelength lasing} [2013-01] |
H01S 5/1096 | . . . | {in a single cavity} [2013-01] |
H01S 5/11 | . . | Comprising a photonic bandgap structure [2023-08] |
H01S 5/12 | . . |
H01S 5/1203 | . . . | {over only a part of the length of the active region} [2013-01] |
H01S 5/1206 | . . . | {having a non constant or multiplicity of periods} [2013-01] |
H01S 5/1209 | . . . . | {Sampled grating} [2013-01] |
H01S 5/1212 | . . . . | {Chirped grating} [2013-01] |
H01S 5/1215 | . . . . | {Multiplicity of periods} [2013-01] |
H01S 5/1218 | . . . . . | {in superstructured configuration, e.g. more than one period in an alternate sequence} [2013-01] |
H01S 5/1221 | . . . | {Detuning between Bragg wavelength and gain maximum} [2013-01] |
H01S 5/1225 | . . . | {with a varying coupling constant along the optical axis} [2013-01] |
H01S 5/1228 | . . . | {DFB lasers with a complex coupled grating, e.g. gain or loss coupling} [2013-01] |
H01S 5/1231 | . . . | {Grating growth or overgrowth details} [2013-01] |
H01S 5/1234 | . . . | {Actively induced grating, e.g. acoustically or electrically induced} [2013-01] |
H01S 5/1237 | . . . | {Lateral grating, i.e. grating only adjacent ridge or mesa} [2013-01] |
H01S 5/124 | . . . | {incorporating phase shifts} [2013-01] |
H01S 5/1243 | . . . . | {by other means than a jump in the grating period, e.g. bent waveguides} [2013-01] |
H01S 5/1246 | . . . . | {plurality of phase shifts} [2013-01] |
H01S 5/125 | . . . | Distributed Bragg reflector [DBR] lasers [2018-02] |
| H01S 5/14 | . . | NOTE
|
H01S 5/141 | . . . | {using a wavelength selective device, e.g. a grating or etalon (H01S 5/146 takes precedence)} [2013-01] |
H01S 5/142 | . . . . | {which comprises an additional resonator} [2013-01] |
H01S 5/143 | . . . . | {Littman-Metcalf configuration, e.g. laser - grating - mirror} [2013-01] |
H01S 5/145 | . . . | {Phase conjugate mirrors} [2013-01] |
H01S 5/146 | . . . | {using a fiber as external cavity} [2013-01] |
H01S 5/147 | . . . . | {having specially shaped fibre, e.g. lensed or tapered end portion} [2013-01] |
H01S 5/148 | . . . | {using a Talbot cavity} [2013-01] |
H01S 5/16 | . . | Window-type lasers, i.e. with a region of non-absorbing material between the active region and the reflecting surface (H01S 5/14 takes precedence) [2021-01] |
H01S 5/162 | . . . | {with window regions made by diffusion or disordening of the active layer} [2013-01] |
H01S 5/164 | . . . | {with window regions comprising semiconductor material with a wider bandgap than the active layer} [2013-01] |
H01S 5/166 | . . . | {with window regions comprising non-semiconducting materials} [2013-01] |
H01S 5/168 | . . . | {with window regions comprising current blocking layers} [2013-01] |
H01S 5/18 | . . | Surface-emitting [SE] lasers, e.g. having both horizontal and vertical cavities [2023-08] |
H01S 5/183 | . . . | having only vertical cavities, e.g. vertical cavity surface-emitting lasers [VCSEL] [2021-01] |
H01S 5/18302 | . . . . | {comprising an integrated optical modulator} [2013-01] |
H01S 5/18305 | . . . . | {with emission through the substrate, i.e. bottom emission} [2013-01] |
H01S 5/18308 | . . . . | {having a special structure for lateral current or light confinement} [2013-01] |
H01S 5/18311 | . . . . . | {using selective oxidation} [2013-01] |
H01S 5/18313 | . . . . . . | {by oxidizing at least one of the DBR layers} [2013-01] |
H01S 5/18316 | . . . . . | {Airgap confined} [2013-01] |
H01S 5/18319 | . . . . . | {comprising a periodical structure in lateral directions} [2021-01] |
H01S 5/18322 | . . . . . | {Position of the structure} [2013-01] |
H01S 5/18325 | . . . . . . | {Between active layer and substrate} [2013-01] |
H01S 5/18327 | . . . . . . | {Structure being part of a DBR (H01S 5/18391 takes precedence)} [2013-01] |
H01S 5/1833 | . . . . . . | {with more than one structure} [2013-01] |
H01S 5/18333 | . . . . . . . | {only above the active layer} [2013-01] |
H01S 5/18336 | . . . . . . . | {only below the active layer} [2013-01] |
H01S 5/18338 | . . . . . | {Non-circular shape of the structure} [2013-01] |
H01S 5/18341 | . . . . | {Intra-cavity contacts} [2013-01] |
H01S 5/18344 | . . . . | {characterized by the mesa, e.g. dimensions or shape of the mesa} [2013-01] |
H01S 5/18347 | . . . . . | {Mesa comprising active layer} [2013-01] |
H01S 5/1835 | . . . . . | {Non-circular mesa} [2013-01] |
H01S 5/18352 | . . . . . | {Mesa with inclined sidewall} [2013-01] |
H01S 5/18355 | . . . . | {having a defined polarisation} [2013-01] |
H01S 5/18358 | . . . . | {containing spacer layers to adjust the phase of the light wave in the cavity} [2013-01] |
H01S 5/18361 | . . . . | {Structure of the reflectors, e.g. hybrid mirrors} [2013-01] |
H01S 5/18363 | . . . . . | {comprising air layers} [2013-01] |
H01S 5/18366 | . . . . . . | {Membrane DBR, i.e. a movable DBR on top of the VCSEL} [2013-01] |
H01S 5/18369 | . . . . . | {based on dielectric materials} [2013-01] |
H01S 5/18372 | . . . . . . | {by native oxidation} [2013-01] |
H01S 5/18375 | . . . . . | {based on metal reflectors} [2013-01] |
H01S 5/18377 | . . . . . | {comprising layers of different kind of materials, e.g. combinations of semiconducting with dielectric or metallic layers} [2013-01] |
H01S 5/1838 | . . . . . | {Reflector bonded by wafer fusion or by an intermediate compound} [2013-01] |
H01S 5/18383 | . . . . | {with periodic active regions at nodes or maxima of light intensity} [2013-01] |
H01S 5/18386 | . . . . | {Details of the emission surface for influencing the near- or far-field, e.g. a grating on the surface} [2013-01] |
H01S 5/18388 | . . . . . | {Lenses} [2013-01] |
H01S 5/18391 | . . . . . | {Aperiodic structuring to influence the near- or far-field distribution} [2013-01] |
H01S 5/18394 | . . . . . | {Apertures, e.g. defined by the shape of the upper electrode} [2013-01] |
H01S 5/18397 | . . . . | {Plurality of active layers vertically stacked in a cavity for multi-wavelength emission} [2013-01] |
H01S 5/185 | . . . | having only horizontal cavities, e.g. horizontal cavity surface-emitting lasers [HCSEL] (comprising a photonic bandgap structure H01S 5/11) [2023-08] |
H01S 5/2004 | . . | {Confining in the direction perpendicular to the layer structure} [2013-01] |
H01S 5/2009 | . . . | {by using electron barrier layers} [2019-08] |
H01S 5/2013 | . . . . | {MQW barrier reflection layers} [2013-01] |
H01S 5/2018 | . . . | {Optical confinement, e.g. absorbing-, reflecting- or waveguide-layers} [2013-01] |
H01S 5/2022 | . . . . | {Absorbing region or layer parallel to the active layer, e.g. to influence transverse modes} [2013-01] |
H01S 5/2027 | . . . . | {Reflecting region or layer, parallel to the active layer, e.g. to modify propagation of the mode in the laser or to influence transverse modes} [2013-01] |
H01S 5/2031 | . . . . | {characterized by special waveguide layers, e.g. asymmetric waveguide layers or defined bandgap discontinuities} [2018-02] |
H01S 5/2036 | . . | {Broad area lasers} [2019-08] |
H01S 5/204 | . . | {Strongly index guided structures} [2013-01] |
H01S 5/2045 | . . . | {employing free standing waveguides or air gap confinement} [2013-01] |
H01S 5/205 | . . | {Antiguided structures} [2013-01] |
H01S 5/2054 | . . | {Methods of obtaining the confinement} [2013-01] |
H01S 5/2059 | . . . | {by means of particular conductivity zones, e.g. obtained by particle bombardment or diffusion} [2013-01] |
H01S 5/2063 | . . . . | {obtained by particle bombardment} [2013-01] |
H01S 5/2068 | . . . . | {obtained by radiation treatment or annealing} [2013-01] |
H01S 5/2072 | . . . . | {obtained by vacancy induced diffusion} [2013-01] |
H01S 5/2077 | . . . | {using lateral bandgap control during growth, e.g. selective growth, mask induced} [2013-01] |
H01S 5/2081 | . . . | {using special etching techniques} [2013-01] |
H01S 5/2086 | . . . . | {lateral etch control, e.g. mask induced} [2013-01] |
H01S 5/209 | . . . . | {special etch stop layers} [2013-01] |
H01S 5/2095 | . . . | {using melting or mass transport} [2013-01] |
H01S 5/22 | . . | having a ridge or stripe structure [2013-01] |
H01S 5/2201 | . . . | {in a specific crystallographic orientation} [2013-01] |
H01S 5/2202 | . . . | {by making a groove in the upper laser structure} [2013-01] |
H01S 5/2203 | . . . | {with a transverse junction stripe [TJS] structure} [2013-01] |
H01S 5/2205 | . . . | {comprising special burying or current confinement layers} [2013-01] |
H01S 5/2206 | . . . . | {based on III-V materials} [2013-01] |
H01S 5/2207 | . . . . . | {GaAsP based} [2013-01] |
H01S 5/2209 | . . . . . | {GaInP based} [2013-01] |
H01S 5/221 | . . . . . | {containing aluminium} [2013-01] |
H01S 5/2211 | . . . . | {based on II-VI materials} [2013-01] |
H01S 5/2213 | . . . . | {based on polyimide or resin} [2013-01] |
H01S 5/2214 | . . . . | {based on oxides or nitrides} [2013-01] |
H01S 5/2215 | . . . . . | {using native oxidation of semiconductor layers} [2013-01] |
H01S 5/2216 | . . . . . | {nitrides} [2013-01] |
H01S 5/2218 | . . . . | {having special optical properties} [2013-01] |
H01S 5/2219 | . . . . . | {absorbing} [2013-01] |
H01S 5/222 | . . . . . | {having a refractive index lower than that of the cladding layers or outer guiding layers} [2013-01] |
H01S 5/2222 | . . . . | {having special electric properties} [2013-01] |
H01S 5/2223 | . . . . . | {hetero barrier blocking layers, e.g. P-P or N-N} [2013-01] |
H01S 5/2224 | . . . . . | {semi-insulating semiconductors} [2013-01] |
H01S 5/2226 | . . . . . | {semiconductors with a specific doping} [2013-01] |
H01S 5/2227 | . . . . . | {special thin layer sequence} [2013-01] |
H01S 5/2228 | . . . . . . | {quantum wells} [2013-01] |
H01S 5/223 | . . . |
H01S 5/2231 | . . . . | {with inner confining structure only between the active layer and the upper electrode} [2013-01] |
H01S 5/2232 | . . . . | {with inner confining structure between the active layer and the lower electrode} [2013-01] |
H01S 5/2234 | . . . . . | {having a structured substrate surface} [2013-01] |
H01S 5/2235 | . . . . . . | {with a protrusion} [2013-01] |
H01S 5/2237 | . . . . | {with a non-planar active layer} [2013-01] |
H01S 5/2238 | . . . . | {with a terraced structure} [2013-01] |
H01S 5/227 | . . . | Buried mesa structure {; Striped active layer} [2017-08] |
H01S 5/2272 | . . . . | {grown by a mask induced selective growth} [2013-01] |
H01S 5/2275 | . . . . | {mesa created by etching} [2013-01] |
H01S 5/2277 | . . . . . | {double channel planar buried heterostructure [DCPBH] laser} [2013-01] |
H01S 5/24 | . . | having a grooved structure, e.g. V-grooved {, crescent active layer in groove, VSIS laser} [2017-08] |
H01S 5/30 | . | Structure or shape of the active region; Materials used for the active region [2013-01] |
H01S 5/3004 | . . | {employing a field effect structure for inducing charge-carriers, e.g. FET} [2013-01] |
H01S 5/3009 | . . . | {MIS or MOS conffigurations} [2013-01] |
H01S 5/3013 | . . | {AIIIBV compounds} [2015-12] |
H01S 5/3018 | . . | {AIIBVI compounds} [2015-12] |
H01S 5/3022 | . . | {AIVBVI compounds} [2015-12] |
H01S 5/3027 | . . | {IV compounds} [2013-01] |
H01S 5/3031 | . . . | {Si} [2013-01] |
H01S 5/3036 | . . . . | {SiC} [2013-01] |
H01S 5/304 | . . . . | {porous Si} [2013-01] |
H01S 5/3045 | . . . | {diamond} [2013-01] |
H01S 5/305 | . . | {characterised by the doping materials used in the laser structure} [2013-01] |
H01S 5/3054 | . . . | {p-doping} [2013-01] |
H01S 5/3059 | . . . . | {in II-VI materials} [2013-01] |
H01S 5/3063 | . . . . | {using Mg} [2013-01] |
H01S 5/3068 | . . . | {deep levels} [2013-01] |
H01S 5/3072 | . . . | {Diffusion blocking layer, i.e. a special layer blocking diffusion of dopants} [2013-01] |
H01S 5/3077 | . . . | {plane dependent doping} [2013-01] |
H01S 5/3081 | . . . . | {using amphoteric doping} [2013-01] |
H01S 5/3086 | . . . | {doping of the active layer} [2013-01] |
H01S 5/309 | . . . . | {doping of barrier layers that confine charge carriers in the laser structure, e.g. the barriers in a quantum well structure (barriers in quantum wells per se H01S 5/3407)} [2017-08] |
H01S 5/3095 | . . . | {Tunnel junction} [2013-01] |
H01S 5/32 | . . |
H01S 5/3201 | . . . | {incorporating bulkstrain effects, e.g. strain compensation, strain related to polarisation} [2013-01] |
H01S 5/3202 | . . . | {grown on specifically orientated substrates, or using orientation dependent growth} [2020-08] |
H01S 5/320225 | . . . . | {polar orientation} [2020-08] |
H01S 5/32025 | . . . . | {non-polar orientation} [2020-08] |
H01S 5/320275 | . . . . | {semi-polar orientation} [2020-08] |
H01S 5/3203 | . . . . | {on non-planar substrates to create thickness or compositional variations} [2013-01] |
H01S 5/3205 | . . . | {with an active layer having a graded composition in the growth direction} [2013-01] |
H01S 5/3206 | . . . | {ordering or disordering the natural superlattice in ternary or quaternary materials} [2013-01] |
H01S 5/3207 | . . . . | {ordered active layer} [2013-01] |
H01S 5/3209 | . . . . | {disordered active layer} [2013-01] |
H01S 5/321 | . . . | {having intermediate bandgap layers} [2013-01] |
H01S 5/3211 | . . . | {characterised by special cladding layers, e.g. details on band-discontinuities} [2013-01] |
H01S 5/3213 | . . . . | {asymmetric clading layers} [2013-01] |
H01S 5/3214 | . . . . | {comprising materials from other groups of the Periodic Table than the materials of the active layer, e.g. ZnSe claddings and GaAs active layer} [2024-08] |
H01S 5/3215 | . . . . | {graded composition cladding layers} [2013-01] |
H01S 5/3216 | . . . . | {quantum well or superlattice cladding layers} [2013-01] |
H01S 5/3218 | . . . . | {specially strained cladding layers, other than for strain compensation} [2013-01] |
H01S 5/3219 | . . . . | {explicitly Al-free cladding layers} [2013-01] |
H01S 5/322 | . . . | {type-II junctions} [2013-01] |
H01S 5/3222 | . . . | {in AIVBVI compounds, e.g. PbSSe-laser} [2015-12] |
H01S 5/3223 | . . . | {IV compounds} [2013-01] |
H01S 5/3224 | . . . . | {Si} [2013-01] |
H01S 5/3226 | . . . . . | {SiC} [2013-01] |
H01S 5/3227 | . . . . . | {porous Si} [2013-01] |
H01S 5/3228 | . . . . | {diamond} [2013-01] |
H01S 5/323 | . . . | in AIIIBV compounds, e.g. AlGaAs-laser, {InP-based laser} [2017-08] |
H01S 5/32308 | . . . . | {emitting light at a wavelength less than 900 nm} [2013-01] |
H01S 5/32316 | . . . . . | {comprising only (Al)GaAs} [2013-01] |
H01S 5/32325 | . . . . . | {red laser based on InGaP} [2013-01] |
H01S 5/32333 | . . . . . | {based on InGaAsP} [2013-01] |
H01S 5/32341 | . . . . . | {blue laser based on GaN or GaP} [2013-01] |
H01S 5/3235 | . . . . | {emitting light at a wavelength longer than 1000 nm, e.g. InP-based 1300 nm and 1500 nm lasers} [2013-01] |
H01S 5/32358 | . . . . . | {containing very small amounts, usually less than 1%, of an additional III or V compound to decrease the bandgap strongly in a non-linear way by the bowing effect} [2018-02] |
H01S 5/32366 | . . . . . . | {(In)GaAs with small amount of N} [2013-01] |
H01S 5/32375 | . . . . . . | {In(As)N with small amount of P, or In(As)P with small amount of N} [2013-01] |
H01S 5/32383 | . . . . . . | {small amount of Thallum (TI), e.g. GaTIP} [2016-08] |
H01S 5/32391 | . . . . . | {based on In(Ga)(As)P} [2016-08] |
H01S 5/327 | . . . | in AIIBVI compounds, e.g. ZnCdSe-laser [2015-12] |
H01S 5/34 | . . | comprising quantum well or superlattice structures, e.g. single quantum well [SQW] lasers, multiple quantum well [MQW] lasers or graded index separate confinement heterostructure [GRINSCH] lasers (H01S 5/36 takes precedence) [2023-02] |
H01S 5/3401 | . . . | {having no PN junction, e.g. unipolar lasers, intersubband lasers, quantum cascade lasers} [2013-01] |
H01S 5/3402 | . . . . | {intersubband lasers, e.g. transitions within the conduction or valence bands} [2013-01] |
H01S 5/3403 | . . . | {having a strained layer structure in which the strain performs a special function, e.g. general strain effects, strain versus polarisation} [2013-01] |
H01S 5/3404 | . . . . | {influencing the polarisation} [2013-01] |
H01S 5/3406 | . . . . | {including strain compensation} [2013-01] |
H01S 5/3407 | . . . | {characterised by special barrier layers} [2013-01] |
H01S 5/3408 | . . . | {characterised by specially shaped wells, e.g. triangular} [2013-01] |
H01S 5/3409 | . . . | {special GRINSCH structures} [2013-01] |
H01S 5/341 | . . . | {Structures having reduced dimensionality, e.g. quantum wires} [2017-01] |
H01S 5/3412 | . . . . | {quantum box or quantum dash} [2013-01] |
H01S 5/3413 | . . . | {comprising partially disordered wells or barriers} [2013-01] |
H01S 5/3414 | . . . . | {by vacancy induced interdiffusion} [2013-01] |
H01S 5/3415 | . . . | {containing details related to carrier capture times into wells or barriers} [2013-01] |
H01S 5/3416 | . . . . | {tunneling through barriers} [2013-01] |
H01S 5/3418 | . . . | {using transitions from higher quantum levels} [2013-01] |
H01S 5/3419 | . . . . | {intersubband lasers, e.g. laser transitions within the conduction or valence bands in non unipolar structures} [2013-01] |
H01S 5/342 | . . . | {containing short period superlattices [SPS]} [2013-01] |
H01S 5/3421 | . . . | {layer structure of quantum wells to influence the near/far field} [2013-01] |
H01S 5/3422 | . . . | {comprising type-II quantum wells or superlattices} [2013-01] |
H01S 5/3424 | . . . | {comprising freestanding wells} [2013-01] |
H01S 5/3425 | . . . | {comprising couples wells or superlattices} [2013-01] |
H01S 5/3426 | . . . | {in AIVBVI compounds, e.g. PbSSe-laser} [2015-12] |
H01S 5/3427 | . . . | {in IV compounds} [2013-01] |
H01S 5/3428 | . . . | {layer orientation perpendicular to the substrate} [2013-01] |
H01S 5/343 | . . . | in AIIIBV compounds, e.g. AlGaAs-laser {, InP-based laser} [2017-08] |
H01S 5/34306 | . . . . | {emitting light at a wavelength longer than 1000nm, e.g. InP based 1300 and 1500nm lasers} [2013-01] |
H01S 5/34313 | . . . . | {with a well layer having only As as V-compound, e.g. AlGaAs, InGaAs} [2013-01] |
H01S 5/3432 | . . . . . | {the whole junction comprising only (AI)GaAs} [2013-01] |
H01S 5/34326 | . . . . | {with a well layer based on InGa(Al)P, e.g. red laser} [2013-01] |
H01S 5/34333 | . . . . | {with a well layer based on Ga(In)N or Ga(In)P, e.g. blue laser} [2013-01] |
H01S 5/3434 | . . . . | {with a well layer comprising at least both As and P as V-compounds} [2013-01] |
H01S 5/34346 | . . . . | {characterised by the materials of the barrier layers} [2013-01] |
H01S 5/34353 | . . . . . | {based on (AI)GaAs} [2013-01] |
H01S 5/3436 | . . . . . | {based on InGa(Al)P} [2013-01] |
H01S 5/34366 | . . . . . | {based on InGa(Al)AS} [2013-01] |
H01S 5/34373 | . . . . . | {based on InGa(Al)AsP} [2013-01] |
H01S 5/3438 | . . . . . | {based on In(Al)P} [2013-01] |
H01S 5/34386 | . . . . . | {explicitly Al-free} [2013-01] |
H01S 5/34393 | . . . . . | {not only based on AIIIBV compounds} [2015-12] |
H01S 5/347 | . . . | in AIIBVI compounds, e.g. ZnCdSe- laser [2015-12] |
H01S 5/36 | . . | comprising organic materials [2021-01] |
H01S 5/40 | . |
H01S 5/4006 | . . | {Injection locking} [2013-01] |
H01S 5/4012 | . . | {Beam combining, e.g. by the use of fibres, gratings, polarisers, prisms} [2013-01] |
H01S 5/4018 | . . | {Lasers electrically in series} [2013-01] |
H01S 5/4025 | . . | {Array arrangements, e.g. constituted by discrete laser diodes or laser bar (H01S 5/42 takes precedence)} [2013-01] |
H01S 5/4031 | . . . | {Edge-emitting structures} [2013-01] |
H01S 5/4037 | . . . . | {with active layers in more than one orientation} [2013-01] |
H01S 5/4043 | . . . . | {with vertically stacked active layers} [2013-01] |
H01S 5/405 | . . . . . | {Two-dimensional arrays} [2013-01] |
H01S 5/4056 | . . . . | {emitting light in more than one direction} [2013-01] |
H01S 5/4062 | . . . . | {with an external cavity or using internal filters, e.g. Talbot filters} [2013-01] |
H01S 5/4068 | . . . . | {with lateral coupling by axially offset or by merging waveguides, e.g. Y-couplers} [2013-01] |
H01S 5/4075 | . . . | {Beam steering} [2013-01] |
H01S 5/4081 | . . . | {Near-or far field control} [2013-01] |
H01S 5/4087 | . . . | {emitting more than one wavelength} [2013-01] |
H01S 5/4093 | . . . . | {Red, green and blue [RGB] generated directly by laser action or by a combination of laser action with nonlinear frequency conversion} [2013-01] |
H01S 5/42 | . . | Arrays of surface emitting lasers [2013-01] |
H01S 5/50 | . |
H01S 5/5009 | . . | {the arrangement being polarisation-insensitive} [2013-01] |
H01S 5/5018 | . . . | {using two or more amplifiers or multiple passes through the same amplifier} [2013-01] |
H01S 5/5027 | . . | {Concatenated amplifiers, i.e. amplifiers in series or cascaded} [2013-01] |
H01S 5/5036 | . . | {the arrangement being polarisation-selective} [2013-01] |
H01S 5/5045 | . . | {the arrangement having a frequency filtering function} [2013-01] |
H01S 5/5054 | . . | {in which the wavelength is transformed by non-linear properties of the active medium, e.g. four wave mixing} [2013-01] |
H01S 5/5063 | . . | {operating above threshold} [2013-01] |
H01S 5/5072 | . . . | {Gain clamping, i.e. stabilisation by saturation using a further mode or frequency} [2013-01] |
H01S 5/5081 | . . | {specifically standing wave amplifiers} [2013-01] |
H01S 5/509 | . . | {Wavelength converting amplifier, e.g. signal gating with a second beam using gain saturation} [2013-01] |
H01S 2301/00 | Functional characteristics [2013-01] |
H01S 2301/02 | . | ASE (amplified spontaneous emission), noise; Reduction thereof [2013-01] |
H01S 2301/03 | . | Suppression of nonlinear conversion, e.g. specific design to suppress for example stimulated brillouin scattering [SBS], mainly in optical fibres in combination with multimode pumping [2013-01] |
H01S 2301/04 | . | Gain spectral shaping, flattening [2013-01] |
H01S 2301/06 | . | Gain non-linearity, distortion; Compensation thereof [2013-01] |
H01S 2301/08 | . | Generation of pulses with special temporal shape or frequency spectrum [2013-01] |
H01S 2301/085 | . . | solitons [2013-01] |
H01S 2301/14 | . | Semiconductor lasers with special structural design for lasing in a specific polarisation mode [2013-01] |
H01S 2301/145 | . . | TM polarisation [2013-01] |
H01S 2301/16 | . | Semiconductor lasers with special structural design to influence the modes, e.g. specific multimode [2013-01] |
H01S 2301/163 | . . | Single longitudinal mode [2013-01] |
H01S 2301/166 | . . | Single transverse or lateral mode [2013-01] |
H01S 2301/17 | . | Semiconductor lasers comprising special layers [2013-01] |
H01S 2301/173 | . . | The laser chip comprising special buffer layers, e.g. dislocation prevention or reduction [2013-01] |
H01S 2301/176 | . . | Specific passivation layers on surfaces other than the emission facet [2013-01] |
H01S 2301/18 | . | Semiconductor lasers with special structural design for influencing the near- or far-field [2013-01] |
H01S 2301/185 | . . | for reduction of Astigmatism [2013-01] |
H01S 2301/20 | . | Lasers with a special output beam profile or cross-section, e.g. non-Gaussian [2018-02] |
H01S 2301/203 | . . | with at least one hole in the intensity distribution, e.g. annular or doughnut mode [2013-01] |
H01S 2301/206 | . . | Top hat profile [2013-01] |
| H01S 2302/00 | Amplification / lasing wavelength [2013-01] NOTE
|
H01S 2302/02 | . | THz - lasers, i.e. lasers with emission in the wavelength range of typically 0.1 mm to 1 mm [2013-01] |
| H01S 2303/00 | Pumping wavelength [2013-01] NOTE
|
H01S 2304/00 | Special growth methods for semiconductor lasers [2013-01] |
H01S 2304/02 | . | MBE [2013-01] |
H01S 2304/025 | . . | MOMBE [2013-01] |
H01S 2304/04 | . | MOCVD or MOVPE [2013-01] |
H01S 2304/06 | . | LPE [2013-01] |
H01S 2304/10 | . | CBE [2013-01] |
H01S 2304/12 | . | Pendeo epitaxial lateral overgrowth [ELOG], e.g. for growing GaN based blue laser diodes [2013-01] |