Transcription of Tunable Diode Lasers - TOPTICA
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Diode LasersUV, Visible, Infrared - Digital Control - Wavelength StabilizationAtom / Ion laser Cooling & TrappingDegenerate Quantum GasesColor Centers, Microresonators, Quantum DotsQuantum Communication, Computation & SimulationQuantum Metrology, Sensing & SpectroscopyNanostructuring & TestingVersion 2018: for latest product information please visit our webpage laser cooling Magneto-optical trapping Dipole traps and optical lattices Biosensing Near field optics Quantum optomechanics Quantum cryptography Quantum teleportation Photon storage & EIT LIDAR & Guide Star Trace gas analysis Spectroscopy Optical atom and ion clocks Ultra-stable laser oscillators High-resolution spectroscopy Holography Lithography Interferometry Magnetometry Electrometry Inertial & gravitation sensing Entangled photons Photon storage Single photon conversion Bose-Einstein condensation (BEC) Degenerate Fermi gases (DFG) Feshbach resonances Single & correlated photons Nanophotonics Semiconductor Lasers Ionization laser cooling Quantum state manipulation N-V, Si-V, Ge-V in diamond Quantum optics SpintronicsIon trap (R.)
linewidth measurement of a free-running DLC DL pro laser at 1160 nm with narrow linewidth option, exhibits a fast linewidth (5 μs) of only 5 kHz. Single-frequency diode lasers in general can exhibit significant frequency drifts if current, temperature or piezo voltages
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