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Resonantly Fiber-Coupled Diode-Pumped Ho<sup>3+</sup>: YLiF<sub>4</sub>Laser in Continuous-Wave and Q-Switched Operation
19
Citations
24
References
2016
Year
EngineeringLaser ScienceLaser ApplicationsLaser PhysicsQ-switched OperationLaser MaterialSuper-intense LasersFiber LasersHigh-power LasersLaser ControlOptical AmplifierSemiconductor LasersOptical PropertiesLaser AmplifiersFiber-coupled Diode-pumped HoFiber LaserOptical PumpingPhotonicsLaser PumpingLaser DesignLaser ClassificationDiode-pumped HoExperimental Laser PerformanceHigh-energy LasersOptoelectronicsLasers
In this paper, the theoretical quantitative energy-level character and the experimental laser performance of resonantly fiber-coupled diode-pumped Ho <sup xmlns:mml="http://www.w3.org/1998/Math/MathML" xmlns:xlink="http://www.w3.org/1999/xlink">3+</sup> : YLiF <sub xmlns:mml="http://www.w3.org/1998/Math/MathML" xmlns:xlink="http://www.w3.org/1999/xlink">4</sub> (Ho: YLF) laser are first presented. More precise 2.7-level character of diode-pumped Ho: YLF laser can be acquired with our theoretical analysis. With the experimental study, a maximum slope efficiency of 88.5%, corresponding to an output power of 1.85 W, was obtained. In actively Q-switched operation, a maximum pulse energy of 0.3 mJ was achieved at the repetition frequency of 5 kHz with a minimum pulse duration of 160 ns. At a maximum repetition frequency of 100 kHz, a pulse energy of 16 μJ was achieved with a pulse duration of 816 ns. Both the performance in continuous-wave and Q-switched regimes indicates that the current resonantly fiber-coupled diode-pumped Ho: YLF laser has great potential in certain conditions that require several watts of average output power.
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