Enhanced Yb:YAG Active Mirrors for High Power Laser Amplifiers
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[1] I. Laryushin,et al. Dynamics of Gas Ionization by Laser Pulses with Different Envelope Shapes , 2023, Photonics.
[2] T. Mocek,et al. Cryogenic laser operation of a “mixed” Yb:LuYAG garnet crystal , 2023, Applied Physics B.
[3] Qiong Zhou,et al. Influence of Large-Aperture Output Wavefront Distribution on Focal Spot in High-Power Laser Facility , 2023, Photonics.
[4] A. Kareiva,et al. Sol-Gel Synthesis and Characterization of Novel Y3−xMxAl5−yVyO12 (M—Na, K) Garnet-Type Compounds , 2023, Inorganics.
[5] M. Korzhik,et al. Micro-Nonuniformity of the Luminescence Parameters in Compositionally Disordered GYAGG:Ce Ceramics , 2023, Photonics.
[6] Zhuguo Li,et al. High-power diode-end-pumped 1314 nm laser based on the multi-segmented Nd:YLF crystal. , 2023, Optics letters.
[7] F. Kärtner,et al. One-joule 500-Hz cryogenic Yb:YAG laser driver of composite thin-disk design. , 2022, Optics letters.
[8] T. Kurita,et al. 253 J at 0.2 Hz, LD pumped cryogenic helium gas cooled Yb:YAG ceramics laser. , 2022, Optics express.
[9] G. V. Kuptsov,et al. Laser Method for Studying Temperature Distribution within Yb:YAG Active Elements , 2022, Photonics.
[10] F. Rachidi,et al. Laser-guided lightning , 2022, Nature Photonics.
[11] E. Goulielmakis,et al. High harmonic generation in condensed matter , 2022, Nature Photonics.
[12] H. Yoshida,et al. A 10-J, 100-Hz conduction-cooled active-mirror laser , 2022, Optics Continuum.
[13] Z. Fan,et al. Recent Development of High-Energy Short-Pulse Lasers with Cryogenically Cooled Yb:YAG , 2022, Applied Sciences.
[14] N. Al-Hosiny,et al. Mitigation of Thermal Effects in End Pumping of Nd:YAG and Composite YAG/Nd:YAG Laser Crystals, Modelling and Experiments , 2021, Technical Physics.
[15] J. Rocca,et al. Wake dynamics of air filaments generated by high-energy picosecond laser pulses at 1 kHz repetition rate. , 2021, Optics letters.
[16] Qing-li Zhang,et al. High-peak-power electro-optically Q-switched laser with a gradient-doped Nd:YAG crystal. , 2021, Optics letters.
[17] S. Wilks,et al. Accelerating the rate of discovery: toward high-repetition-rate HED science , 2021 .
[18] J. W. Yoon,et al. Multi-GeV Laser Wakefield Electron Acceleration with PW Lasers , 2021, Applied Sciences.
[19] Qing-li Zhang,et al. Superior performance of a 2 kHz pulse Nd:YAG laser based on a gradient-doped crystal , 2021, Photonics Research.
[20] C. Menoni,et al. 1.1 J Yb:YAG Picosecond Laser at 1 kHz Repetition Rate , 2020, 2021 Conference on Lasers and Electro-Optics (CLEO).
[21] Robert Bessing,et al. Ultrafast thin-disk multipass amplifier with 720 mJ operating at kilohertz repetition rate for applications in atmospheric research. , 2020, Optics express.
[22] A. Chew,et al. Attosecond science based on high harmonic generation from gases and solids , 2020, Nature Communications.
[23] Jian-Wei Pan,et al. 11-watt single-frequency 1342-nm laser based on multi-segmented Nd:YVO4 crystal. , 2019, Optics express.
[24] G. V. Kuptsov,et al. Optimisation of a multi-disk cryogenic amplifier for a high-intensity, high-repetition-rate laser system , 2018 .
[25] J. Hein,et al. Spatio‐Temporal Characterization of Pump‐Induced Wavefront Aberrations in Yb3 + ‐Doped Materials , 2018 .
[26] Y. M. Mandrik,et al. Synthesis of Y3Al5O12:Ce3+ phosphor in the Y2O3–Al metal–CeO2 ternary system , 2017, Journal of Materials Science.
[27] Peng Liu,et al. A 7.08-kW YAG/Nd:YAG/YAG Composite Ceramic Slab Laser with Dual Concentration Doping , 2017, IEEE Photonics Journal.
[28] Ferenc Krausz,et al. 1 kW, 200 mJ picosecond thin-disk laser system. , 2017, Optics letters.
[29] Zhaohui Huang,et al. Structure evolution and photoluminescence of Lu3(Al,Mg)2(Al,Si)3O12:Ce3+ phosphors: new yellow-color converters for blue LED-driven solid state lighting , 2016 .
[30] Antonio Lapucci,et al. Laser and optical properties of Yb:YAG ceramics with layered doping distribution: design, characterization and evaluation of different production processes , 2016, SPIE LASE.
[31] H. Zeng,et al. Mode-Locked Composite YAG/Yb:YAG Ceramic Laser and High-Power Amplification , 2016, IEEE Photonics Technology Letters.
[32] V. Atuchin,et al. Pressure-Stimulated Synthesis and Luminescence Properties of Microcrystalline (Lu,Y)₃Al₅O₁₂:Ce³⁺ Garnet Phosphors. , 2015, ACS applied materials & interfaces.
[33] P. J. Phillips,et al. Scalable design for a high energy cryogenic gas cooled diode pumped laser amplifier , 2015 .
[34] C Bollig,et al. High average power Q-switched 1314-nm two-crystal Nd:YLF laser. , 2015, Optics letters.
[35] P. Bakopoulos,et al. Actively Q-Switched Multisegmented Nd:YAG Laser Pumped at 885 nm for Remote Sensing , 2014, IEEE Photonics Technology Letters.
[36] V. A. Vasiliev,et al. High-intensity femtosecond laser systems based on coherent combining of optical fields , 2013 .
[37] Y. Chen,et al. High-power diode-end-pumped laser with multi-segmented Nd-doped yttrium vanadate. , 2013, Optics express.
[38] O. Antipov,et al. Electronic and thermal lensing in diode end-pumped Yb:YAG laser rods and discs , 2009 .
[39] V. Galutskiy,et al. Growth of single crystal with a gradient of concentration of impurities by the Czochralski method using additional liquid charging , 2009 .
[40] Dietmar Kracht,et al. End-pumped Nd:YAG laser with a longitudinal hyperbolic dopant concentration profile. , 2008, Optics express.
[41] Dietmar Kracht,et al. 407 W End-pumped Multi-segmented Nd:YAG Laser. , 2005, Optics express.
[42] T. Y. Fan,et al. Measurement of thermo-optic properties of Y3Al5O12, Lu3Al5O12, YAIO3, LiYF4, LiLuF4, BaY2F8, KGd(WO4)2, and KY(WO4)2 laser crystals in the 80–300K temperature range , 2005 .
[43] Fuxi Gan,et al. Dependence of the Yb 3+ emission cross section and lifetime on temperature and concentration in yttrium aluminum garnet , 2003 .
[44] G. V. Kuptsov,et al. Laser amplification in an Yb : YAG active mirror with a significant temperature gradient , 2021 .
[45] Jean-Christophe Chanteloup,et al. Yb 3+ :YAG crystal growth with controlled doping distribution , 2012 .