Ce:LiCAF紫外激光器中超短脉冲的产生

M. Cadatal-Raduban, M. Pham, Luong Viet Mui, N. Hung, N. Sarukura
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引用次数: 1

摘要

将用于染料激光器中产生超短激光脉冲的瞬态腔法推广到固态增益介质中。采用数值模拟的方法研究了Ce掺杂LiCaAlF6 (Ce:LiCAF)的宽带紫外(UV)激光发射光谱-时间演化过程。通过求解扩展到多个波长的速率方程,确定了产生谐振腔瞬态的最佳光子腔衰变时间和泵送能量的适当腔长和q因子。在Nd:YAG激光器的四次谐波(266 nm)泵浦下,Ce:LiCAF晶体可产生皮秒紫外激光脉冲。数值模拟表明,1 mol% ce掺杂的LiCAF晶体长度为1 mm,可以产生1皮秒脉冲。这是通过使用低Q(输出耦合器反射率为10%),短腔(腔长2毫米)激光振荡器来实现的。使用该技术也可以使用其他掺稀土氟化物激光材料产生超短脉冲。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Ultrashort Pulse Generation in Ce:LiCAF Ultraviolet Laser
Transient cavity method used to generate ultrashort laser pulses in dye lasers is extended to a solid-state gain medium. Numerical simulations are performed to investigate the spectro-temporal evolution of broadband ultraviolet (UV) laser emission from Ce-doped LiCaAlF6 (Ce:LiCAF), which is represented as a system of two homogeneous broadened singlet states. By solving the rate equations extended to multiple wavelengths, the appropriate cavity length and Q-factor for optimal photon cavity decay time and pumping energy that will generate resonator transients is determined. Formation of resonator transients could generate picosecond UV laser pulses from a Ce:LiCAF crystal pumped by the fourth harmonics (266 nm) of a Nd:YAG laser. Numerical simulations indicate that a 1-mol% Ce-doped LiCAF crystal that is 1-mm long can generate a single picosecond pulse. This is accomplished by using a low Q (output coupler reflectivity of 10%), short cavity (cavity length of 2 mm) laser oscillator. Ultrashort pulses can also be generated using other rare earth-doped fluoride laser materials using this technique.
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