Abstract
Assuming the origin of SRS in Raman susceptibility, we obtain expressions for Raman gain coefficients (under steady-state and transient regimes) of semiconductors magneto-plasmas under various geometrical configurations. The threshold value of excitation intensity and most favourable value of pulse duration (above which transient Raman gain vanishes) are estimated. For numerical calculations, we consider n-InSb crystal at 77 K temperature as a Raman active medium exposed to a frequency doubled pulsed CO2 laser. The variation of Raman gain coefficients on doping concentration, magnetostatic field and its inclination, scattering angle, and pump pulse duration are explored. Efforts are directed towards to optimize these controllable parameters to enhance Raman gain coefficients at lower threshold intensity. The suitability of semiconductor magneto-plasmas as hosts for compression of scattered pulses and fabrication of efficient Raman amplifiers and oscillators is established.
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We are very thankful to Mrs. Neelam Sheoran, Principal, Government College Matanhail, Jhajjar (Haryana) for valuable ideas to carry out this work.
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Gopal, Sharma, B.S., Singh, J. et al. Enhanced Raman gain coefficients of semiconductor magneto-plasmas. Appl. Phys. A 128, 309 (2022). https://doi.org/10.1007/s00339-022-05430-2
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DOI: https://doi.org/10.1007/s00339-022-05430-2