Estimation of the Turbulence and Regular Refraction Effects on Laser Beam Parameters in the Atmospheric Boundary Layer: Part 1, Coherence Length and Turbulent Broadening

[1] Lukin V. P.(2005)Possibilities of aiming optical beams through turbulent atmosphere Atmos. Ocean. Opt. 18 66-76

[2] Asanov S. V.(2016)Forecast of intense near- and mid-IR laser radiation propagation along slant atmospheric paths Atmos. Ocean. Opt. 29 315-323

[3] Geyntz Yu. E.(2015)Optical model of the Earth’s atmosphere for intense laser emission in the near and mid-infrared spectral ranges Atmos. Ocean. Opt. 28 338-345

[4] Zemlyanov A. A.(2011)“Using a sodar to measure optical turbulence and wind speed for the thirty meter telescope site testing. Part I: Reproducibility,” Bound.- Layer Meteorol. 141 273-288

[5] Ignatyev A. B.(2011)“Using a sodar to measure optical turbulence and wind speed for the thirty meter telescope site testing. Part II: Comparison with independent instruments,” Bound.- Layer Meteorol. 141 289-300

[6] Matvienko G. G.(2018)Estimates of the refractive index and regular refraction of optical waves in the atmospheric boundary layer: Part 1, Refractive Index Atmos. Ocean. Opt. 31 437-444

[7] Morozov V. V.(2018)Estimates of the refractive index and regular refraction of optical waves in the atmospheric boundary layer: Part 2, Laser beam refraction Atmos. Ocean. Opt. 31 445-450

[8] Tarasenkova A. V.(2018)Results of acoustic diagnostics of atmospheric boundary layer in estimation of the turbulence effect on laser beam parameters Atmos. Ocean. Opt. 31 553-563

[9] Asanov S. V.(2017)Meteorological acoustic Doppler locator (sodar) “VOLNA-4M-ST Pribory 202 37-44

[10] Belov V. V.(2009)Digital ultrasonic weather station Pribory 109 21-25

[1] Lukin V. P.(2005)Possibilities of aiming optical beams through turbulent atmosphere Atmos. Ocean. Opt. 18 66-76

[2] Asanov S. V.(2016)Forecast of intense near- and mid-IR laser radiation propagation along slant atmospheric paths Atmos. Ocean. Opt. 29 315-323

[3] Geyntz Yu. E.(2015)Optical model of the Earth’s atmosphere for intense laser emission in the near and mid-infrared spectral ranges Atmos. Ocean. Opt. 28 338-345

[4] Zemlyanov A. A.(2011)“Using a sodar to measure optical turbulence and wind speed for the thirty meter telescope site testing. Part I: Reproducibility,” Bound.- Layer Meteorol. 141 273-288

[5] Ignatyev A. B.(2011)“Using a sodar to measure optical turbulence and wind speed for the thirty meter telescope site testing. Part II: Comparison with independent instruments,” Bound.- Layer Meteorol. 141 289-300

[6] Matvienko G. G.(2018)Estimates of the refractive index and regular refraction of optical waves in the atmospheric boundary layer: Part 1, Refractive Index Atmos. Ocean. Opt. 31 437-444

[7] Morozov V. V.(2018)Estimates of the refractive index and regular refraction of optical waves in the atmospheric boundary layer: Part 2, Laser beam refraction Atmos. Ocean. Opt. 31 445-450

[8] Tarasenkova A. V.(2018)Results of acoustic diagnostics of atmospheric boundary layer in estimation of the turbulence effect on laser beam parameters Atmos. Ocean. Opt. 31 553-563

[9] Asanov S. V.(2017)Meteorological acoustic Doppler locator (sodar) “VOLNA-4M-ST Pribory 202 37-44

[10] Belov V. V.(2009)Digital ultrasonic weather station Pribory 109 21-25