[1] Zhang J X, Mei H P, Ren Y C et al. Fold-path atmospheric coherence length measurement by laser-active illumination imaging[J]. Acta Optica Sinica, 43, 1201003(2023).
[4] Hinze J O[M]. Turbulence(1975).
[5] Cao Y X, Yao H F, Zhang H et al. Inversion calculation of atmospheric refractive index structure constant based on atmospheric coherence length and isoplanatic angle measured in Nanshan, Xinjiang[J]. Laser & Optoelectronics Progress, 60, 2101003(2023).
[6] Liu H, Wu C Y, Xu W M. Testing Taylor’s hypothesis on the bottom boundary layer in the Pearl River[J]. The Ocean Engineering, 28, 132-137(2010).
[8] Xu J, Qian T L, Cen X F. Influence of two exposure times of CCD on the measurement of visual acuity[J]. Astronomical Research & Technology, 81-85(1996).
[9] Zhou D, Jin Z Y, Lu R W et al. The importance of the exposure-time and its measurement in the image motion method to measure the seeing parameter[J]. Astronomical Research & Technology, 14-20(2002).
[12] Xin Y X, Fan Y F, Lun B L et al. A design of a DIMM system for long-term seeing measurement[J]. Astronomical Research & Technology, 9, 397-404(2012).
[13] Li B. Research on testing technology of atmospheric coherence length based on DIMM[D](2015).
[16] Zhou D. Characteristics of the near-ground atmospheric turbulence[D](2002).
[18] Sha Y. Error analysis of atmospheric coherence length measured by differential arrival angle fluctuation[D](2017).
[19] Shi S L. Research on control technology of precision image stabilization system in space telescope[D](2014).
[20] Shi S L, Yin D Y. CMOS APS noise effect on position accuracy of star tracker[J]. Opto-Electronic Engineering, 40, 11-16(2013).
[21] Yu L K, He B, Shen H et al. Analysis of formulae in DIMM and the verified experiment[J]. Infrared and Laser Engineering, 50, 20200414(2021).