[1] C H SMITH, B GREENE. The EOS space debris tracking system. Hawaii(2006).
[2] Hao SUN, Hai-feng ZHANG, Zhong-ping ZHANG. Experiment on diffuse reflection laser ranging to space debris and data analysis. Research in Astronomy and Astrophysics, 15, 909-917(2015).
[3] P W KELLY, R BEVILACQUA, L MAZAL. TugSat: removing space debris from geostationary orbits using solar sails. Journal of Spacecraft and Rockets, 55, 437-450(2018).
[4] http://www.sastind.gov.cn/n127/n199/c335412/content.html
[5] Hai-feng ZHANG, hua-rong DENG, Zhi-bo WU. Observations of space debris by ground-based laser ranging system. Spacecraft Environment Engineering, 33, 457-462(2016).
[6] MEN Tao, Zhao SHEN, rong XU. Development status and tendency of space target laser ranging technique. Larser & Infrared, 42, 1451-1457(2018).
[7] Zhong-ping ZHANG, Fu-min YANG, Zhi-bo WU. Preliminary results of laser ranging to uncooperative targetsat shanghai SLR station, 695-699(2008).
[8] Yu-qiang LI, Zhu-lian LI, Hong-lin FU. Experimentation of diffuse reflection laser ranging of space debris. Chinese Journal of Lasers, 38, 160-164(2011).
[9] Zhong-ping ZHANG, Fu-min YANG, Hai-feng ZHANG. The use of laser ranging to measure space debris. Research in Astronomy and Astrophysics, 12, 212-218(2012).
[10] Zhong-ping ZHANG, Hai-feng ZHANG, Zhi-bo WU. Experiment of laser ranging to space debris based on high power solid-state laser system at 200Hz repetition rate. Chinese Journal of Lasers, 41(2014).
[11] G KIRCHNER, F KOIDL, F FRIEDERICH. Laser measurements to space debris from Graz SLR station. Advances in Space Research, 51, 21-24(2013).
[12] Zhong-ping ZHANG, Hai-feng ZHANG, Ming-liang LONG. High precision space debris laser ranging with 4.2 W double-pulse picosecond laser at 1 kHz in 532nm. Optik, 179, 691-699(2019).
[13] Xue DONG, Xing-wei HAN, Qing-li SONG. Research of space debris laser ranging system. Infrared and Laser Engineering, 45, 1-6(2016).
[14] Pei-yuan WANG, F KOIDL, G KIRCHNER. Contributions to sub-MHz SLR in Graz(2019).
[15] C COURDE, H MARIEY, J CHABÉ. High repetition rate SLR at GRSM(2019).
[16] D SCHAFER, E SPROLL, F SPROLL. Satellite laser ranging at 100 kHz pulse repetition rate. CEAS Space Journal, 11, 363-370(2019).
[17] D HAMPF, P WAGNER, E SCHAFER. Concept for a new minimal SLR system(2018).
[18] D HAMPF, W RIEDE, G STÖCKLE. Ground-based optical position measurements of space debris in low earth orbits(2013).
[19] M LAAS-BOUREZ, S WAILLIEZ, F DELEFLIE. First astrometric observations of space debris with the MEO telescope. Advances in Space Research, 49, 603-611(2011).
[20] J SANG, C SMITH, K ZHANG. Towards accurate atmospheric mass density determination using precise positional information of space objects. Advances Space Research, 49, 1088-1096(2012).
[21] yu-qiang LI, Rong-wang LI, Zhu-lian LI. Application research on space debris laser ranging, infrared and laser engineering. Infrared and Laser Engineering, 44, 3324-3329(2015).
[22] Zhu-lian LI, Yu-qiang LI, Hong-lin FU. Design and realization of a 10Hz diffuse-reflection laser ranging control system. Astronomical Research and Technology, 3, 302-307(2012).
[23] Zhu-lian LI, Hai-tao ZHANG, Yu-qiang LI. 53 cm binocular telescope high repetition frequency space debrislaser ranging system. Infrared and Laser Engineering, 46, 0729001(2017).
[24] Hao LI, Si-jing CHEN, Li-xing YOU. Superconducting nanowire single photon detector at 532 nm and demonstration in satellite laser ranging. Optics Express, 24, 3535-3542(2016).
[26] M A STEINDORFER, G KIRCHNER, F KOIDL. Space debris science at the satellite laser ranging station Graz(2017).
[27] Ming-liang LONG, Hai-feng ZHANG, Hua-rong DENG. Laser ranging for space debris using double telescopes with kilometer level distance. Acta Optica Sinica, 40, 0228002(2020).
[28] Zhong-ping ZHANG, Hai-feng ZHANG, Hua-rong DENG. Experiment of laser ranging to space debris by using two receiving telescopes. Infrared and Laser Engineering, 45, 0102002(2016).
[29] Hai-feng ZHANG, Ming-liang LONG, Hua-rong DENG. Detection ability of laser ranging system based on multi-telescopesto receive echo signal. Infrared and Laser Engineering, 47, 100-106(2018).
[30] J SANG, J C BENNETT, C H SMITH. Estimation of ballistic coefficients of low altitude debris objects from historical two line elements. Advances in Space Research, 52, 117-124(2013).
[31] J BENNETT, J SANG, C SMITH. Improving low-earth orbit predictions using two-line element data with bias correction(2012).
[32] S KIM, J C BENNETT. Analysis of space debris orbit prediction using angle and laser ranging data from two tracking sites under limited observation environment. Sensors, 20, 1950(2020).
[33] M A STEINDORFER, G KIRCHNER, F KOIDL. Daylight space debris laser ranging. Nature Communications, 11, 3735(2020).
[34] C COURDE, J M TORRE, E SAMAIN. Lunar laser ranging in infrared at the Grasse laser station. Astronomy & Astrophysics, 602(2017).
[35] Wen-dong MENG, Hai-feng ZHANG, Hua-rong DENG. 1.06 µm wavelength based high accuracy satellite laser ranging and space debris detection. Acta Physica Sinica, 69, 019502(2020).
[36] Yu-qiang LI, Hong-lin FU, Rong-wang Li. Research and experiment of lunar laser ranging in Yunnan Observatories. Chinese Journal of Lasers, 46, 0104004(2019).
[38] M A STEINDORFER, G KIRCHNER, F KOIDL. Space debris science at the satellite laser ranging station Graz(2017).
[39] R TANG, Z LI, Y LI. Light curve measurements with a superconducting nanowire single-photon detector. Optics Letters, 43, 5488-5491(2018).
[40] Tong LIU, ming SHEN, Peng-qi GAO. Tumbling motion estimation of Rocket body based on diffuse reflection laser ranging. Chinese Journal of Lasers, 46, 219-226(2019).
[41] Si-si ZHAO, M STEINDORFER, G KIRCHNER. Attitude analysis of space debris using SLR and light curve data measured with single-photon detector. Advances in Space Research, 65, 1518-1527(2020).