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1. 中国科学院 长春光学精密机械与物理研究所,吉林 长春,中国,130033
2. 中国科学院 研究生院 北京,100039
收稿日期:2008-06-25,
修回日期:2008-07-28,
网络出版日期:2009-03-25,
纸质出版日期:2009-03-25
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邵帅, 高云国, 郭劲, 宣明. 二维快速控制水冷反射镜装置设计[J]. 光学精密工程, 2009,17(3): 493-498
SHAO Shuai, GAO Yun-guo, GUO Jin, XUAN Ming. Design of two-dimensional fast-steering cooling mirror equipment[J]. Editorial Office of Optics and Precision Engineering, 2009,17(3): 493-498
为了进一步精确控制激光发射方向
减少反射镜热畸变以提高光束质量
设计了一种新型二维快速控制水冷反射镜装置。根据高功率激光反射镜的设计和制作原则
对反射镜的材料性能进行了分析
采用主动水冷铜镜来减小镜面热畸变使镜面变形控制在0.1 m以内。然后
分别从机械结构、驱动器和控制系统、角度检测元件3方面设计了反射镜装置
其
x-y
轴框架式的机械结构形式
可减小反射镜的冷却水管对轴系回转精度的影响
使回转精度<2。实验测试结果表明
二维快速控制水冷反射镜装置工作稳定、可靠
控制光束稳定的精度<1
可满足对激光传输方向的精确实时控制和对光束整体倾斜方向进行校正等要求。
A mechanical structure for two-dimensional fast-steering active cooling mirror was designed to control precisely the transmission direction of laser emitting and to reduce the mirror thermal distortion to improve laser beam quality. Based on the design and fabrication principles for the high power laser reflector
an active cooling mirror was adopted to improve the beam quality by reducing the mirror thermal distortion which can control the mirror distortion less than 0.1 m. Then
an equipment was designed from three aspects in the framework
driver
controlling system and the angle measurement element. By using a
x-y
axis framework structure
the effect of the cooling water tube for mirror on axis system could be reduced and rotation precision of the axis system was less than 2. The test result was analyzed and it is shown that the mechanical structure works stably and reliably
stabilization precision is less than 1
which can satisfy the system requirements of stabilization
higher precision and rapid speed for controlling and correcting accurately the transmission direction of the beam
and can be applied widely to the high power laser system.
HIGGS J C. Overview of the ABL-firepond active-tracking and compensation facility[J].SPIE,1998,3381:14-18.[2] BILLMAN K W, BREAKWELL J A, DUTTA K, et al.. ABL beam control laboratory demonstrator[J]. SPIE,1999,3706:172-179.[3] BILLMAN K W, HORWITZ B A. Airborne laser system common path/common mode design approach. [J]. SPIE,1999,3706:196-203.[4] 吴冬良,戴一帆,王贵林,等. 光学面形误差对环围能量比的影响[J]. 光学 精密工程,2008,15(9):1328-1335. WU D L, DAI Y F, WANG G L, et al.. Influence of optical surface error on encircled energy [J]. Opt. Precision Eng., 2008,15(9):1328-1335. (in Chinese)[5] PAUL R, YODER J. 光机系统设计[M] . 北京:机械工业出版社,2008. PAUL R, YODER J. Opto-Mechanical Systems Design [M]. Beijing: China Machine Press ,2008.(in Chinese)[6] 程祖海,张耀宁,杜泽晴,等. 回流式水冷超薄多层镜的研究[J]. 强激光与粒子束,1997,9(3):418-422. CHENG Z H, ZHANG Y N, DU Z Q, et al.. A study of the thin and multilayer mirror with circular coolant channel [J].High Power Laser and Particle Beams,1997,9(3):418-422. (in Chinese)[7] 傅承毓,姜凌涛,任戈,等. 快速反射镜成像跟踪系统 . 光电工程,1994,21(3):1-8. FU CH Y, JIANG L T, REN G, et al.. Imaging, tracking systems of the fast-steering mirror [J].Opto-Electronic Engineering, 1994,21(3):1-8. (in Chinese)[8] 张丽敏,郭劲, 陈娟. 快速反射镜机械结构研究综述[J]. 光机电信息,2005(3):21-24. ZHANG L M,GUO J,CHEN J. Summary of the mechanic structure for fast-steering mirrors [J].Ome Information,2005(3):21-24. (in Chinese)[9] 高亮,阚珊珊,李敏,等. 压电陶瓷精密转动平台的转角精度测量[J]. 光学 精密工程,2007,15(2):206-211. GAO L, KAN SH SH,LI M, et al.. Rotation-angle-accuracy measurement of piezo tilt platform[J].Opt. Precision Eng.,2007,15(2):206-211. (in Chinese)[10] 刘万里,王占奎,曲兴华,等. 激光跟踪测量系统跟踪转镜的误差分析[J]. 光学 精密工程,2008,16(4):585-590. LIU W L, WANG ZH K, QU X H, et al.. Error analysis of tracking mirror for laser tracker system[J].Opt. PrecisionEng., 2008,16(4):585-590.(in Chinese)[11] 吴琼雁,王强,彭起,等. 音圈电机驱动的快速控制反射镜高带宽控制[J]. 光电工程,2004,31(8):15-18. WU Q Y,WANG Q,PENG Q, et al.. Wide bandwidth control of fast-steering mirror driven by voice coil motor [J]. Opto-Electronic Engineering,2004,31(8):15-18.(in Chinese)
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