LIU Yuan DONG Li-Min KONG Xian-ren WANG Ri-kun LI Sen-sheng. Construction of virtual vibration testing platform for spacecraft[J]. Editorial Office of Optics and Precision Engineering, 2013,21(5): 1258-1264
LIU Yuan DONG Li-Min KONG Xian-ren WANG Ri-kun LI Sen-sheng. Construction of virtual vibration testing platform for spacecraft[J]. Editorial Office of Optics and Precision Engineering, 2013,21(5): 1258-1264 DOI: 10.3788/OPE.20132105.1258.
Construction of virtual vibration testing platform for spacecraft
As the spacecraft vibration testing based on a shaking table has some defects
such as long time cycle
high cost
easy to produce overtesting and undertesting
a virtual vibration testing platform was built based on virtual reality technology. A sine vibration controller model of the electrical vibration table was built by system simulation software LMS AMESim and a multibody model for the vibration table was established based on the multibody simulation software LMS Virtual.Lab Motion. Furthermore
the model of electromagnetic actuator in the vibration testing system was realized using the simulation software LMS AMESim
and the cosimulation of vibration testing system was carried out by uniting the multibody model and LMS AMESim model. In combination of the vibration control system
electromagnetic actuation system and shaking table test mechanical system
the whole virtual vibration test system was implemented. Finally
a virtual sine vibration test for a box &thin specimen was performed by using the proposed system. Test results show that the virtual vibration testing platform based on the electrical and mechanical coupling modeling method can provide test environments for test analysis and virtual vibration test because it considers the coupling effect of the testpiece and the electrical vibration table.
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references
柯受全. 卫星环境工程和模拟试验 \[M\]. 北京:中国宇航出版社,1996:23-27.KE SH Q. Satellite Environment Engineering and Simulation Test \[M\]. BeiJing: China's Space Press, 1996: 23-27. (in Chinese)[2]蒋明, 何小元. 振动轮式微机械陀螺动态特性的光学测试 \[J\]. 光学 精密工程, 2008, 16(2): 295-299.JIANG M, HE X Y. Optical testing of dynamic characteristic of vibrating wheel micromechanical gyroscope \[J\]. Opt. Precision Eng., 2008, 16(2): 295-299. (in Chinese)[3]贾学志, 王栋, 张雷, 等. 轻型空间相机调焦机构的优化设计与精度试验\[J\]. 光学 精密工程, 2011, 19(8): 1824-1831.JIA X ZH, WANG D, ZHANG L, et al.. Optimizing design and precision experiment of focusing mechanism in lightweight space camera \[J\]. Opt. Precision Eng., 2011, 19(8): 1824-1831. (in Chinese)[4]向树红, 于丹, 晏廷飞, 等. 卫星动力学虚拟试验的几个关键技术 \[J\]. 航天器环境工程, 2002(4): 13-22. XIANG SH H, YU D, YAN T F, et al.. Some key techniques of dynamic virtual test for safellites \[J\]. Spacecraft Environment Engineering, 2002(4): 13-22. (in Chinese) [5]RICCI S, PEETERS B, DEBILLE J, et al.. Virtual shaker testing: A novel approach for improving vibration test performance \[C\]. International Conference on Noise and Vibration Engineering, Leuven: Katholieke University Leuven, 2008: 1767-1782.[6]RICCI S, PEETERS B. Virtual shaker testing for predicting and improving vibration test performance \[C\]. Proceedings of the IMAC-XXVII, Orlando, 2009: 1-16.[7]BETTS E J, VANSANT K, PAULSON C, et al.. Smart testing using virtual vibration testing \[C\]. Proceedings of the 24th Aerospace Testing Seminar (ATS), Manhattan Beach, 2008: 103-111.[8]APPOLLONI M, COZZANI A. Use of advanced integrated CAE tools to provide an end-to-end simulation of payload testing on Hydra \[C\]. Proceedings of Seminar on Integrated open CAD/CAE Platforms for Mechanical Engineering, Noordwijk, 2005: 579-591.[9]KLENKE S E, BACA T. Structural dynamics test simulation and optimization for aerospace components \[C\]. Proceedings of the Second Test and Evaluation International Aerospace Forum, Washington, 1996:82-89.[10]KLENKE S E, LAUFFER J P, GREGORY D L, et al.. The Vibration Virtual Environment for Test Optimization \[M\]. New Mexico: S. V. Symp, 1996: 67-76.[11]KLENKE S E, REESE G M, SCHOOF L A, et al.. Modal test optimization using VETO (Virtual Environment for Test Optimization) \[R\]. Sandia: Sandia Report SAND95-2591, 1996: 1-7.[12]向树红, 晏廷飞, 邱吉宝. 40吨振动台虚拟试验仿真技术研究 \[J\]. 宇航学报, 2004, 25(4): 375-381.XIANG SH H,YAN T F, QIU J B. Research on the computer simulate technology of vibration virtual environment for test about 40 t shaker \[J\]. Journal of Astronautics, 2004, 25(4) : 375-381. (in Chinese)[13]邱吉宝, 王建民. 航天器虚拟动态试验技术研究及展望 \[J\]. 航天器环境工程,2007,24(1): 1-14.QIU J B, WANG J M. A review on virtual dynamic test techniques for space vehicles \[J\]. Spacecraft Environment Engineering, 2007, 24(1):1-14. (in Chinese)[14]陈家焱, 王海东, 周建川, 等. 多点激励振动试验控制技术进展 \[J\]. 振动与冲击,2011, 30(3): 69-73.CHEN J Y, WANG H D, ZHOU J CH, et al.. Progress in multi-exciter vibration testing control technology \[J\]. Journal of Vibration and Shock, 2011,30(3): 69-73.