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WRIST FORCE SENSOR'S DYNAMIC PERFORMANCE CALIBRATION BASED ON NEGATIVE STEP RESPONSE 被引量:2

WRIST FORCE SENSOR'S DYNAMIC PERFORMANCE CALIBRATION BASED ON NEGATIVE STEP RESPONSE
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摘要 Negative step response experimental method is used in wrist force sensor's dynamic performance calibration. The exciting manner of negative step response method is the same as wrist force sensor's load in working. This experimental method needn't special experiment equipments. Experiment's dynamic repeatability is good. So wrist force sensor's dynamic performance is suitable to be calibrated by negative step response method. A new correlation wavelet transfer method is studied. By wavelet transfer method, the signal is decomposed into two dimensional spaces of time-frequency. So the problem of negative step exciting energy concentrating in the low frequency band is solved. Correlation wavelet transfer doesn't require that wavelet primary function be orthogonal and needn't wavelet reconstruction. So analyzing efficiency is high. An experimental bench is designed and manufactured to load the wrist force sensor orthogonal excitation force/moment. A piezoelectric force sensor is used to setup soft trigger and calculate the value of negative step excitation. A wrist force sensor is calibrated. The pulse response function is calculated after negative step excitation and step response have been transformed to positive step excitation and step response. The pulse response function is transferred to frequency response function. The wrist force sensor's dynamic characteristics are identified by the frequency response function. Negative step response experimental method is used in wrist force sensor's dynamic performance calibration. The exciting manner of negative step response method is the same as wrist force sensor's load in working. This experimental method needn't special experiment equipments. Experiment's dynamic repeatability is good. So wrist force sensor's dynamic performance is suitable to be calibrated by negative step response method. A new correlation wavelet transfer method is studied. By wavelet transfer method, the signal is decomposed into two dimensional spaces of time-frequency. So the problem of negative step exciting energy concentrating in the low frequency band is solved. Correlation wavelet transfer doesn't require that wavelet primary function be orthogonal and needn't wavelet reconstruction. So analyzing efficiency is high. An experimental bench is designed and manufactured to load the wrist force sensor orthogonal excitation force/moment. A piezoelectric force sensor is used to setup soft trigger and calculate the value of negative step excitation. A wrist force sensor is calibrated. The pulse response function is calculated after negative step excitation and step response have been transformed to positive step excitation and step response. The pulse response function is transferred to frequency response function. The wrist force sensor's dynamic characteristics are identified by the frequency response function.
作者 ZHENG Hongmei
出处 《Chinese Journal of Mechanical Engineering》 SCIE EI CAS CSCD 2008年第5期92-96,共5页 中国机械工程学报(英文版)
基金 National Hi-tech Research and Development Program of China(863 Program,No.2001AA42330).
关键词 Wrist force sensor Dynamic performance calibration Step response experiment Correlation wavelet transfer Impulse response function Wrist force sensor Dynamic performance calibration Step response experiment Correlation wavelet transfer Impulse response function
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  • 1朱海民,张森林.基于μC/OS和ARM的经纱张力嵌入式智能控制系统设计[J].机电工程,2006,23(4):9-12. 被引量:10
  • 2李瑜芳.传感器原理及其应用[M].成都:电子科技大学出版社.2008.
  • 3ZHU Yingyuan,GAO Xiaohui,XIE Zongwu,et al.Development of a gripper for Chinese space robot[C] // International Conference on Mechatroncis and Automation,June 25-28,2006,Luoyang,China.New York:IEEE,2006:1465-1470.
  • 4NISHIDA S,YOSHIKAWA T.A new end-effector for on-orbit assembly of a large reflector[C] // International Conference on Control,Automation,Robotics and Vision,December 5-8,2006,Singapore.New York:IEEE,2006:1-6.
  • 5HIRZINGER G,BRUNNER B,LAMPARIELLO R,et al.Advances in orbital robotics[C] // International Conference on Robotic and Automation,April 24-28,2000,San Francisco,CA,USA.New York:IEEE,2000:898-907.
  • 6NAGAMATSU H,KUBOTA T,NAKATANI I.Capture strategy for retrieval of a tumbling satellite by a space robotic manipulator[C] // International Conference on Robotic and Automation,April 22-28,1996,Minneapolis,Minnesota,USA.New York:IEEE,1996:70-75.
  • 7MATSUMOTO S,OHKAMI Y,WAKABAYASHI Y,et al.Satellite capture strategy using agile orbital servicing vehicle,hyper-OSV[C] // International Conference on Robotic and Automation,May 11-15,2002,Washington,DC,USA.New York:IEEE,2002:2309-2314.
  • 8MASUTANI Y.Sensory feedback control for space manipulator[J].Journal of Robotics Society of Japan,1989,7(6):647-655.
  • 9李传钊.Delphi使用编程技术[M].北京:中国水利水电出版社,2000.
  • 10LISCHNER R. Delphi in a Nutshell[M]. O,Reilly Media, 2001.

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