Gradient Calibration for the RCBHT Cantilever Snap Verification System.

被引:0
|
作者
Rojas, J. [1 ]
Harada, K. [1 ]
Onda, H. [1 ]
Yamanobe, N. [1 ]
Yoshida, E. [1 ]
Nagata, K. [1 ]
Kawai, Y. [1 ]
机构
[1] AIST, Intelligent Sys Res Inst, Tsukuba, Ibaraki 3058568, Japan
关键词
D O I
暂无
中图分类号
TP24 [机器人技术];
学科分类号
080202 ; 1405 ;
摘要
In this work a gradient calibration method was presented as part of the Relative-Change-Based-Hierarchical Taxonomy (RCBHT) cantilever-snap verification system and the Pivot Approach control strategy for the automation of cantilever-snaps. As part of a relative-change based force signal interpretation scheme, an effective gradient calibration process is needed to increase the RCBHT's system robustness. Prior to this work, all gradient classification schemes were derived on an intuitive trial and error basis. Statistical measures were used to derive contact and constant gradient thresholds in contextually sensitive ways. The method requires training assemblies to identify a minimum contact gradient which serves as a marker for all other gradient thresholds. Experimental procedures verified that our calibration method was effective. Assemblies with supervised successful outcomes were used in experimentation. The RCBHT assessed out assemblies as successful using the calibration method. Even two snaps that where classified falsely as unsuccessful when using a previously non-calibrated version of the RCBHT.
引用
收藏
页数:7
相关论文
共 50 条
  • [1] Cantilever Snap Assemblies Failure Detection using SVMs and the RCBHT.
    Luo, Weiqiang
    Rojas, Juan
    Guan, TianQiang
    Harada, Kensuke
    Nagata, Kazuyuki
    2014 IEEE INTERNATIONAL CONFERENCE ON MECHATRONICS AND AUTOMATION (IEEE ICMA 2014), 2014, : 384 - 389
  • [2] Early Failure Characterization of Cantilever Snap Assemblies using the PA-RCBHT.
    Rojas, Juan
    Harada, Kensuke
    Onda, Hiromu
    Yamanobe, Natsuki
    Yoshida, Eiichi
    Nagata, Kazuyuki
    2014 IEEE INTERNATIONAL CONFERENCE ON ROBOTICS AND AUTOMATION (ICRA), 2014, : 3370 - 3377
  • [3] COMPONENT VERIFICATION SYSTEM.
    Hines, R.E.
    Schroeder, D.D.
    Electronic Packaging and Production, 1981, 21 (03): : 85 - 94
  • [4] Calibration verification of hemoglobins A, A2, S, and F with an automated chromatography system.
    Bradley, CA
    Kelly, A
    CLINICAL CHEMISTRY, 2001, 47 (06) : A173 - A173
  • [5] DCNA PRODUCTS VERIFICATION SYSTEM.
    Yoshitake, Shizuo
    Takada, Kenji
    Takahashi, Osamu
    Reports of the Electrical Communication Laboratory, 1982, 30 (06): : 1045 - 1054
  • [6] HIERARCHICAL TIMING VERIFICATION SYSTEM.
    Reddi, R.
    Chen, C.
    1600, (18):
  • [7] On an automated signature verification system.
    Herbst, B
    Richards, D
    IEEE INTERNATIONAL SYMPOSIUM ON INDUSTRIAL ELECTRONICS (ISIE 98) - PROCEEDINGS, VOLS 1 AND 2, 1998, : 600 - 604
  • [8] COMPUTERIZED SIGNATURE VERIFICATION SYSTEM.
    Mital, Dinesh P.
    Hin, Choo Pee
    Leng, Wee Kee
    IEEE Control Systems Magazine, 1988, 8 (03): : 54 - 57
  • [9] Dark energy science constraints on calibration: Design of the SNAP calibration system
    Deustua, Susana E.
    FUTURE OF PHOTOMETRIC, SPECTROPHOTOMETRIC AND POLARIMETRIC STANDARDIZATION, 2007, 364 : 355 - 360
  • [10] ASSET: A LIFECYCLE VERIFICATION AND VISIBILITY SYSTEM.
    Osterweil, Leon J.
    Brown, John R.
    Stucki, Leon G.
    1978, : 30 - 35