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Strategies for Improving Robot Registration Performance
Published
Author(s)
Karl Van Wyk, Jeremy A. Marvel
Abstract
The ability to calculate rigid-body transformations between arbitrary coordinate systems (i.e., registration) is an invaluable tool in robotics. This effort builds upon previous work by investigating strategies for improving the registration accuracy between a robotic arm and an extrinsic coordinate system with relatively inexpensive parts and minimal labor. The framework previously presented has been expanded with new test methodology to characterize the effects of strategies to improve registration performance. In addition, statistical analyses of physical trials reveal that leveraging more data and applying machine learning are two major components for significantly reducing registration error. One-shot peg-in-hole tests were conducted to show the application-level performance gains obtained by improving registration accuracy. Trends suggest that the maximum translation positioning error (post-registration) is a good, albeit not perfect, indicator for peg insertion performance.
Citation
IEEE Transactions on Automation Science and Engineering
Van, K.
and Marvel, J.
(2018),
Strategies for Improving Robot Registration Performance, IEEE Transactions on Automation Science and Engineering, [online], https://doi.org/10.1109/TASE.2017.2720478
(Accessed October 11, 2025)