Locating End-Effector Tips in Robotic Micromanipulation

In robotic micromanipulation, end-effector tips must be first located under microscopy imaging before manipulation is performed. The tip of micromanipulation tools is typically a few micrometers in size and highly delicate. In all existing micromanipulation systems, the process of locating the end-e...

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Veröffentlicht in:IEEE transactions on robotics 2014-02, Vol.30 (1), p.125-130
Hauptverfasser: Jun Liu, Zheng Gong, Tang, Kathryn, Zhe Lu, Changhai Ru, Jun Luo, Shaorong Xie, Yu Sun
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container_issue 1
container_start_page 125
container_title IEEE transactions on robotics
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creator Jun Liu
Zheng Gong
Tang, Kathryn
Zhe Lu
Changhai Ru
Jun Luo
Shaorong Xie
Yu Sun
description In robotic micromanipulation, end-effector tips must be first located under microscopy imaging before manipulation is performed. The tip of micromanipulation tools is typically a few micrometers in size and highly delicate. In all existing micromanipulation systems, the process of locating the end-effector tip is conducted by a skilled operator, and the automation of this task has not been attempted. This paper presents a technique to automatically locate end-effector tips. The technique consists of programmed sweeping patterns, motion history image end-effector detection, active contour to estimate end-effector positions, autofocusing and quad-tree search to locate an end-effector tip, and, finally, visual servoing to position the tip to the center of the field of view. Two types of micromanipulation tools (micropipette that represents single-ended tools and microgripper that represents multiended tools) were used in experiments for testing. Quantitative results are reported in the speed and success rate of the autolocating technique, based on over 500 trials. Furthermore, the effect of factors such as imaging mode and image processing parameter selections was also quantitatively discussed. Guidelines are provided for the implementation of the technique in order to achieve high efficiency and success rates.
doi_str_mv 10.1109/TRO.2013.2280060
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The tip of micromanipulation tools is typically a few micrometers in size and highly delicate. In all existing micromanipulation systems, the process of locating the end-effector tip is conducted by a skilled operator, and the automation of this task has not been attempted. This paper presents a technique to automatically locate end-effector tips. The technique consists of programmed sweeping patterns, motion history image end-effector detection, active contour to estimate end-effector positions, autofocusing and quad-tree search to locate an end-effector tip, and, finally, visual servoing to position the tip to the center of the field of view. Two types of micromanipulation tools (micropipette that represents single-ended tools and microgripper that represents multiended tools) were used in experiments for testing. Quantitative results are reported in the speed and success rate of the autolocating technique, based on over 500 trials. 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subjects Active contours
Autofocusing
Automation
Efficiency
end-effector detection
Grippers
Image detection
Imaging
Kalman filters
locating end-effector tips
Micromanipulation
Micrometers
Microscopy
Radio frequency
robotic micromanipulation
Robotics
Searching
Tips
title Locating End-Effector Tips in Robotic Micromanipulation
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