Reaction Force/Torque Sensing in a Master-Slave Robot System without Mechanical Sensors

In human-robot cooperative control systems, force feedback is often necessary in order to achieve high precision and high stability. Usually, traditional robot assistant systems implement force feedback using force/torque sensors. However, it is difficult to directly mount a mechanical force sensor...

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Main Authors: Kyoko Shibata, Yoshio Inoue, Chunguang Li, Tao Liu
Format: Article
Language:English
Published: MDPI AG 2010-07-01
Series:Sensors
Subjects:
Online Access:http://www.mdpi.com/1424-8220/10/8/7134/
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spelling doaj-0cecbee6d232427d82b7c238abf4886d2020-11-25T01:41:05ZengMDPI AGSensors1424-82202010-07-011087134714510.3390/s100807134Reaction Force/Torque Sensing in a Master-Slave Robot System without Mechanical SensorsKyoko ShibataYoshio InoueChunguang LiTao LiuIn human-robot cooperative control systems, force feedback is often necessary in order to achieve high precision and high stability. Usually, traditional robot assistant systems implement force feedback using force/torque sensors. However, it is difficult to directly mount a mechanical force sensor on some working terminals, such as in applications of minimally invasive robotic surgery, micromanipulation, or in working environments exposed to radiation or high temperature. We propose a novel force sensing mechanism for implementing force feedback in a master-slave robot system with no mechanical sensors. The system consists of two identical electro-motors with the master motor powering the slave motor to interact with the environment. A bimanual coordinated training platform using the new force sensing mechanism was developed and the system was verified in experiments. Results confirm that the proposed mechanism is capable of achieving bilateral force sensing and mirror-image movements of two terminals in two reverse control directions. http://www.mdpi.com/1424-8220/10/8/7134/force sensingmaster-slave robotmirror-image movementreaction force
collection DOAJ
language English
format Article
sources DOAJ
author Kyoko Shibata
Yoshio Inoue
Chunguang Li
Tao Liu
spellingShingle Kyoko Shibata
Yoshio Inoue
Chunguang Li
Tao Liu
Reaction Force/Torque Sensing in a Master-Slave Robot System without Mechanical Sensors
Sensors
force sensing
master-slave robot
mirror-image movement
reaction force
author_facet Kyoko Shibata
Yoshio Inoue
Chunguang Li
Tao Liu
author_sort Kyoko Shibata
title Reaction Force/Torque Sensing in a Master-Slave Robot System without Mechanical Sensors
title_short Reaction Force/Torque Sensing in a Master-Slave Robot System without Mechanical Sensors
title_full Reaction Force/Torque Sensing in a Master-Slave Robot System without Mechanical Sensors
title_fullStr Reaction Force/Torque Sensing in a Master-Slave Robot System without Mechanical Sensors
title_full_unstemmed Reaction Force/Torque Sensing in a Master-Slave Robot System without Mechanical Sensors
title_sort reaction force/torque sensing in a master-slave robot system without mechanical sensors
publisher MDPI AG
series Sensors
issn 1424-8220
publishDate 2010-07-01
description In human-robot cooperative control systems, force feedback is often necessary in order to achieve high precision and high stability. Usually, traditional robot assistant systems implement force feedback using force/torque sensors. However, it is difficult to directly mount a mechanical force sensor on some working terminals, such as in applications of minimally invasive robotic surgery, micromanipulation, or in working environments exposed to radiation or high temperature. We propose a novel force sensing mechanism for implementing force feedback in a master-slave robot system with no mechanical sensors. The system consists of two identical electro-motors with the master motor powering the slave motor to interact with the environment. A bimanual coordinated training platform using the new force sensing mechanism was developed and the system was verified in experiments. Results confirm that the proposed mechanism is capable of achieving bilateral force sensing and mirror-image movements of two terminals in two reverse control directions.
topic force sensing
master-slave robot
mirror-image movement
reaction force
url http://www.mdpi.com/1424-8220/10/8/7134/
work_keys_str_mv AT kyokoshibata reactionforcetorquesensinginamasterslaverobotsystemwithoutmechanicalsensors
AT yoshioinoue reactionforcetorquesensinginamasterslaverobotsystemwithoutmechanicalsensors
AT chunguangli reactionforcetorquesensinginamasterslaverobotsystemwithoutmechanicalsensors
AT taoliu reactionforcetorquesensinginamasterslaverobotsystemwithoutmechanicalsensors
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