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Non-repetitive-path iterative learning and control for human-guided robotic operations on unknown surfaces

Non-repetitive-path iterative learning and control for human-guided robotic operations on unknown surfaces
Non-repetitive-path iterative learning and control for human-guided robotic operations on unknown surfaces
Automation of abrasive machining operations has become a challenging aspect in the remanufacturing industry where it is required to conduct operations on a surface of which the exact dimensions are unknown. In such cases, skilled human workers have to step in to perform labor-intensive tasks with inconsistent quality. In existing research work, collaborative robots are used to partially automate such operations under human supervision. However, these methods do not perform learning and control simultaneously and are often affected by the interactions of the human operator. In this article, a novel learning and control scheme is proposed where the robot explores an unknown surface iteratively while achieving the desired contact control performance under supervision and occasional interference from the human operator. The unknown surface is divided into subregions, and the learning and control parameters are updated each time the robot visits each subregion. This method is independent of the path of the robot and, thus, is unaffected by the irregularities introduced by a human operator’s interactions. The proposed method is applied to force control, stiffness learning, and orientation adaptation cases. The validity of this method is shown via simulations as well as experiments conducted using a Kinova Gen3 7-degrees of freedom robot.
1941-0468
4922-4940
Widanage, Kithmi N.D.
a2734ee5-21d5-4dbb-839b-27b3865304b3
Xia, Jingkang
8e4d1903-377f-4d8c-b6d1-910d7f965091
Parween, Rizuwana
cf11cabd-333d-404d-b917-9fdcc007da5d
Godaba, Hareesh
787c1482-6a29-43ad-b49e-a6a2b7175f0c
Herzig, Nicolas
dfdfb04d-e59f-43b9-b35e-795d53dfbee6
Glovnea, Romeo
8b0e656f-4ec3-4bac-ac8f-642a9fa8f88e
Huang, Deqing
d1112837-5390-47d4-905f-2a8c8a50d5e8
Li, Yanan
abd60edb-57cf-41af-a1d5-93881c6238f1
Widanage, Kithmi N.D.
a2734ee5-21d5-4dbb-839b-27b3865304b3
Xia, Jingkang
8e4d1903-377f-4d8c-b6d1-910d7f965091
Parween, Rizuwana
cf11cabd-333d-404d-b917-9fdcc007da5d
Godaba, Hareesh
787c1482-6a29-43ad-b49e-a6a2b7175f0c
Herzig, Nicolas
dfdfb04d-e59f-43b9-b35e-795d53dfbee6
Glovnea, Romeo
8b0e656f-4ec3-4bac-ac8f-642a9fa8f88e
Huang, Deqing
d1112837-5390-47d4-905f-2a8c8a50d5e8
Li, Yanan
abd60edb-57cf-41af-a1d5-93881c6238f1

Widanage, Kithmi N.D., Xia, Jingkang, Parween, Rizuwana, Godaba, Hareesh, Herzig, Nicolas, Glovnea, Romeo, Huang, Deqing and Li, Yanan (2025) Non-repetitive-path iterative learning and control for human-guided robotic operations on unknown surfaces. IEEE Transactions on Robotics, 41, 4922-4940. (doi:10.1109/TRO.2025.3588453).

Record type: Article

Abstract

Automation of abrasive machining operations has become a challenging aspect in the remanufacturing industry where it is required to conduct operations on a surface of which the exact dimensions are unknown. In such cases, skilled human workers have to step in to perform labor-intensive tasks with inconsistent quality. In existing research work, collaborative robots are used to partially automate such operations under human supervision. However, these methods do not perform learning and control simultaneously and are often affected by the interactions of the human operator. In this article, a novel learning and control scheme is proposed where the robot explores an unknown surface iteratively while achieving the desired contact control performance under supervision and occasional interference from the human operator. The unknown surface is divided into subregions, and the learning and control parameters are updated each time the robot visits each subregion. This method is independent of the path of the robot and, thus, is unaffected by the irregularities introduced by a human operator’s interactions. The proposed method is applied to force control, stiffness learning, and orientation adaptation cases. The validity of this method is shown via simulations as well as experiments conducted using a Kinova Gen3 7-degrees of freedom robot.

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NRP ILC 2025_TRO_Accepted - Other
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Accepted/In Press date: 17 June 2025
Published date: 11 July 2025

Identifiers

Local EPrints ID: 507129
URI: http://eprints.soton.ac.uk/id/eprint/507129
ISSN: 1941-0468
PURE UUID: 66c3455e-869d-4842-8101-37fb058d51e7
ORCID for Hareesh Godaba: ORCID iD orcid.org/0000-0001-6600-8513

Catalogue record

Date deposited: 27 Nov 2025 17:48
Last modified: 28 Nov 2025 03:08

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Contributors

Author: Kithmi N.D. Widanage
Author: Jingkang Xia
Author: Rizuwana Parween
Author: Hareesh Godaba ORCID iD
Author: Nicolas Herzig
Author: Romeo Glovnea
Author: Deqing Huang
Author: Yanan Li

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