Generalized iterative learning control using successive projection: algorithm, convergence and experimental verification
Generalized iterative learning control using successive projection: algorithm, convergence and experimental verification
Iterative learning control (ILC) is a high performance control design method for systems working in a repetitive manner. ILC has traditionally focused on tracking a reference defined at all points over a finite time interval; recent developments have begun to exploit the design freedom unlocked by tracking only a finite number of distinct time instants driven by the needs of e.g. robotic pick-and-place tasks. This paper proposes a generalized ILC paradigm which extends and unifies the scope of existing design frameworks by amalgamating previous task descriptions and embedding system constraints on the input and output. A novel solution is then derived using a successive projection method which provides well defined convergence properties. The proposed design framework is illustrated by applying it to a spatial reference tracking problem with experimental results on a gantry robot testing platform demonstrating its effectiveness.
2079-2091
Chen, Yiyang
da753778-ba38-4f95-ad29-b78ff9b12b05
Chu, Bing
555a86a5-0198-4242-8525-3492349d4f0f
Freeman, Christopher
ccdd1272-cdc7-43fb-a1bb-b1ef0bdf5815
1 November 2020
Chen, Yiyang
da753778-ba38-4f95-ad29-b78ff9b12b05
Chu, Bing
555a86a5-0198-4242-8525-3492349d4f0f
Freeman, Christopher
ccdd1272-cdc7-43fb-a1bb-b1ef0bdf5815
Chen, Yiyang, Chu, Bing and Freeman, Christopher
(2020)
Generalized iterative learning control using successive projection: algorithm, convergence and experimental verification.
IEEE Transactions on Control Systems Technology, 28 (6), .
(doi:10.1109/TCST.2019.2928505).
Abstract
Iterative learning control (ILC) is a high performance control design method for systems working in a repetitive manner. ILC has traditionally focused on tracking a reference defined at all points over a finite time interval; recent developments have begun to exploit the design freedom unlocked by tracking only a finite number of distinct time instants driven by the needs of e.g. robotic pick-and-place tasks. This paper proposes a generalized ILC paradigm which extends and unifies the scope of existing design frameworks by amalgamating previous task descriptions and embedding system constraints on the input and output. A novel solution is then derived using a successive projection method which provides well defined convergence properties. The proposed design framework is illustrated by applying it to a spatial reference tracking problem with experimental results on a gantry robot testing platform demonstrating its effectiveness.
Text
Chen_IEEECST_accepted
- Accepted Manuscript
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e-pub ahead of print date: 31 July 2019
Published date: 1 November 2020
Identifiers
Local EPrints ID: 432354
URI: http://eprints.soton.ac.uk/id/eprint/432354
ISSN: 1063-6536
PURE UUID: a65ef196-b235-4c5e-85de-9e4db77d6c09
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Date deposited: 11 Jul 2019 16:30
Last modified: 11 Dec 2024 02:39
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Author:
Yiyang Chen
Author:
Bing Chu
Author:
Christopher Freeman
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