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An Information-Theoretic Framework for Optimal Design: Analysis of Protocols for Estimating Soft Tissue Parameters in Biaxial Experiments
Axioms, Volume: 10, Issue: 2, Start page: 79
Swansea University Authors: Ankush Aggarwal , Sanjay Pant
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DOI (Published version): 10.3390/axioms10020079
Abstract
A new framework for optimal design based on the information-theoretic measures of mutual information, conditional mutual information and their combination is proposed. The framework is tested on the analysis of protocols—a combination of angles along which strain measurements can be acquired—in a bi...
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ISSN: | 2075-1680 |
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2021
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URI: | https://cronfa.swan.ac.uk/Record/cronfa56721 |
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2022-08-15T12:55:46.2894421 v2 56721 2021-04-22 An Information-Theoretic Framework for Optimal Design: Analysis of Protocols for Estimating Soft Tissue Parameters in Biaxial Experiments 33985d0c2586398180c197dc170d7d19 0000-0002-1755-8807 Ankush Aggarwal Ankush Aggarwal true false 43b388e955511a9d1b86b863c2018a9f 0000-0002-2081-308X Sanjay Pant Sanjay Pant true false 2021-04-22 A new framework for optimal design based on the information-theoretic measures of mutual information, conditional mutual information and their combination is proposed. The framework is tested on the analysis of protocols—a combination of angles along which strain measurements can be acquired—in a biaxial experiment of soft tissues for the estimation of hyperelastic constitutive model parameters. The proposed framework considers the information gain about the parameters from the experiment as the key criterion to be maximised, which can be directly used for optimal design. Information gain is computed through k-nearest neighbour algorithms applied to the joint samples of the parameters and measurements produced by the forward and observation models. For biaxial experiments, the results show that low angles have a relatively low information content compared to high angles. The results also show that a smaller number of angles with suitably chosen combinations can result in higher information gains when compared to a larger number of angles which are poorly combined. Finally, it is shown that the proposed framework is consistent with classical approaches, particularly D-optimal design. Journal Article Axioms 10 2 79 MDPI AG 2075-1680 optimal design; soft tissue mechanics; mutual information; biaxial experiment; inverse problems; information theory 1 5 2021 2021-05-01 10.3390/axioms10020079 COLLEGE NANME COLLEGE CODE Swansea University Engineering and Physical Sciences Research Council of the UK (Grant reference EP/R010811/1 to SP and grant reference EP/P018912/1 and EP/P018912/2 to AA). 2022-08-15T12:55:46.2894421 2021-04-22T14:16:38.9108159 Faculty of Science and Engineering School of Engineering and Applied Sciences - Uncategorised Ankush Aggarwal 0000-0002-1755-8807 1 Damiano Lombardi 2 Sanjay Pant 0000-0002-2081-308X 3 56721__19794__81e60520717a4ea4b5c1670ee23574f6.pdf 56721(2).pdf 2021-05-04T13:16:17.7742255 Output 878085 application/pdf Version of Record true Copyright: © 2021 by the authors. This is an open access article distributed under the terms of the Creative Commons Attribution (CC BY) true eng http://creativecommons.org/licenses/by/4.0/ |
title |
An Information-Theoretic Framework for Optimal Design: Analysis of Protocols for Estimating Soft Tissue Parameters in Biaxial Experiments |
spellingShingle |
An Information-Theoretic Framework for Optimal Design: Analysis of Protocols for Estimating Soft Tissue Parameters in Biaxial Experiments Ankush Aggarwal Sanjay Pant |
title_short |
An Information-Theoretic Framework for Optimal Design: Analysis of Protocols for Estimating Soft Tissue Parameters in Biaxial Experiments |
title_full |
An Information-Theoretic Framework for Optimal Design: Analysis of Protocols for Estimating Soft Tissue Parameters in Biaxial Experiments |
title_fullStr |
An Information-Theoretic Framework for Optimal Design: Analysis of Protocols for Estimating Soft Tissue Parameters in Biaxial Experiments |
title_full_unstemmed |
An Information-Theoretic Framework for Optimal Design: Analysis of Protocols for Estimating Soft Tissue Parameters in Biaxial Experiments |
title_sort |
An Information-Theoretic Framework for Optimal Design: Analysis of Protocols for Estimating Soft Tissue Parameters in Biaxial Experiments |
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33985d0c2586398180c197dc170d7d19 43b388e955511a9d1b86b863c2018a9f |
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33985d0c2586398180c197dc170d7d19_***_Ankush Aggarwal 43b388e955511a9d1b86b863c2018a9f_***_Sanjay Pant |
author |
Ankush Aggarwal Sanjay Pant |
author2 |
Ankush Aggarwal Damiano Lombardi Sanjay Pant |
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10.3390/axioms10020079 |
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MDPI AG |
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description |
A new framework for optimal design based on the information-theoretic measures of mutual information, conditional mutual information and their combination is proposed. The framework is tested on the analysis of protocols—a combination of angles along which strain measurements can be acquired—in a biaxial experiment of soft tissues for the estimation of hyperelastic constitutive model parameters. The proposed framework considers the information gain about the parameters from the experiment as the key criterion to be maximised, which can be directly used for optimal design. Information gain is computed through k-nearest neighbour algorithms applied to the joint samples of the parameters and measurements produced by the forward and observation models. For biaxial experiments, the results show that low angles have a relatively low information content compared to high angles. The results also show that a smaller number of angles with suitably chosen combinations can result in higher information gains when compared to a larger number of angles which are poorly combined. Finally, it is shown that the proposed framework is consistent with classical approaches, particularly D-optimal design. |
published_date |
2021-05-01T14:04:51Z |
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1821323969265926144 |
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11.048042 |