Robust learning for optimization: navigating samples and noise
Optimization is the process of identifying the optimal solution among a multitude of options, which lies at the heart of many computational problems in operations research, computer science, and engineering. Traditional optimization methods rely on formulating a model and designing algorithms based...
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2023
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sg-ntu-dr.10356-1702432023-10-03T09:52:45Z Robust learning for optimization: navigating samples and noise Yang, Chunxue Bei Xiaohui School of Physical and Mathematical Sciences xhbei@ntu.edu.sg Science::Mathematics::Applied mathematics::Optimization Science::Mathematics::Applied mathematics::Game theory Science::Mathematics::Discrete mathematics::Combinatorics Optimization is the process of identifying the optimal solution among a multitude of options, which lies at the heart of many computational problems in operations research, computer science, and engineering. Traditional optimization methods rely on formulating a model and designing algorithms based on input parameters. However, in practice, acquiring accurate inputs may be impeded by a lack of information, uncertainties in the objective function, or errors in parameter evaluation. This makes designing robust optimization algorithms based on learned instances containing randomness or an oracle in a noisy form an intriguing research direction, which is known as robust learning for optimization. This thesis applies robust learning for optimization to two theoretical computer science domains: auction design and combinatorial optimization, with the goal of developing robust algorithms that can efficiently output near-optimal solutions despite the presence of randomness or noise. Doctor of Philosophy 2023-09-04T08:06:51Z 2023-09-04T08:06:51Z 2023 Thesis-Doctor of Philosophy Yang, C. (2023). Robust learning for optimization: navigating samples and noise. Doctoral thesis, Nanyang Technological University, Singapore. https://hdl.handle.net/10356/170243 https://hdl.handle.net/10356/170243 10.32657/10356/170243 en This work is licensed under a Creative Commons Attribution-NonCommercial 4.0 International License (CC BY-NC 4.0). application/pdf Nanyang Technological University |
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Science::Mathematics::Applied mathematics::Optimization Science::Mathematics::Applied mathematics::Game theory Science::Mathematics::Discrete mathematics::Combinatorics Yang, Chunxue Robust learning for optimization: navigating samples and noise |
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Optimization is the process of identifying the optimal solution among a multitude of options, which lies at the heart of many computational problems in operations research, computer science, and engineering. Traditional optimization methods rely on formulating a model and designing algorithms based on input parameters. However, in practice, acquiring accurate inputs may be impeded by a lack of information, uncertainties in the objective function, or errors in parameter evaluation. This makes designing robust optimization algorithms based on learned instances containing randomness or an oracle in a noisy form an intriguing research direction, which is known as robust learning for optimization. This thesis applies robust learning for optimization to two theoretical computer science domains: auction design and combinatorial optimization, with the goal of developing robust algorithms that can efficiently output near-optimal solutions despite the presence of randomness or noise. |
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Bei Xiaohui |
author_facet |
Bei Xiaohui Yang, Chunxue |
format |
Thesis-Doctor of Philosophy |
author |
Yang, Chunxue |
author_sort |
Yang, Chunxue |
title |
Robust learning for optimization: navigating samples and noise |
title_short |
Robust learning for optimization: navigating samples and noise |
title_full |
Robust learning for optimization: navigating samples and noise |
title_fullStr |
Robust learning for optimization: navigating samples and noise |
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Robust learning for optimization: navigating samples and noise |
title_sort |
robust learning for optimization: navigating samples and noise |
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Nanyang Technological University |
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2023 |
url |
https://hdl.handle.net/10356/170243 |
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1779171079897481216 |