A parallel multi-objective optimization based on adaptive surrogate model for combined operation of multiple hydraulic facilities in water diversion project
IF 2.2 3区 工程技术Q3 COMPUTER SCIENCE, INTERDISCIPLINARY APPLICATIONS
{"title":"A parallel multi-objective optimization based on adaptive surrogate model for combined operation of multiple hydraulic facilities in water diversion project","authors":"Xiaolian Liu, Zirong Liu, Xiaopeng Hou, Yu Tian, Xueni Wang, Leike Zhang, Hao Wang","doi":"10.2166/hydro.2024.285","DOIUrl":null,"url":null,"abstract":"<div><div data- reveal-group-><div><img alt=\"graphic\" data-src=\"https://iwa.silverchair-cdn.com/iwa/content_public/journal/jh/26/6/10.2166_hydro.2024.285/1/m_hydro-d-23-00285gf01.png?Expires=1722776531&Signature=fzcnkQR2-2BId91KCizNTxQeaQ6fzTXeOpk5iiQ11CgnaJp~zCbqs-W4ADrr-4H56dTw4YpDE2umo9ru66tRlelR-HNh79KpDaxof~HKccwEiCxsi25D9WE7oZBJ9ratf6TVwKEvHV0Q8Wl6Kv7p6AyXQNk0lbqrJEJsOSQiFEoYsilEX04eciQGPQKxNlXo8eLfi3xhs5ba7DhcjXBg-KFrr1ylb03S~75HJVPRChuCN3CnZxKDGDDVixLI92fwjyunfJgAZFXIRvVEjdHsOfvmU5Z-EwBNil5ZeMJQ7vgv8eqs7xO4MIwo4j~65L3Oe~BToMRNBx6E1cdPYDNCPg__&Key-Pair-Id=APKAIE5G5CRDK6RD3PGA\" path-from-xml=\"hydro-d-23-00285gf01.tif\" src=\"https://iwa.silverchair-cdn.com/iwa/content_public/journal/jh/26/6/10.2166_hydro.2024.285/1/m_hydro-d-23-00285gf01.png?Expires=1722776531&Signature=fzcnkQR2-2BId91KCizNTxQeaQ6fzTXeOpk5iiQ11CgnaJp~zCbqs-W4ADrr-4H56dTw4YpDE2umo9ru66tRlelR-HNh79KpDaxof~HKccwEiCxsi25D9WE7oZBJ9ratf6TVwKEvHV0Q8Wl6Kv7p6AyXQNk0lbqrJEJsOSQiFEoYsilEX04eciQGPQKxNlXo8eLfi3xhs5ba7DhcjXBg-KFrr1ylb03S~75HJVPRChuCN3CnZxKDGDDVixLI92fwjyunfJgAZFXIRvVEjdHsOfvmU5Z-EwBNil5ZeMJQ7vgv8eqs7xO4MIwo4j~65L3Oe~BToMRNBx6E1cdPYDNCPg__&Key-Pair-Id=APKAIE5G5CRDK6RD3PGA\"/><div>View largeDownload slide</div></div></div><div content- data-reveal=\"data-reveal\"><div><img alt=\"graphic\" data-src=\"https://iwa.silverchair-cdn.com/iwa/content_public/journal/jh/26/6/10.2166_hydro.2024.285/1/m_hydro-d-23-00285gf01.png?Expires=1722776531&Signature=fzcnkQR2-2BId91KCizNTxQeaQ6fzTXeOpk5iiQ11CgnaJp~zCbqs-W4ADrr-4H56dTw4YpDE2umo9ru66tRlelR-HNh79KpDaxof~HKccwEiCxsi25D9WE7oZBJ9ratf6TVwKEvHV0Q8Wl6Kv7p6AyXQNk0lbqrJEJsOSQiFEoYsilEX04eciQGPQKxNlXo8eLfi3xhs5ba7DhcjXBg-KFrr1ylb03S~75HJVPRChuCN3CnZxKDGDDVixLI92fwjyunfJgAZFXIRvVEjdHsOfvmU5Z-EwBNil5ZeMJQ7vgv8eqs7xO4MIwo4j~65L3Oe~BToMRNBx6E1cdPYDNCPg__&Key-Pair-Id=APKAIE5G5CRDK6RD3PGA\" path-from-xml=\"hydro-d-23-00285gf01.tif\" src=\"https://iwa.silverchair-cdn.com/iwa/content_public/journal/jh/26/6/10.2166_hydro.2024.285/1/m_hydro-d-23-00285gf01.png?Expires=1722776531&Signature=fzcnkQR2-2BId91KCizNTxQeaQ6fzTXeOpk5iiQ11CgnaJp~zCbqs-W4ADrr-4H56dTw4YpDE2umo9ru66tRlelR-HNh79KpDaxof~HKccwEiCxsi25D9WE7oZBJ9ratf6TVwKEvHV0Q8Wl6Kv7p6AyXQNk0lbqrJEJsOSQiFEoYsilEX04eciQGPQKxNlXo8eLfi3xhs5ba7DhcjXBg-KFrr1ylb03S~75HJVPRChuCN3CnZxKDGDDVixLI92fwjyunfJgAZFXIRvVEjdHsOfvmU5Z-EwBNil5ZeMJQ7vgv8eqs7xO4MIwo4j~65L3Oe~BToMRNBx6E1cdPYDNCPg__&Key-Pair-Id=APKAIE5G5CRDK6RD3PGA\"/><div>View largeDownload slide</div></div><i> </i><span>Close modal</span></div></div><p>In a complex pressurized water diversion project (WDP), the combined optimal operation of multiple hydraulic facilities is computationally expensive owing to the requirement of massive mathematical simulation model runs. A parallel multi-objective optimization based on adaptive surrogate model (PMO-ASMO) was proposed in this study to alleviate the computational burden while maintaining its effectiveness. At the simulation level, an adaptive surrogate model was established, while a parallel non-dominated sorting genetic algorithm II (PNSGA-II) was utilized at the optimization level. Taking the successive shutdown of pumps as the operating process, the PMO-ASMO was applied to a complex pressurized diversion section of the Jiaodong WDP in China, and the results were compared with those obtained by NSGA-II and PNSGA-II. The results showed that the time consumption of PMO-ASMO was only 9.97% of that acquired by NSGA-II, which was comparable to that of PNSGA-II, in the case of 10-core parallelism. Moreover, compared with PNSGA-II, PMO-ASMO could find the optimal and stable Pareto front with the same number of simulation model runs, or even fewer runs. These results validated the effectiveness and efficiency of the PMO-ASMO. Therefore, the proposed framework based on multi-objective optimization is efficient for combined optimal operation of multiple hydraulic facilities.</p>","PeriodicalId":54801,"journal":{"name":"Journal of Hydroinformatics","volume":null,"pages":null},"PeriodicalIF":2.2000,"publicationDate":"2024-06-01","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"Journal of Hydroinformatics","FirstCategoryId":"5","ListUrlMain":"https://doi.org/10.2166/hydro.2024.285","RegionNum":3,"RegionCategory":"工程技术","ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"Q3","JCRName":"COMPUTER SCIENCE, INTERDISCIPLINARY APPLICATIONS","Score":null,"Total":0}
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In a complex pressurized water diversion project (WDP), the combined optimal operation of multiple hydraulic facilities is computationally expensive owing to the requirement of massive mathematical simulation model runs. A parallel multi-objective optimization based on adaptive surrogate model (PMO-ASMO) was proposed in this study to alleviate the computational burden while maintaining its effectiveness. At the simulation level, an adaptive surrogate model was established, while a parallel non-dominated sorting genetic algorithm II (PNSGA-II) was utilized at the optimization level. Taking the successive shutdown of pumps as the operating process, the PMO-ASMO was applied to a complex pressurized diversion section of the Jiaodong WDP in China, and the results were compared with those obtained by NSGA-II and PNSGA-II. The results showed that the time consumption of PMO-ASMO was only 9.97% of that acquired by NSGA-II, which was comparable to that of PNSGA-II, in the case of 10-core parallelism. Moreover, compared with PNSGA-II, PMO-ASMO could find the optimal and stable Pareto front with the same number of simulation model runs, or even fewer runs. These results validated the effectiveness and efficiency of the PMO-ASMO. Therefore, the proposed framework based on multi-objective optimization is efficient for combined optimal operation of multiple hydraulic facilities.
期刊介绍:
Journal of Hydroinformatics is a peer-reviewed journal devoted to the application of information technology in the widest sense to problems of the aquatic environment. It promotes Hydroinformatics as a cross-disciplinary field of study, combining technological, human-sociological and more general environmental interests, including an ethical perspective.