Binary glowworm swarm optimization for unit commitment
This paper proposes a new algorithm-binary glowworm swarm optimization (BGSO) to solve the unit commitment (UC) problem. After a certain quantity of initial feasible solutions is obtained by using the priority list and the decommitment of redundant unit, BGSO is applied to optimize the on/off state...
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doaj-d3e6083bdee1481da8fb5ca5c3fc57cb2021-04-23T16:08:43ZengIEEEJournal of Modern Power Systems and Clean Energy2196-54202014-01-012435736510.1007/s40565-014-0084-99005371Binary glowworm swarm optimization for unit commitmentMingwei Li0Xu Wang1Yu Gong2Yangyang Liu3Chuanwen Jiang4Shanghai Jiao Tong University,Department of Electrical Engineering,Shanghai,China,200240Shanghai Jiao Tong University,Department of Electrical Engineering,Shanghai,China,200240Shanghai Jiao Tong University,Department of Electrical Engineering,Shanghai,China,200240Shanghai Jiao Tong University,Department of Electrical Engineering,Shanghai,China,200240Shanghai Jiao Tong University,Department of Electrical Engineering,Shanghai,China,200240This paper proposes a new algorithm-binary glowworm swarm optimization (BGSO) to solve the unit commitment (UC) problem. After a certain quantity of initial feasible solutions is obtained by using the priority list and the decommitment of redundant unit, BGSO is applied to optimize the on/off state of the unit, and the Lambda-iteration method is adopted to solve the economic dispatch problem. In the iterative process, the solutions that do not satisfy all the constraints are adjusted by the correction method. Furthermore, different adjustment techniques such as conversion from cold start to hot start, decommitment of redundant unit, are adopted to avoid falling into local optimal solution and to keep the diversity of the feasible solutions. The proposed BGSO is tested on the power system in the range of 10–140 generating units for a 24-h scheduling period and compared to quantum-inspired evolutionary algorithm (QEA), improved binary particle swarm optimization (IBPSO) and mixed integer programming (MIP). Simulated results distinctly show that BGSO is very competent in solving the UC problem in comparison to the previously reported algorithms.https://ieeexplore.ieee.org/document/9005371/Binary glowworm swarm optimizationCorrection methodPriority listUnit commitment |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Mingwei Li Xu Wang Yu Gong Yangyang Liu Chuanwen Jiang |
spellingShingle |
Mingwei Li Xu Wang Yu Gong Yangyang Liu Chuanwen Jiang Binary glowworm swarm optimization for unit commitment Journal of Modern Power Systems and Clean Energy Binary glowworm swarm optimization Correction method Priority list Unit commitment |
author_facet |
Mingwei Li Xu Wang Yu Gong Yangyang Liu Chuanwen Jiang |
author_sort |
Mingwei Li |
title |
Binary glowworm swarm optimization for unit commitment |
title_short |
Binary glowworm swarm optimization for unit commitment |
title_full |
Binary glowworm swarm optimization for unit commitment |
title_fullStr |
Binary glowworm swarm optimization for unit commitment |
title_full_unstemmed |
Binary glowworm swarm optimization for unit commitment |
title_sort |
binary glowworm swarm optimization for unit commitment |
publisher |
IEEE |
series |
Journal of Modern Power Systems and Clean Energy |
issn |
2196-5420 |
publishDate |
2014-01-01 |
description |
This paper proposes a new algorithm-binary glowworm swarm optimization (BGSO) to solve the unit commitment (UC) problem. After a certain quantity of initial feasible solutions is obtained by using the priority list and the decommitment of redundant unit, BGSO is applied to optimize the on/off state of the unit, and the Lambda-iteration method is adopted to solve the economic dispatch problem. In the iterative process, the solutions that do not satisfy all the constraints are adjusted by the correction method. Furthermore, different adjustment techniques such as conversion from cold start to hot start, decommitment of redundant unit, are adopted to avoid falling into local optimal solution and to keep the diversity of the feasible solutions. The proposed BGSO is tested on the power system in the range of 10–140 generating units for a 24-h scheduling period and compared to quantum-inspired evolutionary algorithm (QEA), improved binary particle swarm optimization (IBPSO) and mixed integer programming (MIP). Simulated results distinctly show that BGSO is very competent in solving the UC problem in comparison to the previously reported algorithms. |
topic |
Binary glowworm swarm optimization Correction method Priority list Unit commitment |
url |
https://ieeexplore.ieee.org/document/9005371/ |
work_keys_str_mv |
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