Extended-Window Algorithms for Model Prediction Applied to Hybrid Power Systems

This paper proposes extended-window algorithms for model prediction and applies them to optimize hybrid power systems. We consider a hybrid power system comprising solar panels, batteries, a fuel cell, and a chemical hydrogen generation system. The proposed algorithms enable the periodic updating of...

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出版年:Technologies
主要な著者: Fu-Cheng Wang, Hsiao-Tzu Huang
フォーマット: 論文
言語:英語
出版事項: MDPI AG 2024-01-01
主題:
オンライン・アクセス:https://www.mdpi.com/2227-7080/12/1/6
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author Fu-Cheng Wang
Hsiao-Tzu Huang
author_facet Fu-Cheng Wang
Hsiao-Tzu Huang
author_sort Fu-Cheng Wang
collection DOAJ
container_title Technologies
description This paper proposes extended-window algorithms for model prediction and applies them to optimize hybrid power systems. We consider a hybrid power system comprising solar panels, batteries, a fuel cell, and a chemical hydrogen generation system. The proposed algorithms enable the periodic updating of prediction models and corresponding changes in system parts and power management based on the accumulated data. We first develop a hybrid power model to evaluate system responses under different conditions. We then build prediction models using five artificial intelligence algorithms. Among them, the light gradient boosting machine and extreme gradient boosting methods achieve the highest accuracies for predicting solar radiation and load responses, respectively. Therefore, we apply these two models to forecast solar and load responses. Third, we introduce extended-window algorithms and investigate the effects of window sizes and replacement costs on system performance. The results show that the optimal window size is one week, and the system cost is 13.57% lower than the cost of the system that does not use the extended-window algorithms. The proposed method also tends to make fewer component replacements when the replacement cost increases. Finally, we design experiments to demonstrate the feasibility and effectiveness of systems using extended-window model prediction.
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spelling doaj-art-8dbaea57cc5c4cafa78edd2ccd71a6aa2025-08-19T23:52:47ZengMDPI AGTechnologies2227-70802024-01-01121610.3390/technologies12010006Extended-Window Algorithms for Model Prediction Applied to Hybrid Power SystemsFu-Cheng Wang0Hsiao-Tzu Huang1Department of Mechanical Engineering, National Taiwan University, Taipei 106, TaiwanDepartment of Mechanical Engineering, National Taiwan University, Taipei 106, TaiwanThis paper proposes extended-window algorithms for model prediction and applies them to optimize hybrid power systems. We consider a hybrid power system comprising solar panels, batteries, a fuel cell, and a chemical hydrogen generation system. The proposed algorithms enable the periodic updating of prediction models and corresponding changes in system parts and power management based on the accumulated data. We first develop a hybrid power model to evaluate system responses under different conditions. We then build prediction models using five artificial intelligence algorithms. Among them, the light gradient boosting machine and extreme gradient boosting methods achieve the highest accuracies for predicting solar radiation and load responses, respectively. Therefore, we apply these two models to forecast solar and load responses. Third, we introduce extended-window algorithms and investigate the effects of window sizes and replacement costs on system performance. The results show that the optimal window size is one week, and the system cost is 13.57% lower than the cost of the system that does not use the extended-window algorithms. The proposed method also tends to make fewer component replacements when the replacement cost increases. Finally, we design experiments to demonstrate the feasibility and effectiveness of systems using extended-window model prediction.https://www.mdpi.com/2227-7080/12/1/6hybrid powerfuel cellpredictionmanagementoptimizationextended window
spellingShingle Fu-Cheng Wang
Hsiao-Tzu Huang
Extended-Window Algorithms for Model Prediction Applied to Hybrid Power Systems
hybrid power
fuel cell
prediction
management
optimization
extended window
title Extended-Window Algorithms for Model Prediction Applied to Hybrid Power Systems
title_full Extended-Window Algorithms for Model Prediction Applied to Hybrid Power Systems
title_fullStr Extended-Window Algorithms for Model Prediction Applied to Hybrid Power Systems
title_full_unstemmed Extended-Window Algorithms for Model Prediction Applied to Hybrid Power Systems
title_short Extended-Window Algorithms for Model Prediction Applied to Hybrid Power Systems
title_sort extended window algorithms for model prediction applied to hybrid power systems
topic hybrid power
fuel cell
prediction
management
optimization
extended window
url https://www.mdpi.com/2227-7080/12/1/6
work_keys_str_mv AT fuchengwang extendedwindowalgorithmsformodelpredictionappliedtohybridpowersystems
AT hsiaotzuhuang extendedwindowalgorithmsformodelpredictionappliedtohybridpowersystems