Renewable energy sources,particularly photovoltaic and wind power,are essential in meeting global energy mands de-while minimising environmental impact.Accurate photovoltaic(PV)and wind power(WP)forecasting is crucial...Renewable energy sources,particularly photovoltaic and wind power,are essential in meeting global energy mands de-while minimising environmental impact.Accurate photovoltaic(PV)and wind power(WP)forecasting is crucial for effective grid management and sustainable energy integration.However,traditional forecasting methods encounter challenges such as data privacy,centralised processing,and data sharing,particularly with dispersed data sources.This review paper thoroughly examines the necessity of forecasting models,methodologies,and data integrity,with a keen eye on the evolving landscape of Federated Learning(FL)in PV and WP forecasting.Commencing with an introduction highlighting the significance of forecasting models in optimising renewable energy resource utilisation,the paper delves into various forecasting techniques and emphasises the critical need for data integrity and security.A comprehensive overview of non-Federated Learning-based PV and WP forecasting is presented based on high-quality journals,followed by in-depth discussions on specific non-Federated Learning approaches for each power source.The paper subsequently introduces FL and its variants,including Horizontal,Vertical,Transfer,Cross-Device,and Cross-Silo FL,highlighting the crucial role of encryption mechanisms and addressing associated challenges.Furthermore,drawing on extensive investigations of numerous pertinent articles,the paper outlines the innovative horizon of FL-based PV and wind power forecasting,offering insights into FL-based methodologies and concluding with observations drawn from this frontier.This review synthesises critical knowledge about PV and WP forecasting,leveraging the emerging paradigm of FL.Ultimately,this work contributes to the advancement of renewable energy integration and the optimisation of power grid management sustainably and securely.展开更多
基金supported by the Artificial Intelligence,Biomechatronics,and Collaborative Robotics research group at the Top Research Center Mechatronics(TRCM),University of Agder(UIA),Norway.
文摘Renewable energy sources,particularly photovoltaic and wind power,are essential in meeting global energy mands de-while minimising environmental impact.Accurate photovoltaic(PV)and wind power(WP)forecasting is crucial for effective grid management and sustainable energy integration.However,traditional forecasting methods encounter challenges such as data privacy,centralised processing,and data sharing,particularly with dispersed data sources.This review paper thoroughly examines the necessity of forecasting models,methodologies,and data integrity,with a keen eye on the evolving landscape of Federated Learning(FL)in PV and WP forecasting.Commencing with an introduction highlighting the significance of forecasting models in optimising renewable energy resource utilisation,the paper delves into various forecasting techniques and emphasises the critical need for data integrity and security.A comprehensive overview of non-Federated Learning-based PV and WP forecasting is presented based on high-quality journals,followed by in-depth discussions on specific non-Federated Learning approaches for each power source.The paper subsequently introduces FL and its variants,including Horizontal,Vertical,Transfer,Cross-Device,and Cross-Silo FL,highlighting the crucial role of encryption mechanisms and addressing associated challenges.Furthermore,drawing on extensive investigations of numerous pertinent articles,the paper outlines the innovative horizon of FL-based PV and wind power forecasting,offering insights into FL-based methodologies and concluding with observations drawn from this frontier.This review synthesises critical knowledge about PV and WP forecasting,leveraging the emerging paradigm of FL.Ultimately,this work contributes to the advancement of renewable energy integration and the optimisation of power grid management sustainably and securely.
