The growing emphasis on sustainability and the transition to a circular economy have positioned wind energy as a critical component of the global renewable energy landscape. Unfortunately, the management of wind energy infrastructure in a conventional manner has also introduced many hurdles, such as weaker lifecycle management of wind turbines, a huge challenge in the recycling of blades, and a non-transparent supply chain. Blockchain technology has emerged as a transformative solution to these concerns, improving traceability, automating operations, and rewarding sustainable habits. This chapter focuses on emerging technologies as they affect wind energy sustainability, specifically blockchain applications in supply chain transparency, decentralized energy trading, smart contracts for operations and maintenance processes, and tokenized incentives for wind turbine component recycling. By designing an appropriate decentralized ledger, software agents can rely on blockchain’s automatically enforceable and immutable agreement structures to achieve ethical sources for materials usage, as well as put cost-effective processes in place for maintenance along with enhanced promotion of circular economy principles through incentives for best practices in materials disposal and reusing the turbine components. It is achieved through schemes of peer-to-peer (P2P) renewable energy exchanges, thus allowing the consumer and producer to trade their excess energy with comfort and assurance. This chapter approaches the real case studies of blockchain-enabled wind energy projects and circular economy models using case examples of successfully implementing distributed ledger technology towards improving sustainability. Moreover, the analysis focuses on practical case studies of blockchain-supported wind energy and circular economy models, where distributed ledger technology is applied to broaden sustainability potential. Such cases serve to enlighten the reader on the use of blockchain technology in the renewable energy domain, especially concerning wind energy. Despite these benefits, the widespread implementation of blockchain in renewable energy faces several problems, including scalability constraints, regulatory hurdles, and the need for more technological advances. The chapter will also conclude future research directions, as well as possible future improvements in blockchain applications for renewable energy. Blockchain technologies play an integral role in realizing optimum efficiency in wind energy management with the further merging of artificial intelligence (AI), the Internet of Things (IoT), and other digital solutions. Overcoming existing barriers and fostering collaboration among stakeholders should prevail in unlocking the full potential of blockchain that assures a sustainable and circular wind energy network.

Blockchain Innovations for a Sustainable Circular Economy in Wind Energy

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发表日期：

2026年

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Inam Ul Haq,
Himani Uppal,
Vandita Nandal

摘要

The growing emphasis on sustainability and the transition to a circular economy have positioned wind energy as a critical component of the global renewable energy landscape. Unfortunately, the management of wind energy infrastructure in a conventional manner has also introduced many hurdles, such as weaker lifecycle management of wind turbines, a huge challenge in the recycling of blades, and a non-transparent supply chain. Blockchain technology has emerged as a transformative solution to these concerns, improving traceability, automating operations, and rewarding sustainable habits. This chapter focuses on emerging technologies as they affect wind energy sustainability, specifically blockchain applications in supply chain transparency, decentralized energy trading, smart contracts for operations and maintenance processes, and tokenized incentives for wind turbine component recycling. By designing an appropriate decentralized ledger, software agents can rely on blockchain’s automatically enforceable and immutable agreement structures to achieve ethical sources for materials usage, as well as put cost-effective processes in place for maintenance along with enhanced promotion of circular economy principles through incentives for best practices in materials disposal and reusing the turbine components. It is achieved through schemes of peer-to-peer (P2P) renewable energy exchanges, thus allowing the consumer and producer to trade their excess energy with comfort and assurance. This chapter approaches the real case studies of blockchain-enabled wind energy projects and circular economy models using case examples of successfully implementing distributed ledger technology towards improving sustainability. Moreover, the analysis focuses on practical case studies of blockchain-supported wind energy and circular economy models, where distributed ledger technology is applied to broaden sustainability potential. Such cases serve to enlighten the reader on the use of blockchain technology in the renewable energy domain, especially concerning wind energy. Despite these benefits, the widespread implementation of blockchain in renewable energy faces several problems, including scalability constraints, regulatory hurdles, and the need for more technological advances. The chapter will also conclude future research directions, as well as possible future improvements in blockchain applications for renewable energy. Blockchain technologies play an integral role in realizing optimum efficiency in wind energy management with the further merging of artificial intelligence (AI), the Internet of Things (IoT), and other digital solutions. Overcoming existing barriers and fostering collaboration among stakeholders should prevail in unlocking the full potential of blockchain that assures a sustainable and circular wind energy network.