Decommissioning end-of-life wind turbine blades (EoL-WTBs) presents significant waste
management challenges. This comprehensive review explores the recycling of EoL-WTBs …

Various scenarios of end-of-life management of wind turbine blades are reviewed.“Reactive”
strategies, designed to deal with already available, ageing turbines, installed in the 2000s …

Abstract The End-of-Life (EOL) stage of the first commercial wind farms is fast approaching
and uncertainty remains in how to deal with their non-biodegradable Fibre Reinforced …

By 2050, approximately 43 million tons of wind-turbine blade (WTB) waste materials will
have accumulated, emphasizing the critical importance of effective waste management …

Green energy production has gained significance during recent years due to the Paris
agreement considering carbon emissions. One of the leading sources of energy production …

The worldwide climate issue makes wind energy an attractive renewable energy source.
Wind energy reduces carbon emissions, energy prices, creates jobs, improves power …

The transition towards carbon neutrality by 2050 in the European Union and the subsequent
increase of windpower is anticipated to lead to a significant increase in fiber-reinforced …

Increasing volumes of wind turbine blades (WTBs) meeting their end-of-life are expected in
the coming years, while establishing sustainable value chains for handling the blades is still …

The high environmental impact of bridge construction causes numerous dilemmas in
decision making related to the choice of the best material and technological solutions and …

E-glass fiber-reinforced polymer (FRP) composite wind turbine blades are
nonbiodegradable, and their end-of-life recycling solutions are limited. Research on reusing …