Future material requirements for global sustainable offshore wind energy development

Journal Article (2022)
Author(s)

Chen Li (Universiteit Leiden)

José Mogollón (Universiteit Leiden)

Arnold Tukker (Universiteit Leiden)

J. Dong (TU Delft - DC systems, Energy conversion & Storage)

Dominic Terzi (TU Delft - Wind Energy)

Chunbo Zhang (Universiteit Leiden)

Bernhard Steubing (Universiteit Leiden)

Research Group
DC systems, Energy conversion & Storage
Copyright
© 2022 Chen Li, José Mogollón, Arnold Tukker, J. Dong, D.A. von Terzi, Chunbo Zhang, Bernhard Steubing
DOI related publication
https://doi.org/10.1016/j.rser.2022.112603
More Info
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Publication Year
2022
Language
English
Copyright
© 2022 Chen Li, José Mogollón, Arnold Tukker, J. Dong, D.A. von Terzi, Chunbo Zhang, Bernhard Steubing
Research Group
DC systems, Energy conversion & Storage
Volume number
164
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Abstract

Offshore wind energy (OWE) is a cornerstone of future clean energy development. Yet, research into global OWE material demand has generally been limited to few materials and/or low technological resolution. In this study, we assess the primary raw material demand and secondary material supply of global OWE. It includes a wide assortment of materials, including bulk materials, rare earth elements, key metals, and other materials for manufacturing offshore wind turbines and foundations. Our OWE development scenarios consider important drivers such as growing wind turbine size, introducing new technologies, moving further to deep waters, and wind turbine lifetime extension. We show that the exploitation of OWE will require large quantities of raw materials from 2020 to 2040: 129–235 million tonnes (Mt) of steel, 8.2–14.6 Mt of iron, 3.8–25.9 Mt of concrete, 0.5–1.0 Mt of copper and 0.3–0.5 Mt of aluminium. Substantial amounts of rare earth elements will be required towards 2040, with up to 16, 13, 31 and 20 fold expansions in the current Neodymium (Nd), Dysprosium (Dy), Praseodymium (Pr) and Terbium (Tb) demand, respectively. Closed-loop recycling of end-of-life wind turbines could supply a maximum 3% and 12% of total material demand for OWE from 2020 to 2030, and 2030 to 2040, respectively. Moreover, a potential lifetime extension of wind turbines from 20 to 25 years would help to reduce material requirements by 7–10%. This study provides a basis for better understanding future OWE material requirements and, therefore, for optimizing future OWE developments in the ongoing energy transition.