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wind-turbine.com interviewed Sara Ghafouri from Cyclic Materials to explore Rare Earth recycling in used wind turbines. Founded in 2021, Cyclic Materials is scaling its innovative technology to recover Neodymium, Dysprosium, and other critical metals while addressing industry challenges like low recycling rates and supply chain dependence.
How long have you been involved in wind turbine recycling and
why?
Cyclic Materials was founded in 2021 with a mission to
establish a circular economy for Rare Earth Elements as well as the base metals
that are critical to the energy transition. In the Fall 2023, we launched our
commercial demonstration plant with initial recycling capacity of 8,000 tonne
per year of input scrap. This marked the beginning of our industrial journey to
actively recycle wind turbine generators and recover the Rare Earths, as well
as Copper, Aluminum and steel. Our two-stage multi-patented technology is
designed to efficiently recover the Copper, Aluminum and steel while extracting
Rare Earth Oxides from the magnets. As the demand goes stronger everyday, we are
now scaling that capacity to 25,000 tonne per year. Permanent magnet synchronous wind turbine generators contain significant
quantities of Rare Earth magnets, yet today, less than1% of these materials are
recycled. While the majority of the value for these components traditionally
comes from Copper, our process uniquely recovers both critical materials and the
most valuable Rare Earths. Our ultimate goal is to create a sustainable, circular and
domestic supply chain for these critical raw materials further support the
global energy transition towards a greener future.
What types of
rare earths are found in wind turbines?
Wind turbines utilize key Rare Earth elements, including
Neodymium, Praseodymium, Dysprosium, and Terbium, in their permanent magnet
generators. These elements are essential for improving the efficiency and
reliability of wind turbines while minimizing maintenance needs. Neodymium and
Praseodymium are the primary components in the powerful magnets that enable
high energy density and compact designs. Dysprosium and
Terbium are added to enhance the magnets' heat resistance and performance in
extreme conditions. These Rare Earths play a critical role in maximizing the
performance of modern wind turbines, making them indispensable for the
renewable energy sector latest generations.
In your opinion,
what are the biggest challenges in recovering rare earths from wind turbines?
One key
challenge is that end-of-life management and recycling are still growing topics
within the ever-growing wind turbine industry[SG1] . With focus on sustainability, there is also a
pressing need to integrate Rare Earths recycling into lifecycle planning and
regulation frameworks. Rare Earth recycling technologies only reached maturity
in the recent years, necessitating significant efforts to raise awareness and
educate industry stakeholders about their huge potential. With only 1% of rare
earth elements (REEs) currently being recycled and over 90% of global
production controlled by China, diversifying and scaling sustainable recycling
solutions is critical to securing supply chains all the while reducing
geopolitical and environmental risks: this is a major industry challenge that
must be addressed collectively.
We see 3 key challenges across industry
Foster transparency: Our approach to recycling enhances transparency by providing
detailed data on material composition and recovery potential at the end of a
turbine's lifecycle, enabling more efficient recycling and greater value
extraction. We believe such practices will attract more players to ultimately
consolidate circular practices across the industry.
Maximize collaboration: At Cyclic Materials, we not only understand the challenges
ahead of us but also actively promote the importance of recycling REEs from wind
turbines by engaging with manufacturers, operators and policymakers. By
demonstrating the environmental benefits, such as CO₂ emission reductions, and
the economic value our processes generate, we aim to drive transparency, but
also foster broader adoption and collaboration within the industry.
Transportation & Logistics: Handling and transporting larger-capacity wind
turbine generators and preparing them for efficient shipping to recycling
facilities is an important challenge. To address this, we leverage our global network
of logistics experts, building on our experience with transporting large-scale
components, such as MRI machines which can weigh over 20 tonnes. This ensures even
the largest turbine components are efficiently dismantled, shipped and
processed at our facilities for maximum resource recovery.
Which turbine types do you consider relevant and which markets?
Rare earth elements (REEs) are crucial for wind turbines that
use permanent magnet synchronous generators (PMSGs), particularly in direct-drive
systems which are known for their high efficiency and lower maintenance needs. As
these turbines do not require a gearbox, they are particularly suited for offshore
and high-capacity onshore applications. These elements are also key in hybrid
systems, which combine a smaller gearbox with permanent magnet generators and
are commonly used in medium to large-scale onshore turbines. These hybrid
systems are prevalent in the market and form a significant focus of our
recycling efforts, driven by the expertise of our engineering teams in handling
complex end-of-life materials and optimizing recovery processes. As Cyclic Materials is pursuing its global expansion for Rare
Earth Recycling infrastructure, we actively focus on recycling materials from
these turbine types, targeting the most dynamic markets, notably the USA,
Germany, Spain and the UK.
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