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DOE launches its first Li-ion battery recycling R&D center: ReCell; driving toward closed-loop recycling

The US Department of Energy (DOE) has launched its first lithium-ion battery recycling center, called the ReCell Center. Recycled materials from lithium-ion batteries can be reused in new batteries, reducing production costs by 10 to 30 percent, which could help lower the overall cost of electric vehicle (EV) batteries to DOE’s goal of $80 per kilowatt hour.

ReCell_PR_Infographic_loop_web_1600x900

A goal of the ReCell Center is to drive toward closed-loop recycling, where materials from spent batteries are directly recycled, minimizing energy use and waste by eliminating mining and processing steps. (Image by Argonne National Laboratory.)

The ReCell Center, DOE’s first advanced battery recycling research and development (R&D) initiative, is a collaboration between Argonne; the National Renewable Energy Laboratory (NREL); Oak Ridge National Laboratory (ORNL) and several universities including Worcester Polytechnic Institute, University of California at San Diego and Michigan Technological University.

Collaborators from across the battery supply chain, including battery manufacturers, automotive original equipment manufacturers (OEMs), recycling centers, battery lifecycle management services and material suppliers, are working with the center. The ReCell Center is supported by DOE with $15 million over three years and its work will include development of test beds and a process scaleup facility at Argonne.

The center collaborators will focus on four key research areas to enable profitable lithium-ion battery recycling for industry adoption:

  • A direct cathode recycling focus will develop recycling processes that generate products that go directly back into new batteries without the need for costly reprocessing;

  • A focus to recover other materials will work to create technologies that cost effectively recycle other battery materials, providing additional revenue streams;

  • Design for recycling will develop new battery designs optimized to make future batteries easier to recycle; and

  • Modeling and analysis tools will be developed and utilized to help direct an efficient path of R&D and to validate the work performed within the center.

University and national laboratory collaborators will use state-of-the-art R&D tools at their home institutions to develop new methods for separating and reclaiming valuable materials from spent EV batteries. Researchers will then scale up the most promising technologies at the ReCell Center facilities located at Argonne, where industrial collaborators can explore the technologies and develop them further.

The center will be a collaboration space for researchers from industry, academia and other government laboratories to use R&D tools not found at their own laboratories and to grow pre-commercial technologies.

The ReCell Center will help expedite the pursuit to profitable lithium-ion battery recycling. It combines the nation’s leading experts and research tools from academia, industry and government laboratories to solve science challenges that have prevented the U.S. from reaping the economic, environmental and security benefits that come with having a large commercial U.S.-based lithium-ion recycling market.

—Jeff Spangenberger, director of the ReCell Center

The center’s goal is to create profitable methods to improve significantly recycling rates and improve national security by reducing a reliance on foreign supplies of critical battery materials such as lithium and cobalt. This will further the President’s Executive Order 13817, which identifies the need for ​“developing critical minerals recycling and reprocessing technologies” as part of a broader strategy to ​“ensure secure and reliable supplies of critical minerals.”

Comments

yoatmon

It is my conviction that Lithium (Li) will not play a major role in the intermediate future of cell technology. It was alright for a start as a sway away from lead acid but Magnesium (Mg) has a far higher energy density potential and is virtually unlimited when compared to Li. The worldwide availability of Mg is a warranty that it cannot be monopolized as many other scarce elements; it is also cheaper than Li.
Having finally arrived in the technological stone age, humanity is wary to take the next step and clinches to its stone axe, convinced that it has reached the "ultimo ratio".

Lad

Argonne Labs has been researching Mg and Al as alternatives to Li for 5 plus years' Their conclusion is 'no'. Having said that, I hope they are wrong and you're right.

Alain

Li is great, so hopefully Mg is even better. The more options, the better.
Nevertheless, even if Li is the best option, there will never be real scarcity since it can be extracted from seawater at limiteless volumes.
Admitted, there is even much, much more Mg in seawater. But still, the amount of Li available is vertually infinite.

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