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          The US-China Trade War: A New Chapter in Graphite Export Restrictions

          17 November 2023

          4 Min Read

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          Key Takeaways

          Trade tensions between the US and China have recently escalated with China’s move to control graphite exports, a critical resource for the EV industry.

          As a result, the US and EU have been forced to diversify their supply chains and invest in battery recycling and domestic processing of raw materials to reduce their reliance on China.

          Investors are in turn prioritising companies with circular economy principles for resource security and sustainability in the face of geopolitical challenges.

          Trade tensions between the United States and China, simmering over years of tariffs and restrictions, have recently escalated with China’s move to control graphite exports, a critical resource for the electric vehicle (EV) industry. This strategic play by China, the leading producer contributing to a substantial percentage of the global supply, reverberates through the corridors of global trade and industrial planning.

          Response to the graphite restrictions

          In response to China’s restrictions, there’s been a palpable shift in the West towards fortifying alternative supply chains. This strategic pivot isn’t just about finding new sources of raw materials; it’s about embracing the principles of a circular economy—a system aimed at eliminating waste and the continual use of resources.

          This approach is critical for industries like EVs, where material scarcity is a real and present challenge.

          In the quest for circularity, the EU and US are significantly investing in battery recycling capacities, an essential link in the circular economy chain. Industry leaders Li-Cycle1 and Redwood Materials2 are pioneering this space, developing the infrastructure to reclaim valuable metals from spent batteries. North America’s Ascend Elements, also expanding into Europe, joins this effort, signifying a transatlantic push towards a closed-loop system in battery production.3

          Chile’s approach to enhancing the value chain within its borders by developing more sophisticated lithium processing capabilities further illustrates a global transition towards circular economic models. Notably, Chile’s deal with China’s Tsingshan to build an LFP4 cathode plant showcases this shift from raw material exportation to processing, retaining more value within the country.5

          export, dock

          Investors shift focus

          Investor focus on these developments is sharp. The circular economy represents not just a sustainable business model but a strategic bulwark against geopolitical risks. This is especially pertinent given the West’s reaction to China’s 2010 Rare Earth Elements embargo on Japan.6 The incident catalysed the development of the region’s first non-Chinese REE processing facility in Malaysia—a move to ensure supply chain resilience that resonates with today’s graphite context.

          China’s export controls on spherical graphite—a precursor for EV battery anodes—highlight the potential for immediate supply shocks, yet they also emphasize the fragility of over-reliance on single-source supply chains. China’s 2010 embargo is a case in point, prompting the search for and investment in alternative sources that would otherwise have remained uneconomic.7

          This escalation in trade restrictions plays into a broader narrative: it’s a power play that necessitates a careful balance. China risks not only the acceleration of alternative resource development by the West but also its credibility in the global trade arena. Should controls tighten hastily, the alternative sources and technologies may rapidly become economically viable, reflecting the reactive nature of policy support to invest in these options. For example, the limitations on graphite have revived interest in alternative materials like silicon for battery anodes. Silicon, abundant and promising in energy storage efficiency, stands out as a prime candidate to reduce the reliance on graphite. While the shift to silicon is challenging—given its properties like volumetric expansion during charging—progress in this domain is gaining momentum, spurred by both necessity and the push for a circular economy.8

          Investors, cognizant of these tensions, are looking toward companies that exemplify circular economy principles. These entities not only contribute to resource security but also align with a future where economic activities are geared towards sustainability and strategic autonomy.

          Conclusion

          As the graphite export saga unfolds, it’s a stark reminder of the critical intersection between resource politics and the need for robust, circular supply chains. The West’s increasing concern over supply chain security, coupled with strategic responses like battery recycling and domestic processing, underscores the importance of integrating circular economy principles into the investment narrative. In the face of geopolitical manoeuvring, the promotion of a circular economy is not just a strategic investment choice; it’s a linchpin for future economic resilience and stability.

          References

          1

          Recycling International, “Li-Cycle’s first battery venture in Europe”, October 2023. Available at: https://recyclinginternational.com/business/li-cycles-first-battery-venture-in-europe/55094/

          2

          Forbes, “Redwood Materials Gears Up To Recycle First Big Wave Of Used EV Batteries”, November 2023. Available at: https://www.forbes.com/sites/alanohnsman/2023/11/02/redwood-materials-gears-up-to-recycle-first-big-wave-of-used-ev-batteries/?sh=2652eb571b42

          3

          The EV Report, “Ascend Elements Transforms Battery Industry with Sustainable, High-Nickel Cathode Manufacturing Technology”, June 2023. Available at: https://theevreport.com/ascend-elements-transforms-battery-industry-with-sustainable-high-nickel-cathode-manufacturing-technology

          4

          LFP stands for Lithium Iron Phosphate, which is a type of lithium-ion battery that uses lithium iron phosphate as the cathode material. LFP batteries are known for their long life, safety, and thermal stability. They are widely used in applications where safety and longevity are prioritized, such as electric vehicles and stationary energy storage systems

          5

          Nikkei Asia, “China’s Tsingshan plans $233m lithium investment in Chile”, October 2023. Available at: https://asia.nikkei.com/Business/Automobiles/China-s-Tsingshan-plans-233m-lithium-investment-in-Chile

          6

          Centre for Economic Policy Research, “Revisiting the China–Japan Rare Earths dispute of 2010”, July 2023. Available at: https://cepr.org/voxeu/columns/revisiting-china-japan-rare-earths-dispute-2010#:~:text=In%202010%2C%20China%20halted%20exports,(New%20York%20Times%202023)

          7

          Ibid.

          8

          Science Direct, “Theoretical progresses in silicon anode substitutes for Lithium-ion batteries”,2022. Available at: https://www.sciencedirect.com/science/article/abs/pii/S2352152X22013469

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