• An American View on U.S. Investment in Critical-Mineral Mining in Australia

    In May, the United States and Australia signed a compact which, among other things, aims to coordinate policies and investments to support the expansion and diversification of critical minerals supply chains. In this case, diversification basically equates to reducing dependence on China, in which various links in the critical-mineral supply chain are heavily concentrated.

  • Can We Use Plastic Waste to Build Roads, Buildings, and More?

    A new study examines the current status, challenges, and needs of recycling plastics in a circular economy, and examine the long-term durability and environmental costs of doing so for use in infrastructure. Stanford engineers Zhiye Li and Michael Lepech discuss the potential for reusing discarded plastic in infrastructure applications.

  • China’s Gallium and Germanium Controls: What They Mean and What Could Happen Next

    From August, China is to restrict exports of gallium and germanium, two critical elements for making semiconductor chips. China dominates the supply of both elements. The restrictions look likely to lead to higher prices for gallium and germanium, as well as longer delivery times.

  • Opportunities for Australia–ASEAN Collaboration on Critical Minerals

    Southeast Asia’s energy transition is coming to life as the development of green technologies accelerates across the region. Securing critical minerals will be crucial to this process, and Australia should work with Southeast Asia to realize their mutual goals in this area.

  • Who Will Benefit from Australia’s Critical Minerals Strategy?

    Critical mineral projects will be favored for Australian federal government loans under its new critical minerals strategy, but there are to be no tailored tax breaks. Nor are there any plans to make downstream processing a condition of mining or export approvals.

  • Rare Earth Elements in Turkey: Emerging Prospects

    Turkey discovered the world’s second-largest deposit of rare earth elements (REEs) in 2022, with an estimated reserve size of 694 million tons, making it the world’s second largest REEs deposit after China’s reserves of 800 million tons. China accounts for 60 percent of the worldwide REEs mined production, 85 percent of the world’s REEs processing capacity, and 90 percent share of the manufacturing of high-strength rare earth permanent magnets.

  • Boosting Supply Chains by Recovering Valuable Materials from Water

    Promoting national security and economic competitiveness will require America’s researchers to find new ways to obtain the materials that we need for many technologies. Traditional mining is fraught with challenges, while water, from the oceans to geothermal brines, is an underexplored resource for providing various materials.

  • How Much Cobalt Can Be Mined in the U.S.? Study Examines Mining Site in Idaho

    Demand for cobalt is projected to increase more than 500% by 2050. Roughly 70% of the cobalt mined globally is from the Democratic Republic of the Congo and then processed in China. Experts note that despite a high projected need for cobalt, battery technologies that use other ingredients have been gaining attention and popularity, such as lithium-iron-phosphate batteries, also called LFPs.

  • Using AI to Find Rare Minerals

    A machine learning model can predict the locations of minerals on Earth—and potentially other planets—by taking advantage of patterns in mineral associations.

  • The Critical Minerals End-Game?

    To reduce greenhouse gas emissions, there’s been a dramatic uptake of renewable energy, primarily solar and wind, with a transition to lithium-ion batteries for electric vehicles and energy storage. The transition relies on increasing the extraction of critical minerals for their production.

  • Militaries, Metals, and Mining

    The U.S. aerospace and defense industries need access to critical minerals. Securing these minerals today may be an even more-complex task than it was during the cold war: the task requires more than deploying audacious subterfuge, as the CIA did in the 1960s to get titanium out of the Soviet Union. These minerals are now very much in the public eye, and they are also needed for the clean energy technologies that will help combat climate change.

  • Searching for Critical Minerals in New Mexico, Utah

    The U.S. Geological Survey will provide nearly $3.4 million to map critical-mineral resources in New Mexico in partnership with the New Mexico Bureau of Geology and Mineral Resources, and more than $6.6 million to map critical mineral resources in Utah, in partnership with the Utah Geological Survey.

  • EV Batteries: Chinese Dominance Raises Thorny Questions

    Chinese firms currently dominate the electric vehicle battery supply chain — from mining and refining through to final assembly. This leaves Western automakers with little option but to rely on Chinese-made batteries.

  • Better Together: Japan and the Five Eyes Need to Focus on Critical Minerals

    Critical minerals are being consumed in greater volumes than ever before, and the level of demand will only increase over the next 10 to 20 years, and beyond. The governments of Japan and the Five Eyes countries (Australia, Canada, New Zealand, the United Kingdom and the United States) are aware that critical minerals, including rare-earth elements, will be increasingly needed as the world shifts from fossil-fuel systems to renewable energy sources. The partner nations are also clear about the challenges and opportunities, especially given that the supply chains for several critical minerals have only one or few dominant key players.

  • Critical Metal Needs Rise as Cars, Trucks Decarbonize

    The demand for battery-grade lithium, nickel, cobalt, manganese and platinum will climb steeply as nations work to reduce greenhouse gas emissions through mid-century, but will likely set off economic snags and supply-chain hitches.