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Why Rare Earth Processing Remains Earth's Hardest Challenge
The global race to break free from Chinese dominance in rare earth supply chains has reached a critical juncture. As the United States and its allies accelerate initiatives to secure processing capacity, recent research from Malaysia reveals why this struggle may prove far more complex than simply ramping up mining operations. The fundamental barrier lies not in extracting rare earth materials from the ground, but in the extraordinarily difficult work of processing them to the ultra-high purity levels required for modern defense systems and clean energy technologies.
The Chemistry of Complexity: Separating What Nature Bonded Together
At the heart of the rare earth challenge lies a deceptively simple problem: neodymium and praseodymium sit adjacent on the periodic table, behaving almost identically at the chemical level. This proximity makes them extraordinarily resistant to splitting into separate, pure materials. Even with abundant ore deposits, isolating these elements to magnet-grade purity demands an extraordinary industrial feat.
The Malaysian engineering study quantifies just how daunting this separation process truly is. To achieve the purity levels required for high-performance permanent magnets, a processing facility must operate roughly 62 equilibrium stages. Compare this to earlier, bulk-level separations, which require as few as 16 stages. The difference is staggering: the facility must be vast, capital-intensive, and technically sophisticated—a combination that places it beyond the reach of most nations.
This technical reality explains why processing represents the true barrier to global competition. Unlike mining, which can be developed across multiple continents, processing demands decades of accumulated expertise, massive infrastructure investments, and operational scale that few countries have pursued.
The Origins of China’s Strategic Advantage
China’s near-total control over global rare earth processing did not arise by accident. In the 1980s, after acquiring early separation knowledge from France, the country embarked on a systematic three-decade effort to refine solvent extraction techniques, cultivate specialized engineering expertise, and scale manufacturing plants to industrial proportions.
The numbers reflect this dominance starkly. While China accounts for approximately 60 percent of global rare earth mining, it processes close to 90 percent of the world’s supply. The country produces roughly 70,000 metric tons of refined rare earths annually and maintains near-total control over heavy rare earth elements—materials that are even more difficult to process and critical for defense and high-temperature applications.
Beijing has demonstrated willingness to weaponize this advantage. In 2010, during a diplomatic row with Japan, China restricted rare earth exports. By 2023, it had imposed sweeping restrictions on exporting rare earth processing and separation technologies, further entrenching competitors’ dependency on Chinese facilities.
America’s Strategic Wake-Up Call
The realization that rare earths are indispensable to modern warfare—powering everything from fighter jet engines and submarine systems to precision-guided munitions—has galvanized Washington’s response. Despite being the world’s second-largest rare earth producer, the United States has historically shipped most of its domestically mined material to China for processing, lacking the commercial-scale capacity to handle the separation domestically.
Since 2020, the U.S. Department of Defense has committed hundreds of millions of dollars to constructing a “mine-to-magnet” supply chain, with projects concentrated in Texas. These initiatives encompass light and heavy rare earth separation plants, metal and alloy production facilities, and permanent magnet manufacturing capacity. However, the timeline remains long—new facilities require years to reach operational scale—and most current projects focus initially on lighter rare earth elements rather than the heavier materials where China’s control is nearly absolute.
Diversifying Beyond China: The Mozambique Development
In February 2026, the U.S. Trade and Development Agency confirmed its support for Altona Rare Earths’ Monte Muambe project in Mozambique, marking a significant shift in American strategy. The announcement, made during a high-level forum on U.S. support for critical mining projects across sub-Saharan Africa, signals Washington’s determination to build non-Chinese processing networks.
The USTDA’s backing will help map out the technical and financial pathway for Monte Muambe, which holds rare earth materials essential for permanent magnets, defense systems, and renewable energy infrastructure. Beyond rare earths, Altona’s pending assay results from fluorspar and gallium drilling could enhance the project’s strategic value. Fluorspar is a key industrial mineral for steelmaking and battery production—sectors where China similarly maintains significant market control.
This support aligns with broader U.S. initiatives, including Project Vault, Washington’s effort to secure strategic reserves and reduce dependence on Chinese processing. It also coincides with the launch of FORGE (Forum on Resource Geostrategic Engagement), unveiled at the 2026 Critical Minerals Ministerial as a mechanism to mobilize capital and diplomatic backing for resilient mineral supply networks across allied nations.
The Long Road Ahead
The Malaysian research reinforces an uncomfortable truth: even when geology favors mining, processing remains the genuine choke point. Breaking China’s control requires not just capital investment, but the development of technical expertise, regulatory frameworks, and industrial infrastructure that span decades. The projects now taking shape represent the beginning of a long recalibration in global rare earth supply chains—one that will test whether Western nations can replicate in years what China built across generations.