View the current rare-earth industry rationally.

The rare earth industry is a relatively small sector. In 2009, China’s rare earth industry recorded a total industrial output value of RMB 24.07 billion and achieved sales revenue of RMB 24.37 billion. Exports of refined and separated rare earth products amounted to US$310 million, while exports of rare earth permanent‑magnet materials reached US$376 million. Accurately understanding and scientifically positioning China’s rare earth industry is, at present, a matter of overarching importance for its overall development.
　　I. We must not dismiss the achievements of China’s rare earth industry by focusing on isolated cases.
　　Looking back on the 60-year journey of China’s rare‑earth industry, it is clear that, despite certain challenges—such as rudimentary mining practices leading to severe resource waste, disorderly export markets, and environmental pollution and degradation—the sector has nonetheless achieved notable accomplishments. We must avoid painting an overly negative picture; fixating solely on the industry’s shortcomings is neither objective nor conducive to maintaining confidence within the sector, nor does it serve the long-term development of the rare‑earth industry.
　　Beginning in the early 1950s, under the care and attention of the Party Central Committee and the State Council, a distinguished group of Chinese scientists and engineers embarked on intensive research efforts in rare‑earth geological exploration, ore beneficiation, and metallurgical processing, successively overcoming a series of scientific and technical challenges—from ore dressing to separation and extraction. In particular, veteran scientists, working under extremely arduous conditions, accomplished numerous rare‑earth research tasks, making indelible contributions to the development of China’s rare‑earth industry. Through the tireless efforts of several generations of “rare‑earth pioneers,” China’s rare‑earth sector has grown from scratch to become a major player, achieving remarkable accomplishments that have captured worldwide attention. Especially over the past three decades since the launch of reform and opening-up, the rare‑earth industry has made outstanding progress, establishing a relatively complete industrial system that integrates research and development, production, and application across mining and beneficiation, smelting and separation, advanced processing, new materials, and rare‑earth‑based end products. China has thus emerged as the world’s largest producer, exporter, and consumer of rare earths, and its rare‑earth industry has become one of the nation’s key sectors with strong international competitiveness. It has made significant contributions to China’s national economy and defense modernization, while also playing a vital role in advancing and supporting the global high‑tech industry.
　　Of course, we must also acknowledge that in the early stages of reform and opening-up, driven by profit motives, some regions experienced a rush to exploit resources, leading to over‑extraction, low‑level redundant construction in rare‑earth separation and smelting, and severe resource waste and soil erosion. This resulted in a serious imbalance between production and sales, as well as cutthroat market competition—what the media once described as an era of “selling resources at rock-bottom prices.” In recent years, the Chinese government has steadily strengthened the management of rare earths, intensified industrial restructuring, accelerated enterprise consolidation, and significantly increased industry concentration. Meanwhile, overseas markets for rare earth applications, including high‑end sectors, have been increasingly shifting to China.
　　II. The 17 rare earth elements should be further subdivided and appropriately classified.
　　Rare earths is a collective term for a group of metals that includes the lanthanides—lanthanum, cerium, praseodymium, neodymium, promethium, samarium, europium, gadolinium, terbium, dysprosium, holmium, erbium, thulium, ytterbium, and lutetium—as well as scandium and yttrium, which share similar chemical properties.
　　The English term for rare earths is “Rare Earth,” which literally means “rare earth.” In fact, this name is a legacy of a 18th‑century misunderstanding. Rare earth elements are far from scarce. Their abundance in the Earth’s crust is anything but limited; their weight percentage in the crust even exceeds that of common metals such as copper, lead, zinc, and silver. Moreover, they do not resemble “earths” at all—rather, they constitute a group of highly reactive metals.
　　Based on chemical similarity and the requirements of separation processes, rare earth elements are typically classified into two groups—light and heavy—or into three groups—light, medium, and heavy. The light rare earths comprise lanthanum, cerium, praseodymium, neodymium, and promethium; the medium rare earths include samarium, europium, and gadolinium; and the heavy rare earths consist of terbium, dysprosium, holmium, erbium, thulium, ytterbium, lutetium, and yttrium.
　　China’s rare earth resources are characterized by a “light‑in the north, heavy‑in the south” distribution. In the north, the primary deposits are concentrated at Bayan Obo in Baotou, where light rare earths are abundant and widely used. Meanwhile, regions such as Jiangxi, Guangdong, Fujian, Hunan, and Guangxi host ion‑adsorption-type rare earth deposits unique to China, rich in heavy rare earth elements like yttrium, dysprosium, and terbium—elements that are both scarce in total quantity and prized for their specialized applications.
　　The export quota licensing system for rare earth products is a key policy measure in the development of China’s rare earth industry. At present, China is seeking to gain control over international rare earth prices and to protect and consolidate its domestic rare earth resources by reducing export quotas. However, it is worth noting that, in formulating its rare earth export‑quota policies, China has failed to distinguish between light and heavy rare earths, which has in turn prevented effective management of the valuable heavy rare earths. Under the calculation formula currently adopted by the state, both producing and trading enterprises must meet two primary criteria—namely, their rare earth export volumes and export values over the past three years—in order to qualify for quota applications. In reality, fluctuations in export value are not driven by the price levels of individual products but rather by the specific types of rare earths being exported. Since there are 17 distinct rare earth elements, and not all of them are equally scarce, price differentials among them can be substantial. Allocating quotas solely on the basis of foreign‑exchange earnings is likely to hinder the balanced development of various rare earth product categories and may encourage the exploitation of high‑value ores while neglecting lower‑value ones, leading to over‑extraction.
　　At present, China’s rare‑earth exports are not disaggregated by specific element. Consequently, from a corporate perspective, it is clearly more economically advantageous to allocate the scarce export quotas to higher‑value rare‑earth elements. For example, at current prices, 1 kilogram of dysprosium oxide fetches around RMB 1,350, whereas 1 kilogram of cerium oxide sells for less than RMB 30. As a result, many companies have begun to squeeze the export quotas for light rare earths while increasing shipments of heavy rare earths. This practice, in turn, accelerates the outflow of scarce rare‑earth elements abroad. With heavy rare earths commanding “high added value,” this has created a perverse effect: the state’s policy of “encouraging” the export of heavy rare earths ends up undermining domestic supply‑chain stability.
　　Therefore, it is overly simplistic to categorize all 17 rare earth elements as strategic resources. It would be more appropriate to subdivide them and assign each element a specific role: medium- and heavy‑rare earths, which are relatively scarce, have unique applications and irreplaceable advantages, and are essential for national defense strategies and cutting‑edge technologies, should be designated as strategic resources and subject to strict control and protection. By contrast, elements such as lanthanum and cerium—abundant in reserves, primarily used for civilian purposes, and widely applied—should see increased development and utilization; we can no longer treat all rare earths as a single homogeneous category. Moreover, the 17 rare earth elements cannot be governed by a single quota standard; instead, they should be classified into two, three, or even more tiers based on their relative scarcity.
　　III. Many other countries around the world also possess rare earth resources.
　　In fact, the world’s reserves of rare earth elements are vast. In addition to China, which boasts substantial resources, countries such as Australia, Russia, the United States, Brazil, Canada, and India also possess abundant deposits. In recent years, large rare earth deposits have been discovered in Vietnam as well. Furthermore, nations and regions including South Africa, Malaysia, Indonesia, Sri Lanka, Mongolia, North Korea, Afghanistan, Saudi Arabia, Turkey, and Norway have all yielded sizable rare earth deposits. With the exception of Antarctica and the Arctic—where no reports have yet emerged—the other major continents all harbor significant rare earth resources.
　　There are differing sources for global rare‑earth resource reserves. Following the 2001 revision approved by China’s National Reserve Commission, China’s proven rare‑earth reserves were revised to 71.3 million tonnes, accounting for 53.5% of the world’s total. By contrast, the annual yearbook of the Chinese Society of Rare Earths cites data published in Professor Hou Zonglin’s 2001 article, “How Much Do We Really Know About China’s Rare‑Earth Resources,” which puts China’s reserves at 52 million tonnes—roughly 45% of global reserves. In recent years, exploration and research on China’s rare‑earth resources have largely stalled. Consequently, there remains no authoritative or reliably accurate figure for China’s rare‑earth resource endowment.
　　According to 2003 data on global rare-earth reserves published by the U.S. Geological Survey, China’s reserves stood at 27 million tons, accounting for 30.7% of the world total. On July 28, 2010, U.S. energy policy analyst Marc Humphries submitted a report titled “Rare Earth Elements: The Global Supply Chain” to Congress. The report’s findings indicated that in 2009, China’s rare-earth reserves totaled 36 million tons, representing 36% of the global total, while its production reached 120,000 tons, or 97% of worldwide output. By contrast, the United States held 13 million tons of reserves in 2009, or 13% of the global total, yet produced zero; the Commonwealth of Independent States had 19 million tons, or 19% of the world total, with zero production; Australia’s reserves amounted to 5.4 million tons, also with zero production; and India’s reserves stood at 3.1 million tons, or 3% of the global total, with production of 2,700 tons, or 2% of the world’s output.
　　On November 16, 2010, the U.S. Geological Survey published the “Geological Survey Report on Rare Earth Resources in the United States” on its website. The report stated that rare earth resources have been discovered in 14 U.S. states, with total reserves estimated at 13 million tons. At an annual consumption rate of 10,000 tons, these reserves could sustain U.S. demand for 1,300 years.
　　As new rare‑earth deposits continue to be discovered worldwide, the global landscape of rare‑earth resources has shifted, and China’s share of the world’s total rare‑earth reserves has steadily declined—this is an undeniable fact. The challenges facing China’s rare‑earth resources are mounting, and its resource‑based advantages have been significantly eroded. The claim that China’s restrictions on rare‑earth exports have caused supply shortages in some countries is inaccurate; what is scarce, in fact, is not rare earths per se, but rather the low‑cost rare earths produced in China. Moreover, the world’s dependence on Chinese rare earths is far less pronounced than commonly believed. Now is precisely the opportune moment for other countries and regions to resume mining their own resources. Establishing an international competitive framework for the rare‑earth industry would foster the global development of this sector, and the issue of rare‑earth supply must be addressed through collective, worldwide efforts.
　　To safeguard their national defense and economic security, Western countries have consistently pursued a global resource strategy centered on securing the lowest‑cost access to foreign mineral resources. In China, the extraction of rare earth resources has caused significant environmental pollution. To protect the environment and ensure the sustainable development of these resources, the Chinese government has implemented a series of regulatory measures and strengthened oversight over the mining, production, and export of rare earths—steps that are both justified and essential.
　　IV. China has long been the world’s largest consumer of rare earths, with the vast majority of these resources used for civilian purposes.
　　The value of rare earths lies in their applications; rare earth elements exhibit exceptional physical and chemical properties, including outstanding optical, electrical, magnetic, superconducting, and catalytic characteristics. Leveraging these attributes, rare earth metals, rare earth alloys, and a wide array of novel materials—many of which are either derived from or contain rare earth elements—have earned the reputation of being “the MSG of industry” and a “treasure trove of new materials.”
　　Because rare earths comprise a wide array of chemical elements, their applications are extremely diverse—ranging from energy-saving lamps, magnets, and the reflective screens of flat-panel TVs to hybrid vehicles, wind turbines, and military equipment and weaponry. For example, neodymium is extensively processed into magnetic materials used in drive motors, components of nuclear magnetic resonance instruments, and magnets for turbine generators; cerium serves as a high‑quality polishing agent for glass‑shell polishing; europium, as a luminescent material, is primarily employed in display‑screen coatings; and lanthanum is regarded as a key constituent of hydrogen‑storage materials for next‑generation energy systems.
　　In recent years, as China’s industrialization has accelerated and its economic development model has shifted—particularly with the growth of the information technology sector and in areas such as environmental protection, energy conservation, and new energy—significant opportunities have emerged for the development of China’s rare‑earth application industries. In traditional sectors, the use of rare earths has maintained steady growth, while demand in the new materials field has expanded markedly, leading to rapid increases in overall rare‑earth consumption and a noticeable optimization of the consumption structure. Since 2000, China’s rare‑earth consumption has surpassed that of the United States, placing it firmly at the top globally; today, China is the world’s largest consumer of rare earths. Taking 2009 as an example, China’s production of rare‑earth mineral products totaled 127,300 tonnes (expressed in terms of REO), while domestic consumption reached 73,000 tonnes (REO), accounting for 57.3% of total output. Meanwhile, exports of refined and separated rare‑earth products and rare‑earth permanent magnets amounted to 40,780 tonnes (REO), roughly 32% of total production. In other words, approximately one-third of China’s rare‑earth resources are now consumed abroad.
　　In today’s world, only a very small fraction (<5%) of rare earth elements is used in military technology. Moreover, in the defense sector, relying solely on rare earths is insufficient; advanced weapons and equipment must be integrated with other cutting-edge materials, specialized alloys, and high‑tech systems to unleash their full potential. For example, nuclear submarines not only employ rare‑earth magnetostrictive materials but, more crucially, rely on advanced titanium alloys that enable them to reach an operational depth of 850 meters. Additionally, a “synthetic sharkskin” coating applied to their hulls both absorbs internal noise and attenuates external sonar signals, achieving stealth capabilities. Magnetic materials are utilized in sophisticated guided‑weapons systems, yet the vast majority find applications in civilian areas such as automotive motors and MRI scanners. Although neodymium‑doped yttrium aluminum garnet laser crystals—discovered in the 1970s and 1980s—can be employed for tank‑mounted laser rangefinders, holmium lasers have gained widespread use in medical and surgical settings, delivering excellent results. In other countries around the world, rare earth consumption is likewise dominated by civilian applications. In the United States, the largest end‑use sector for rare earths is automotive exhaust‑gas catalytic purification, accounting for 25% of total consumption, while Europe’s rare earth usage closely mirrors this pattern. Consequently, using rare earths as a strategic lever proves ineffective in exerting meaningful geopolitical constraints on foreign nations.
　　The Global Times, published on November 1, 2010, reported that after more than a year of research, the U.S. Pentagon has finally completed an assessment of the U.S. military’s dependence on Chinese rare earths. The report concludes that China’s restrictions on rare earth exports do not pose a threat to U.S. national security, as the U.S. military accounts for less than 5% of total U.S. rare earth consumption. Previously, some U.S. lawmakers had expressed concern that China’s export controls could disrupt the production of military equipment such as missile guidance systems and radar systems. With rare earth producers like Australia’s Lynas Corp set to begin mining operations next year, the U.S. rare earth supply situation is expected to improve by 2013.
　　Moreover, although rare earths are indeed a scarce mineral resource, in theory they are not entirely irreplaceable. Take wind turbine generators as an example: while rare earth elements are of significant value to their production, they are not indispensable. This is because there are six major types of wind turbines, and some of these do not require rare earths in their manufacturing; currently, no single type dominates the market.
　　V. Valuable rare-earth resources should be subject to rational export controls, not an outright ban.
　　China’s rare‑earth exports began in 1973 and remained in a trial‑sales phase until 1978, with only 150 tons shipped over those six years, generating US$634,000 in foreign exchange. At the time, China faced severe foreign‑exchange shortages, and as rare earths were emerging as a new export‑earning industry, the primary goal was to reduce production costs so that Chinese products could compete on the international market against those from the United States and Japan. Initially, overseas buyers were reluctant to use Chinese rare earths; however, as China’s rare‑earth production expanded rapidly—and given the low cost of Chinese rare earths and their lack of environmental‑related expenses—developed countries were increasingly willing to cede market share. By the late 1980s, China had become the world’s largest exporter and supplier of rare earths, a position achieved largely at the expense of its low labor and environmental costs. Today, China is a major holder of foreign‑exchange reserves, but this should not lead to judging past rare‑earth exports through the lens of contemporary standards, nor to labeling such exports as “selling out” or accusing those involved of being traitors.
　　As China’s rare‑earth exports have continued to grow, the state has adopted orderly management measures for their export. Beginning in 1999, the government instituted quota‑based administration of rare‑earth products and included them in the “1999 Catalogue of Goods Subject to Tiered Licensing for Export Permits.” In November 2005, the Ministry of Commerce further established the “Qualification Standards and Application Procedures for Rare‑Earth Export Enterprises,” raising industry entry barriers in terms of production capacity, process technology, safety and environmental protection, and corporate creditworthiness, thereby standardizing the order of rare‑earth export trade. To this day, rare‑earth exports remain subject to a quota‑management system. Moreover, since 1985, when a tax rebate policy was first introduced for rare‑earth exports, the regime has been gradually adjusted to now impose tariffs ranging from 15% to 25%. The state has also made timely adjustments to the export tax rebate rates for rare‑earth products, thereby optimizing the overall export structure at the macro level. These timely refinements to the rare‑earth export tariff policy reflect the state’s efforts to optimize the industrial structure of the rare‑earth sector.
　　It is one of the important measures for promoting the sustained, rapid, and steady development of the rare earth industry in the national economy.
　　As China’s technological capabilities in rare‑earth applications continue to improve, and as overseas companies have increasingly shifted their rare‑earth production to China in recent years, domestic consumption has risen steadily, now accounting for 56% of global demand. To better meet the needs of the domestic market, the Chinese government is gradually reducing rare‑earth export quotas. In 2010, the total export quota was set at 30,258 tonnes, nearly 40% lower than the 50,145 tonnes allocated in 2009. While China’s rare‑earth exports are subject to prudent controls, they remain far from being prohibited.
　　In response to widespread rumors that China is restricting rare-earth exports, Premier Wen Jiabao stated on October 6, 2010, during the China–EU Summit, that while it is necessary for China to ensure the sustainable development of its rare-earth industry through appropriate management and control, China will never impose an export ban or use rare earths as a bargaining chip. This statement addressed the circulating claims of “controlling rare-earth exports” and also outlined China’s rare-earth strategy.
　　Although China is currently a major user of rare earths, it has yet to become a global leader in their application. Japan allocates more than 90% of its rare earth resources to high‑tech industries, whereas in China, rare earths account for only about half of applications in the new materials sector. Along the rare earth value chain, the relative value shares of raw concentrates, separated products, advanced materials, and finished devices are roughly 1:10:100:1,000. The difficulty in fully leveraging China’s rare earth resource advantages stems largely from our lack of proprietary intellectual property for high‑value‑added products, leaving domestic firms stuck at the low end of the industry chain. Moreover, the growing export of low‑end products further exacerbates the depletion of rare earth resources. Therefore, the top priority for the rare earth sector today is to elevate the technological sophistication of rare earth applications, transform the export model, and boost exports of rare earth‑based components and end‑use products—retaining greater added value domestically while encouraging enterprises to adopt advanced foreign technologies and management practices. By guiding companies toward deeper processing of rare earths and increasing the value content of exported goods, we can achieve an optimized and upgraded industrial structure. Only in this way can China’s rare earth industry mature.
　　VI. Conclusion
　　At present, the rare‑earth sector remains under intense scrutiny. Debates abound over whether rare‑earth reserves are still abundant or on the verge of depletion, whether these resources are being “sold off cheaply,” and whether China should impose export restrictions. Is China leveraging its rare‑earth assets to manipulate the international market? Should China establish a national reserve for rare earths? And how well is the industry managing mining operations, pursuing industrial consolidation, and safeguarding the environment and resources? These questions have sparked contentious disputes that implicate diverse interests and value orientations. Regardless of the ongoing debates within the industry—on policy frameworks, current development trends, and other issues—there is broad consensus that protecting rare‑earth resources, accelerating industry consolidation, and strengthening the sector’s voice on the global stage are essential priorities.
　　At present, China holds a world‑leading position in rare‑earth ore beneficiation and mining, particularly in rare‑earth smelting and separation technologies, and possesses independent intellectual property rights. In the realm of functional materials, China is now capable of producing most relevant products, including high‑end ones; moreover, it ranks first globally in the output of several key rare‑earth functional materials. Significant progress has also been made in process equipment, machining tools, and monitoring and analytical capabilities. After years of accumulation, China has achieved notable results in rare‑earth applications; however, it still lags behind developed countries such as Japan and the United States. Amid the complex and rapidly evolving international rare‑earth market, China’s rare‑earth industry must strengthen its capacity for independent innovation, increase investment in research and development of new products, expand domestic application markets, adjust its product mix, enhance product value‑added, and promote industrial upgrading—ensuring that the true value of rare earths is realized at the domestic application level while enabling high‑end products to capture international markets. Only in this way can we transform our resource advantages into economic and technological strengths, raise the scientific and technological standards of rare‑earth applications, fundamentally reshape the export model, address the pressures imposed on China’s rare‑earth sector by the global market, and elevate the strategic standing of the entire industry.