[CleanTech Is About to Sign a 40-Year Operating Contract With the Chilean Government for the Laguna Verde Lithium Project] CleanTech Lithium, an Anglo-Australian company, is about to sign a 40-year contract with the Chilean government to develop the Laguna Verde lithium project in the Atacama Region, enabling it to advance extraction of this mineral at one of the salt lakes opened to the private sector. After reaching agreement with the Ministry of Mining on the terms of the Special Lithium Operating Contract (CEOL), Chile’s Office of the Comptroller General is now expected to approve the document in Q2 2026. CleanTech, its subsidiary Atacama Salt Lakes, and minority shareholders that are among the consortium members established to advance the Laguna Verde project have begun celebrating this new phase, as it provides greater certainty for their investment. [Rio Tinto Begins Commercial Lithium Exports From the Rincon Project] Rio Tinto’s milestone achievement in commencing commercial lithium exports from the Rincon project marked a pivotal moment for the global lithium market. Miners are currently contending with the complex interplay of resource scarcity, geopolitical tensions, and the accelerating popularization of EVs. The traditional supply-chain dependencies that have defined battery materials sourcing for decades are being reshaped by new producers launching commercial operations in previously underexplored regions. These developments signify not merely a slight increase in capacity, but a fundamental shift in how critical minerals move from extraction sites to manufacturing hubs, with implications far beyond quarterly production data. Rio Tinto’s commercial lithium exports from the Rincon project reflected its prudent positioning in one of the world’s most fiercely contested mining regions for this mineral. Following the suspension of the Jadar project in Serbia in 2025, the company shipped 200 mt of battery-grade lithium carbonate from Buenos Aires to Shanghai in March 2026, marking the official start of operations at its core South American lithium asset. The timing of this market entry reflected broader industry dynamics across the Lithium Triangle. Argentina’s regulatory environment has increasingly favoured large-scale international mining operations. In addition, the Rincon project is located in Salta Province, placing Rio Tinto within a geographic cluster that contains significant global lithium resources across Argentina, Chile, and Bolivia. [The Geothermal Plant Behind Europe’s Lithium Push] The town of Landau in der Pfalz, near the French-German border, has long been at the heart of the local winemaking industry. The region is also home to the Upper Rhine Valley brine fields, which contain Europe’s largest lithium resources and have now made it a hub for Europe’s push to advance EV development. The planned integrated geothermal-lithium extraction plant forms part of renewable energy producer Vulcan Energy’s ambition to build a carbon-neutral EV supply chain in Europe. The project will use geothermal wells to extract lithium-rich brine from depths of up to 5 kilometers. The high-temperature brine will be pumped to the surface, where lithium will be extracted before being transported to a plant. There, the lithium will be converted through electrolysis into lithium hydroxide monohydrate (LHM). The brine will then be reinjected underground, while LHM will be delivered to offtakers, including automaker Stellantis, which owns automotive brands such as Citroen and Peugeot. [Liontown's Interim Loss Widens as It Bets on a Recovery in Lithium Prices] Australia's Liontown said on Thursday that its loss widened in H1 due to a non-cash accounting charge, and added that it is evaluating potential expansion options for its Kathleen Valley mine as lithium prices are expected to rise. The miner of this raw material used in EV batteries has been seeing an initial price recovery after nearly two years of weakness. Previously, EV adoption was slower than generally expected, resulting in oversupply. Liontown said in its December quarter report that prices improved, with the selling price reaching $900/mt, up 28% from the previous quarter. As its flagship project transitioned to underground mining, the company sold 190,000 mt of spodumene, a lithium raw material, in H1. Source: https://www.investing.com

Recently, CIMC Enric and PT SAMATOR Group , Indonesia’s largest industrial gas and energy services provider, officially signed a strategic cooperation framework agreement in Jakarta. Leveraging their respective strengths, the two parties reached a long-term partnership to jointly promote the optimization of the energy structure in Indonesia and Southeast Asia, as well as green and sustainable development. PT SAMATOR Group is a leading industrial gas enterprise in Indonesia, with business spanning multiple sectors including healthcare, oil and gas, and metallurgy, and with a well-established local market network and operating resources. According to the agreement, the two parties will focus on in-depth cooperation in five major areas: the entire industry chain of industrial gases, natural gas storage and transportation equipment, EPC for energy projects, digital after-sales services, and new business development. CIMC Enric will leverage its strengths in the design, manufacturing, and system integration of energy equipment, together with the other party’s local resources, to jointly advance the implementation of clean energy projects such as industrial gases, hydrogen storage and transportation, and new energy, thereby supporting Indonesia’s energy transition and industrial upgrading. Ju Xiaofeng, Vice President of CIMC Enric, and Rachmat Harsono, Chief Executive Officer of PT SAMATOR Group, signed the agreement on behalf of their respective parties. Ju Xiaofeng said that this cooperation was the result of resource synergy and demonstrated the company’s determination to deepen its presence in the Indonesian market; Rachmat Harsono said that the cooperation would help further strengthen the Group’s local business and expand the space for both parties in markets outside China.

The Indian Stainless Steel Development Association (ISSDA) has recently urged the government to permanently remove customs duties on imported scrap and ferroalloys, and to classify chromium as a critical mineral, in order to support the country’s planned expansion of stainless steel capacity from 7 million mt to 11 million mt. At the same time, ISSDA has also called for stronger measures to address the impact of low-priced Chinese products, warning that some Chinese material may be entering India through third countries such as Vietnam, thereby bypassing existing trade protection measures. These statements suggest that the Indian stainless steel industry is no longer simply asking for “growth support.” Instead, it has entered a more complex phase, where it wants to accelerate capacity expansion while also defending itself against external competition. Capacity Expansion Is Clear, and India’s Stainless Steel Industry Has Entered a Critical Phase At first glance, these may look like two conflicting policy demands. On the one hand, the industry wants lower import duties on raw materials to reduce production costs. On the other hand, it is asking the government to tighten import restrictions and strengthen trade protection. But when viewed within the broader industry cycle that India’s stainless steel sector is currently going through, these two demands are not contradictory. They are simply two sides of the same expansion cycle. For domestic stainless steel producers in India, the most important goal over the next few years is to build up local supply capacity while domestic demand is still growing. ISSDA has previously estimated that stainless steel demand in India will continue to grow by 7%–8% annually over the next two to three years. Against this backdrop, the industry wants to keep raw material costs as low as possible during the expansion phase, while also preventing low-priced imported finished products from eroding returns before local capacity expansion is complete. In other words, what worries India’s stainless steel industry most right now is not the absence of market demand, but the possibility that demand exists while the gains from expansion are undermined by imports. That is why ISSDA is simultaneously calling for the permanent removal of duties on scrap and ferroalloy imports, while also highlighting the threat posed by low-priced Chinese products. In the industry’s view, lower tariffs on raw materials would improve the competitiveness of domestic manufacturing, while stronger protection on finished products would buy time for local investment, expansion, and capacity ramp-up. This policy logic of “opening the upstream while defending the downstream” is, in essence, a typical industrial development strategy. Raw Material Security Has Become the Core Condition Behind Expansion This also reflects the industry’s growing concern over raw material supply. Scrap and ferroalloys are key inputs for stainless steel production, while chromium is a critical element in the stainless alloy system. ISSDA’s specific call to classify chromium as a critical mineral shows that its focus is no longer limited to short-term price issues, but has shifted toward medium- to long-term resource security. India has long been the world’s largest importer of stainless steel scrap. Data shows that its stainless scrap imports rose to 1.58 million mt in 2025, up significantly from 2024, further underscoring India’s continued reliance on overseas scrap supply. For a country aiming to expand stainless steel capacity from 7 million mt to 11 million mt, whether the raw material supply system can scale up in parallel will directly determine whether that expansion can actually be delivered. If import costs for scrap and ferroalloys remain high, or if chromium supply security proves insufficient, then even the most ambitious capacity plans could face rising costs, margin pressure, or slower project execution in practice. From the industry’s perspective, therefore, removing duties on imported raw materials and strengthening critical mineral management are not isolated policy demands. They are essential supporting measures for the broader expansion target. India’s stainless steel industry wants to secure the raw material base first before further releasing capacity, reflecting a deeper concern for supply chain completeness and long-term sustainability. Demand Continues to Grow, but Cheap External Supply Creates Real Pressure On the demand side, India is still seen as one of the most important growth markets for stainless steel consumption globally. With the development of manufacturing, continued infrastructure investment, and upgrading in end-use consumption, India’s stainless steel demand is expected to maintain relatively strong growth, providing a solid foundation for capacity expansion. The challenge, however, is that demand growth does not automatically mean domestic producers will benefit. If most of the incremental demand is captured by imported material, India may see consumption expand without domestic industry benefiting to the same extent. In this context, ISSDA’s concerns over Chinese oversupply spilling into India become particularly sensitive. According to media reports, ISSDA believes China has more than 8 million mt of excess stainless steel melting capacity, and that this material is seeking overseas outlets, with India standing out as one of the most attractive target markets. The reason is straightforward. On the one hand, India is itself a growth market. On the other hand, its domestic supply system is still in the process of expanding and has not yet built an unshakable market barrier, making it more exposed to external supply pressure. For Indian mills, this pressure is not only reflected in price competition, but also in investment expectations. When an industry is in the middle of an expansion phase, companies need a relatively predictable margin environment to support new investments, depreciation costs, and capacity ramp-up. If large volumes of low-priced imports continue to flow in during this period, domestic producers may struggle to convert rising demand into actual returns. The Risk of Rerouted Trade Is One of India’s Bigger Concerns Another important point in ISSDA’s latest statement is the issue of rerouted trade. The association warned that some Chinese steel products may be entering India through third countries such as Vietnam, thereby bypassing existing trade protection measures. This concern is easy to understand. In recent years, amid ongoing global trade friction and stricter origin management, practices such as third-country rerouting, supply chain detours, and origin restructuring have come under increasing scrutiny. For India, this means that even if trade protection measures exist on paper, actual import pressure may not disappear in practice. In other words, what truly concerns the industry is not simply whether tariffs or barriers exist, but whether these measures can actually work as intended. If external supply can continue entering India through more complex trade routes, then the competitive pressure facing domestic producers will not ease in any meaningful way, weakening the real impact of policy protection. India’s Core Objective Is to Turn Demand Advantage Into Industrial Advantage At a deeper level, India’s stainless steel industry is moving from a stage of demand-driven growth to one of broader industrial competition. In the past, discussion of India’s stainless steel market often focused on its consumption growth potential, including its large population base, urbanization, and manufacturing upgrade. But as consumption continues to expand, the question is no longer simply whether demand will grow, but who will ultimately capture that growth. If domestic demand keeps rising while most of the incremental market is filled by imports, India may become a major consumption market without necessarily becoming a true manufacturing powerhouse. What ISSDA is now pushing for is, in effect, the key step needed to turn India’s demand advantage into industrial advantage. That is why the industry is asking the government to lower upstream raw material costs while at the same time strengthening trade defense at the finished-product end. The underlying logic is not simply to reject imports, but to create a more supportive environment for domestic manufacturing to grow and attract investment. The Direction of Future Policy Is Worth Watching Viewed within the broader competitive landscape of the Asian stainless steel market, India’s position is actually becoming quite clear. It does not want to remain merely a consumption market. It wants to become a more complete domestic manufacturing center. That means its policy stance is likely to continue along a dual-track approach: more openness toward key raw materials, and greater caution toward finished-product imports. For the market, there are several developments worth watching. First, whether India will further reduce import duties on scrap and ferroalloys on a long-term basis, or even establish a more stable policy framework for raw material support. Second, whether chromium will be formally included in the country’s critical mineral system, thereby strengthening resource security. Third, whether India will step up anti-dumping, anti-circumvention, and origin-related scrutiny, especially against third-country rerouting paths. If these directions gradually materialize, they could reshape competition in India’s stainless steel market, alter its import structure, and even change broader resource flows across Asia. Conclusion Overall, ISSDA’s latest public stance does not simply signal another trade friction issue. It reflects the broader priorities of India’s stainless steel industry as it enters a new stage: securing raw material supply and cost competitiveness for expansion, while also preventing low-priced external supply from undermining domestic industry during a critical window. Whether India’s stainless steel story can evolve from one of consumption growth into one of manufacturing rise may depend not only on the pace of demand growth itself, but also on whether the government can build a policy mix that effectively balances resources, tariffs, and trade protection in a way that genuinely supports domestic industrial upgrading. Written by: Bruce Chew | bruce.chew@metal.com +601167087088

This article explains the 2026 revision of Vietnam's Mineral Law, including adjustments to mineral classification, optimization of mining permit rules, and enhancements to mineral control. These changes may have a significant impact on mining enterprises, particularly those involved in metallic mining activities in Vietnam, possibly affecting areas such as business operations, policy and tax compliance, upstream mining, and open new opportunities in mineral recycling business.

On March 5, the People’s Government of the Inner Mongolia Autonomous Region officially issued the “Outline of the 15th Five-Year Plan for National Economic and Social Development of the Inner Mongolia Autonomous Region,” clearly listing hydrogen energy storage, rare earth new materials, and green hydrogen-ammonia-methanol as strategic priorities, accelerating the development of the entire industry chain for green hydrogen, and building a nationally important high ground for the energy storage industry, thereby charting a clear path for energy transition and industrial upgrading. I. Hydrogen Energy Storage: Building the Entire Industry Chain and Sprinting Toward an Energy Storage Scale of 60 million kW The Outline proposed to expand and strengthen the hydrogen energy storage industry , with the core goals and measures as follows: Full-chain deployment of green hydrogen : Accelerate the development of the entire industry chain for green hydrogen—“ production, storage, transportation, and use ”—and build green hydrogen, green ammonia, and green methanol industry clusters; advance cross-provincial and cross-regional long-distance hydrogen-ammonia-methanol pipeline projects, and moderately make forward-looking arrangements for green hydrogen storage and transportation infrastructure. Leap in energy storage scale : Advance pumped-storage hydropower in stages, implement a special action for the large-scale development of new-type energy storage, and build a diversified energy storage system; by the end of the “15th Five-Year Plan” period, new-type ESS installations are expected to reach 60 million kW , and demand-side response capability is expected to exceed 5 of the region’s maximum load. Coordinated pipeline network upgrade : Optimize the oil and gas pipeline network; by the end of the “15th Five-Year Plan” period, natural gas pipeline mileage is expected to exceed 8,000 km , while the green hydrogen storage and transportation network will be improved in parallel. II. Rare Earth Industry: Extending, Supplementing, and Strengthening the Industry Chain, with a Focus on High-End Materials Such as Hydrogen Storage The Outline made clear to accelerate extending, supplementing, and strengthening the industry chain for the light rare earth industry , with a focus on developing: high-performance magnetic materials, high-performance polishing materials, hydrogen storage materials , catalytic materials and additives, rare earth steel, and other high-end rare earth new materials and end-use applications industries. Leveraging its advantages in rare earth resources, it will provide critical material support for industries such as hydrogen energy and new energy, and build a nationally leading base for rare earth new materials. III. Scientific and Technological Innovation: Focusing on Advantageous Fields Such as Green Hydrogen-Ammonia-Methanol The Outline proposed to implement a number of major science and technology tasks , focusing on fields including: new energy, rare earth new materials, carbon-based new materials, semiconductor new materials, green hydrogen-ammonia-methanol , biopharmaceuticals, biological breeding, and grassland and dairy industries, among others. It will deliver more landmark original achievements, providing technological support for the green hydrogen, green ammonia, and green methanol industries. IV. Significance of the Plan: Anchoring National Strategy and Leading the Energy Transition This plan closely integrates hydrogen energy, energy storage, rare earths, and green hydrogen-ammonia-methanol. It is not only a key measure to implement the country’s “dual carbon” goals, but also a core lever for Inner Mongolia to leverage its two major strengths in wind and solar power resources and rare earth resources and build a nationally important base for energy and strategic resources. As a number of wind and solar power-based hydrogen production projects, such as the Huadian Darhan Muminggan Banner project, advance, Inner Mongolia is accelerating its transformation from a major energy region into a leading green hydrogen region and an energy storage hub .

In the fields of precious and rare metals, compared with well-known categories such as gold, silver, and platinum-group metals, osmium has always remained a niche yet highly distinctive presence. With its unmatched physicochemical properties, it has become an indispensable key material in high-end industry and scientific research. Even though it receives limited market attention, it still possesses irreplaceable value. This article will provide a comprehensive breakdown of osmium metal, covering its basic properties, resource supply, application scenarios, and market characteristics, to offer a full understanding of this “king of density.” I. First Encounter with Osmium: A Hardcore Outlier Among the Platinum-Group Metals Osmium, with the chemical symbol Os and atomic number 76, belongs to the platinum-group metals. It is a Group VIII transition metal on the periodic table and also one of the rarest metals found in nature. As one of the six major members of the platinum-group metal family, osmium has no independent ore deposits and is commonly associated with platinum, iridium, ruthenium, rhodium, and palladium. It can only be recovered through purification during platinum ore smelting and cannot be extracted through standalone large-scale mining. This inherent characteristic directly defines its scarcity. Osmium’s physicochemical properties are truly unique in the world of metals, with highly recognizable core characteristics: first, it has the highest density in the world. Under standard conditions at 20°C, its density reaches 22.59 g/cm³, far exceeding that of gold (19.32 g/cm³) and platinum (21.45 g/cm³). It is currently the densest naturally occurring metal known, and at the same volume, it weighs far more than various conventional precious metals. Second, it demonstrates excellent high-temperature resistance, with a melting point of 3,033°C and a boiling point exceeding 5,000°C. It remains highly stable in high-temperature environments and can adapt to various industrial and scientific applications under extreme heat. Third, it has outstanding hardness and strong corrosion resistance. With a Mohs hardness of 7, it is hard, durable, and wear-resistant, and is difficult to corrode under conventional acidic or alkaline conditions. However, its drawbacks are also quite evident: it is highly brittle and has extremely poor plasticity, making it impossible to process through conventional mechanical methods, so it is mostly used in powder or alloy form. A key safety precaution must be emphasized here: when osmium metal is heated in air to above 100°C, it slowly oxidizes to form osmium tetroxide (OsO₄). This substance is highly irritating, highly volatile, and somewhat toxic. Therefore, the entire process involving osmium, including production smelting, storage and transportation, and deep processing, must be carried out under the protection of inert gas and in strict compliance with operational standards. These exceptionally high compliance and control requirements further raise the barriers to osmium’s production and application. II. Extreme Scarcity: Osmium’s Resource Endowment and Supply Landscape Osmium is far rarer than commonly recognized precious metals such as gold and platinum, and it can be regarded as a “niche treasure” in the precious metals sector. Relevant data show that the average abundance of osmium in the Earth’s crust is only about 0.001 ppm, making it one of the least abundant stable elements in the crust. Globally, identified recoverable reserves are extremely limited, and resource distribution is highly concentrated, without the formation of widely distributed ore deposits. Supply side, the scarcity of osmium is even more pronounced. As there are no standalone mines, global osmium production is entirely dependent on platinum ore mining and smelting, with capacity remaining at an extremely low level year-round. Global annual production is about 1 mt (data from the International Platinum Group Metals Association), while China’s annual production is less than 100 kg, with supply far below that of other platinum group metals. From the global supply landscape, traditional major platinum group metal-producing countries such as South Africa and Russia control the vast majority of the world’s osmium resources and smelting capacity. Industry supply shows a highly monopolized pattern, with extremely low supply elasticity. Minor changes in mining progress, geopolitical conditions, environmental protection-related controls policies, and platinum group metal smelting capacity all directly affect global osmium supply. This dual characteristic of “inherent resource scarcity + constrained supply” has kept the osmium market in a long-term tight supply-demand balance and has also given it strong price resilience and fluctuation elasticity, securing a unique position in the rare metals market. 3. Exclusive to High-End, Cutting-Edge Applications: Core Application Scenarios of Osmium Although osmium has limited production and a relatively narrow range of applications, its exceptional physical and chemical properties have enabled it to take root precisely in high-end niche fields, making it an irreplaceable core material in many advanced applications. Downstream demand is concentrated and highly rigid, with no low-cost substitutes currently available. Its core applications are mainly concentrated in four major fields: 1. Special Hard Alloys: Core Raw Material for High-End Wear-Resistant Components Osmium-based alloys made by melting osmium with metals such as iridium and platinum combine ultra-high hardness, wear resistance, and corrosion resistance, making them key core materials for high-end precision instruments. These alloys are widely used in high-precision bearings for high-end watches and precision instruments, premium fountain pen nibs, professional turntable styluses, medical precision scalpels, and high-end wear-resistant mechanical components. They can significantly improve component service life and durability, making them suitable for long-term, high-load, high-wear operating environments, and they are core wear-resistant materials in the high-end manufacturing sector. 2. Industrial Catalysis: Dedicated High-Efficiency Additive for Fine Chemicals Osmium and its compounds have excellent catalytic activity and serve as dedicated catalysts in certain fine chemical and organic synthesis reactions. Especially in special chemical processes such as hydrogenation and oxidation reactions, they offer high catalytic efficiency and strong reaction selectivity, effectively optimizing process flows and improving product purity and yield. Although the unit consumption of osmium catalysts is extremely low, they are rigid process necessities and are difficult to replace with other common metal catalysts, resulting in relatively strong downstream demand stability. 3. Scientific Research and Detection: Essential Specialty Consumable for Laboratories Although osmium tetroxide is toxic, it has irreplaceable value in scientific research. It is a high-quality staining agent for biological samples and microscopic material sections under electron microscopes, significantly enhancing the clarity and contrast of observed samples, and is an indispensable experimental reagent in frontier research fields such as materials science and life sciences. Meanwhile, high-purity osmium powder was also widely used in high-end scientific research experiments and the R&D of specialized new materials, serving as a niche but essential consumable for major research institutes and high-end laboratories. 4. High-End Specialized Fields: Core Components for Military and Aerospace Applications Leveraging its core advantages of high density, high-temperature resistance, and high stability, osmium was also applied in specialized high-temperature components for aerospace and military applications, precision guidance components, as well as niche scenarios such as high-end electrical contacts and wear-resistant coatings. These applications were all concentrated in cutting-edge, high-precision sectors. Although the volume of each individual application was small, the product value-added was extremely high. Moreover, with the technological iteration and development of high-end manufacturing and the military and aerospace industries, related demand had the potential for steady growth. IV. Summary of the Core Characteristics of the Osmium Metal Market Overall, as a rare category among platinum group metals, osmium had highly distinctive core characteristics: extreme scarcity on the resource side, highly monopolized supply with insufficient elasticity; application-side concentration in high-precision, cutting-edge fields, with rigid and irreplaceable demand; and unique physicochemical properties, combining both advantages and application barriers. Unlike the market-driven fluctuation logic of conventional bulk commodities, the osmium market was significantly affected by factors such as supply-side changes, downstream demand from high-end industries, and compliance costs. The overall market size was small, and trading frequency was relatively low, placing it in the category of niche rare precious metals. Its core value always revolved around the two key points of “scarcity” and “irreplaceability,” making it an indispensable key metal material in high-end industrial and scientific research fields.