I. Coal-to-Hydrogen Shandong anthracite transaction range [1,680-1,680], with an average hydrogen cost of [1.61 yuan/m³] Shanxi anthracite transaction range [910-910], with an average hydrogen cost of [1.05 yuan/m³] Hebei anthracite transaction range [1,390-1,390], with an average hydrogen cost of [1.39 yuan/m³] Henan anthracite transaction range [980-980], with an average hydrogen cost of [1.06 yuan/m³] II. Natural Gas-to-Hydrogen Pearl River Delta natural gas transaction range [5,520-5,620], with an average hydrogen cost of [2.62 yuan/m³] Zhejiang natural gas transaction range [5,500-5,850], with an average hydrogen cost of [2.63 yuan/m³] Guangxi natural gas transaction range [5,180-5,610], with an average hydrogen cost of [2.5 yuan/m³] Eastern Guangdong natural gas transaction range [5,500-5,590], with an average hydrogen cost of [2.58 yuan/m³] Henan natural gas transaction range [4,720-4,890], with an average hydrogen cost of [2.31 yuan/m³] Hebei natural gas transaction range [4,720-5,080], with an average hydrogen cost of [2.33 yuan/m³] Hubei natural gas transaction range [4,980-5,350], with an average hydrogen cost of [2.44 yuan/m³] Guizhou natural gas transaction range [4,990-5,720], with an average hydrogen cost of [2.51 yuan/m³] Sichuan natural gas transaction range [4,825-5,125], with an average hydrogen cost of [2.38 yuan/m³] Shanxi natural gas transaction range [4,520-4,880], with an average hydrogen cost of [2.22 yuan/m³] Shandong natural gas transaction range [5,040-5,250], with an average hydrogen cost of [2.44 yuan/m³] Heilongjiang natural gas transaction range [4,810-5,060], with an average hydrogen cost of [2.34 yuan/m³] Inner Mongolia natural gas transaction range [4,560-4,800], with an average hydrogen cost of [2.18 yuan/m³] III. Propane-to-Hydrogen South China propylene oxide transaction range [7,280-7,370], with an average hydrogen cost of [4.11 yuan/m³] East China propylene oxide transaction range [7,100-7,310], with an average hydrogen cost of [4.05 yuan/m³] Northeast China propylene oxide transaction range [5,890-6,310], with an average hydrogen cost of [3.5 yuan/m³] Shandong propylene oxide transaction range [6,960-7,300], with an average hydrogen cost of [4.03 yuan/m³] IV. Hydrogen Production from Methanol The methanol transaction range in east China was [2,800-3,290], and the average hydrogen cost was [2.61 yuan/m³]. The methanol transaction range in central China was [2,780-2,990], and the average hydrogen cost was [2.54 yuan/m³]. The methanol transaction range in north China was [2,360-2,830], and the average hydrogen cost was [2.29 yuan/m³]. The methanol transaction range in south China was [3,310-3,390], and the average hydrogen cost was [2.8 yuan/m³]. The methanol transaction range in northwest China was [1,630-2,630], and the average hydrogen cost was [1.97 yuan/m³]. The methanol transaction range in southwest China was [2,770-3,020], and the average hydrogen cost was [2.55 yuan/m³]. The methanol transaction range in northeast China was [2,770-2,790], and the average hydrogen cost was [2.44 yuan/m³].

[SMM Analysis:Rare Earth Ore Imports Surge in Early 2026, Exceeding Demand and Causing Surplus] According to the latest data from the General Administration of Customs, from January to February 2026, China’s imports of mixed rare earth carbonate were about 3,013.7 mt, up 321% YoY. Over the same period, imports of unlisted rare earth oxides were about 12,860.4 mt, also posting a sharp increase of 209% YoY.

This week, the rare earth market outside China showed a divergent pattern of “cerium up, the rest down.” Driven by price increases in China and rising ocean freight rates, cerium oxide FOB and CIF prices rose by $55/mt and $60/mt, respectively, while FOB offers for mainstream magnetic material raw materials such as praseodymium, neodymium, dysprosium, and terbium were generally lowered by $3-19.5/kg due to lower prices in China and tight supply caused by export controls. Although limited trading volumes supported premiums in markets outside China, expectations of an industrial slowdown in Europe triggered by the Middle East situation may suppress subsequent demand. On industry developments, Lynas’ Malaysia plant started samarium oxide production ahead of schedule, consolidating its position as the only commercial heavy rare earth separator outside China and advancing its 2030 strategy. In Australia, Terrain discovered high-grade magnetic rare earth ore intervals during drilling at its Western Australia project, highlighting significant resource potential.

According to customs data, China’s exports of bismuth trioxide in January 2026 were 677.56 mt, versus 570.97 mt in December 2025, showing a clear MoM increase. Market participants said that, judging from the overall changes in exports, China’s bismuth oxide exports had trended upward in almost every month since September 2025, indicating that bismuth oxide enterprises still maintained strong export momentum and that demand outside China was also increasing significantly.

According to customs data, China’s bismuth trioxide exports were 753.74 mt in February 2026, versus 677.56 mt in January 2026, continuing to increase MoM. Looking at the overall change in exports, since September 2025, China’s bismuth oxide exports had risen almost every month, indicating that bismuth oxide enterprises still had strong export willingness and demand outside China was also increasing significantly. Market participants believed that although February was affected by the relatively long Chinese New Year holiday, exports still continued to rise, so there was a strong likelihood that China’s bismuth trioxide exports would continue to increase in March.

[SMM Rare Earth Weekly Review: Rare Earth Prices Pulled Back Significantly, Downstream Inquiries and Procurement Decreased] Affected by fluctuations in futures prices, confidence in the Pr-Nd oxide market dropped sharply. Traders proactively sold off cargoes at low prices, causing transaction prices in the Pr-Nd oxide market to fall rapidly. As of today, Pr-Nd oxide prices had already pulled back to 690,000-700,000 yuan/mt.

SMM News: As of March 20, 2026, the market price for Praseodymium-Neodymium (Pr-Nd) metal in China stabilized temporarily at 890,000–910,000 RMB/ton. This article utilizes the SMM Pr-Nd Terminal Demand Calculation Model to dissect the demand logic for 2026 across three core sectors—New Energy Vehicles (NEVs), Internal Combustion Engine (ICE) vehicles, and Wind Power—explaining the current supply-demand dilemma facing the NdFeB magnet and broader Pr-Nd markets.

On March 10, 2026, Lynas and Japan’s JARE signed a long-term deal featuring PrNd floor prices, profit-sharing, and heavy rare earth priority. Analyzing 2025 production data, this report evaluates the partnership’s commercial terms, operational progress, and downstream demand security.

As a niche yet high-strategic rare metal, hafnium (Hf, atomic number 72) lags behind common metals like copper in public awareness, but its unique physicochemical properties make it irreplaceable for nuclear power, aerospace, semiconductors and other high-end fields. This concise breakdown covers its core traits, supply dynamics and critical applications to highlight its underrecognized role in advanced manufacturing. I. Core Properties A silver-gray, high-melting-point transition metal, hafnium exists solely as a zirconium-associated metal—no independent ore deposits. The near-identical atomic radius and chemical properties of zirconium and hafnium make separation/purification highly challenging, the root of its scarcity.Key strengths for harsh industrial use: 2233℃ melting point, exceptional high-temperature oxidation/structural stability Strong room-temperature plasticity, balanced strength and toughness Superior corrosion resistance (insoluble in dilute acids/alkalis, soluble only in hydrofluoric acid/aqua regia) ~600x higher thermal neutron absorption than zirconium (ideal for nuclear reactor control) High dielectric constant of hafnium oxide (critical for advanced semiconductors) Carbides/nitrides (melting point >2900℃) for ultra-high-temperature ceramics and hard alloys II. Supply & Scarcity Resources: Extremely scarce (crustal abundance ~3 ppm), exclusively tied to zirconium ores. Global resources concentrated in Australia, South Africa, the U.S. and Brazil; China faces low hafnium content in domestic zirconium ores, leading to high external dependence. Supply: Production hinges on zirconium smelting, with zirconium-hafnium separation as a core technical barrier. Only a handful of global players produce high-purity (nuclear/electronic-grade) hafnium at scale, forming an oligopoly. Annual output is ~hundreds of tons, with ultra-low supply elasticity—supply disruptions trigger sharp price swings. Ⅲ. Irreplaceable Core Applications Demand is rigid (no cost-effective substitutes) across high-end sectors: Nuclear Industry: Preferred material for pressurized water reactor control rods, regulating reaction rates and ensuring safety. Driven by global nuclear power revival, demand is steadily growing. Aerospace: Key nickel-based single-crystal superalloy additive, boosting high-temperature creep strength and lifespan for aero-engine turbine blades, combustors and rocket nozzles. Semiconductors: High-purity electronic-grade hafnium oxide overcomes silicon dioxide’s miniaturization limits, reducing leakage current and enabling advanced-node chip production—a key growth driver. Other High-End Fields: Used in cutting tool coatings, special electronic components, corrosion-resistant materials and emerging hydrogen storage research, with expanding use cases. Ⅳ. Conclusion Hafnium is a "scarce niche metal with rigid high-end demand," holding irreplaceable strategic value in China’s key industries (nuclear power, aerospace, semiconductors). The global market remains in long-term tight supply-demand balance, and its strategic and market value will rise alongside global advanced manufacturing upgrades.

Secondary Zinc Oxide Production Fell in February, While Secondary Zinc Oxide Payables Remained Relatively Firm. What Trend Will Secondary Zinc Oxide Show in March?