News

Exclusive analysis articles with the latest market updates, and real-time news feeds.

Huawei Pursues Africa Green‑Mining Partnerships and Holds Business Talks with ZESCO at SMM ACM 2026
Huawei Pursues Africa Green‑Mining Partnerships and Holds Business Talks with ZESCO at SMM ACM 2026
The SMM Africa Critical Minerals Conference 2026 (ACM2026) , hosted by Shanghai Metals Market (SMM), wrapped up with great success in Lusaka, Zambia on September 15‑16. Focusing on the development of strategic minerals such as copper, cobalt, lithium, and tin in Africa, local deep-processing transformation, green mine construction and energy infrastructure upgrading, this premium event has brought together 400+ industry representatives from Chinese and African government agencies, top miners, commodity traders, investors, and technical service providers to jointly explore high-quality development paths for Africa's critical minerals industry chain. Huawei presented its mine microgrid solution at this conference. Joseph Yao, President of Mining Micro-Grid Business at Huawei Digital Power , delivered a keynote speech titled "Eco‑Partnerships for Green African Mines: Huawei's Mine Microgrid Practices under the IPP‑PPA Model". Huawei's delegation also held business talks with ZESCO, Zambia's national power utility, covering mine energy supply, new‑energy deployment and collaborative power‑infrastructure build‑out. As the global energy transition continues to advance, the new energy industry is steadily boosting demand for critical minerals such as copper and cobalt. Africa is rich in strategic mineral resources and is accelerating its upgrade from exporting mineral raw materials to a high-value-added industry chain encompassing local smelting and deep processing. Mines, as power-intensive sites, require stable and low-cost green power supply, which has become a core factor constraining the implementation of mining projects and the release of capacity in Africa. Leveraging the IPP-PPA (independent power producer investment + long-term power purchase agreement) cooperation model, distributed new energy microgrids can provide reliable power nearby for open-pit mines and smelter sites, helping mines reduce electricity costs and carbon emissions, and supporting the implementation of Zambia's strategy for local copper ore processing. (Joseph Yao, President of Mining Micro-Grid Business at Huawei Digital Power) Joseph Yao shared an overview of Huawei and its Digital Energy business, introducing Huawei as a leading provider of ICT infrastructure and smart terminals, a technology-driven enterprise with operations across many countries worldwide, focusing on core business segments such as smart PV and grid-forming ESS. He noted that Africa's mining sector is generally plagued by power shortages. High diesel costs erode mine profit margins, unstable power supplies risk production disruptions, while ESG requirements also impose constraints on mineral exports. He proposed a three-step path for the sustainable development of African mining: Firstly, supply green electricity to mines through digital energy infrastructure to reduce carbon emissions; Secondly, electrification transition of mining equipment; Thirdly, reshape production processes through AI platforms and intelligent management systems, optimize equipment scheduling, and improve mine capacity and production efficiency. He also highlighted Huawei's mine microgrid system. Rather than a standalone piece of equipment, it is a complete energy solution integrating photovoltaic‑storage systems, intelligent dispatching, diesel backup power supplies, control systems and management software. It breaks the conventional single‑power‑source model to enable energy self‑sufficiency and efficient energy management at mining sites. Citing the large‑scale microgrid project for Saudi Arabia's Red Sea Global as a case study, he explained that this city‑level microgrid achieved major technical breakthroughs underpinned by Huawei's robust in‑house R&D capabilities and power‑simulation laboratories. Huawei possesses independent R&D capacity for core power‑electronic components such as IGBTs, and delivers one‑stop services covering design, simulation and project delivery. Together with ecosystem partners, it also provides full‑lifecycle engineering consultation and on‑site implementation support. The successful delivery of this project has laid a solid foundation for microgrid deployment in mining scenarios. He specifically addressed the widespread funding pain points confronting African mining projects. Under the IPP‑PPA ecosystem model, domestic and international investors can be brought in to finance mine‑energy projects. Mining companies, as power purchasers, sign long‑term power‑purchase agreements to secure stable mine operations, while investors obtain steady returns, forming a sustainable commercial closed‑loop. In his speech, Joseph cited several African mine microgrid implementation cases. Among them, after the completion of the Kamoa-Kakula mining microgrid project in the DRC, green electricity will replace a large amount of diesel power generation, significantly reducing mine electricity costs and carbon emissions, and delivering a good return on investment. For this Chinese-funded miner's copper mine project in the DRC, microgrid upgrades sharply reduced electricity costs and significantly improved the mine's capacity utilization rate, verifying the practical value of green electricity microgrids in African mine scenarios. He summarized Huawei's three core capabilities: a globalized business platform, end-to-end one-stop microgrid solutions, and a diverse ecosystem partner system that includes investors, EPCs, and design consulting agencies. He added that Huawei is looking forward to establishing partnership with more investors to develop energy projects across Zambia and wider Africa, secure power supplies for critical‑mineral industries including copper and lithium, jointly foster green mines in Africa, and build a low‑carbon and sustainable industrial future. During the conference, the Huawei delegation held a business meeting with representatives from Zambia's national power utility ZESCO. Against the backdrop of accelerating green transformation in African mining and continuously growing power demand in mining areas, the two sides exchanged views on topics of common concern such as power infrastructure construction and new energy support, and expressed their intention to jointly explore potential areas for cooperation. Africa's mineral industry is at a critical window for industry chain upgrading. Huawei, drawing on its technological strengths in new energy and smart power, will partner with IPP investors, local power authorities and mining operators to build an open‑cooperation ecosystem. Leveraging its proven mine microgrid solutions, Huawei aims to deliver green, reliable power supplies for African mining and smelting projects, advance the low‑carbon transition of Africa’s critical minerals industry, and deepen practical China‑Africa cooperation across the mining and energy sectors.
Sep 23, 2026 16:41 (GMT+8)
South Africa Poised to Become Key Player in Global Rare Earth Supply Chain by 2034【SMM Analysis】
South Africa Poised to Become Key Player in Global Rare Earth Supply Chain by 2034【SMM Analysis】
South Africa does not possess the world’s largest rare earth reserves, yet it is arguably the most undervalued African node in the Western supply chain. Its value does not lie in the sheer size of its deposits, but in the synergistic combination of high‑grade monazite, phosphogypsum tailings recycling, magnetic rare earths, and battery‑grade manganese. This unique mix gives South Africa a distinctive positioning in the global rare earth landscape. Policy Shift: From Raw Ore Exports to Value‑Chain Participation In 2025, the South African Cabinet approved the Critical Minerals and Metals Strategy , designating rare earths as a medium‑high critical mineral alongside gold, vanadium, palladium, and rhodium, while platinum, manganese, iron ore, coal, and chromium were classified as high‑criticality minerals. The policy direction is unambiguous: South Africa aims to move beyond simply exporting ores and instead integrate exploration, local processing, R&D, infrastructure, financial support, and regulatory coordination to become an active participant in the critical minerals value chain. Three Core Projects Driving Market Expectations What truly excites the market are three projects: Steenkampskraal, Zandkopsdrift, and Phalaborwa. Steenkampskraal: Pioneer of High‑Grade Monazite Located in the Western Cape, Steenkampskraal is a typical high‑grade monazite deposit with approximately 665,000 tonnes of resources at 14.5% TREO, and associated thorium. Construction of the monazite processing plant began in 2026, with initial concentrate output of around 6,600 t/a, ramping up to 13,400 t/a at full capacity; concentrate TREO content can exceed 50%. The next steps involve producing mixed rare earth carbonate and separated oxides. Its core selling point is “high grade + South African local separation narrative,” but thorium and radioactive waste management will ultimately determine how fast and how far it can go. Zandkopsdrift: A Model of Magnetic Rare Earths and Battery Manganese Synergy Developed by Frontier Rare Earths, Zandkopsdrift is the “magnetic rare earths + battery manganese” project most favored by Western capital. It hosts proved and probable reserves of 789,000 tonnes REO at an average grade of 1.92%, with a mine life exceeding 45 years. Over the first 25 years, it is expected to produce approximately 3,038 t/a of NdPr oxide, plus 114 t/a of Dy and 25 t/a of Tb, alongside 100,000 t/a of battery‑grade manganese sulphate. By‑product manganese revenue can cover about 90% of rare earth production costs. The 2025 Pre‑Feasibility Study delivered an after‑tax NPV10% of ~USD 2 billion and an unleveraged IRR of 28%. Crucially, it has already secured Carester’s solvent extraction technology and a 7‑year offtake for heavy rare earth carbonate from Carester’s Lacq plant in France. Korea’s KOMIR holds an 8.9% stake, South Africa’s Industrial Development Corporation (IDC) has invested USD 20 million in the DFS, and the project has been listed as an extra‑EU strategic project under the EU Critical Raw Materials Act, with first production targeted for 2030. Therefore, it is more of a “South African mining + European refining” template than a project to manufacture magnets locally in South Africa. Phalaborwa: Green Rare Earths from Phosphogypsum Tailings Advanced by London‑listed Rainbow Rare Earths, Phalaborwa takes a completely different approach: instead of opening a new mine, it processes phosphogypsum tailings left by a phosphate plant in Limpopo Province. Resources total approximately 35 million tonnes at 0.44% grade, with annual processing capacity of 2.2 million tonnes of phosphogypsum, yielding around 1,900 t/a of magnetic REO and SEG+ heavy rare earth carbonate containing Sm, Eu, Gd, and Y, including about 213 t/a of yttrium oxide. In 2025, solvent extraction was confirmed as the definitive separation route, involving roughly 75 mixer‑settlers. Construction is planned for 2027, with first production in 2028. It has a lower capital intensity, easier social license, and an ESG narrative around “remediating historical pollution,” making it the South African project closest to generating near‑term cash flow. Supply Outlook: Poised to Become Africa’s Largest by 2034 Aggregating the three projects, Fitch Solutions projects that South Africa could supply approximately 12.4 kt REO/a by 2034, making it the largest producer in Africa and the seventh globally. However, a note of caution is warranted: Africa had no scaled rare earth production between 2021 and 2026, and project “announcement timelines” typically run two to four years ahead of actual cash flow. Electricity, rail, ports, financing, radioactive regulation, and solvent extraction talent could each push schedules back. Industrial Chain Reality: Making Money on Intermediates in the Short Term Therefore, the true positioning of South African rare earths is not to “replace China,” but to serve as a portfolio alternative within the non‑Chinese supply chain: Steenkampskraal supplies high‑grade monazite concentrate and MREC; Zandkopsdrift provides NdPr and Dy/Tb exposure; Phalaborwa offers NdPr plus Y/Sm/Eu/Gd. European, South Korean, and Japanese buyers lock in “non‑Chinese oxides” via offtake agreements, while metals, alloys, and magnets remain predominantly in Europe, the US, Japan, and South Korea. South Africa has yet to build a scaled separation‑to‑metal‑to‑magnet chain domestically; in the short term, it profits from concentrates and intermediate products, with the premium accruing to qualified oxides after separation, not to run‑of‑mine ore. Conclusion South African rare earths are neither the next China nor just another African junior miner. Rather, they represent the African piece of the puzzle that most resembles a “financeable, separable, and ESG‑packagable” asset in the West’s China‑plus‑one strategy. If Zandkopsdrift secures construction financing, Phalaborwa delivers oxides in 2028, and Steenkampskraal resolves its thorium issues, then beyond 2030 the market will say that non‑Chinese rare earths are not just about MP Materials and Lynas — they are also about South Africa.
Sep 29, 2026 18:54 (GMT+8)
[SMM Analysis] India’s BESS Manufacturing Push Accelerates, but Cell Dependence Remains a Key Bottleneck
[SMM Analysis] India’s BESS Manufacturing Push Accelerates, but Cell Dependence Remains a Key Bottleneck
In the first quarter of 2026, global energy storage system shipments reached 100.0 GWh, a 96.5% increase from 50.9 GWh in the same period of 2025, bringing quarterly shipments to an entirely new scale.
Sep 30, 2026 08:50 (GMT+8)
SMM Launches Aluminium CBAM Calculator: What Cost Estimates Mean for EU-Bound Offers【SMM Analysis】
As the EU Carbon Border Adjustment Mechanism (CBAM) enters its definitive phase, aluminium trade with Europe requires carbon costs to be assessed alongside metal prices, processing charges and logistics. SMM has launched its Aluminium CBAM Calculator , bringing together product codes, origin, emissions data and certificate prices to support export quotations, European procurement and internal budgeting. The aluminium module offers 58 CN codes and 68 origin/default-value categories, covering unwrought aluminium, profiles, sheet, strip, foil and other products. Annual parameters are available for 2026–2030. Users enter a tonnage and select default emissions or enter verified actual emissions. The page then displays estimated certificates per tonne, total certificates, cost per tonne and total budget, with primary and secondary aluminium routes matched to the applicable data basis. The practical benefit is that assumptions and results appear together. Exporters can specify the product, origin, import period and emissions basis behind a quotation, while buyers can compare sources under consistent conditions. The page includes Chinese and English interfaces, parameter tables and a printable cost-sheet option. How the associated costs are shared between buyers and sellers remains a contractual matter. Certificate exposure should be distinguished from its monetary value. As of 29 September 2026, the calculator incorporates official prices of €75.36 per certificate for Q1 2026 and €75.28 for Q2. The Q3 price has not yet been published. Where a price is unavailable, the page retains certificate-volume estimates and leaves costs blank, rather than substituting an assumed price. The current version excludes deductions for carbon prices paid abroad and assessment of the annual import threshold. Its actual-emissions calculation for complex aluminium goods also lacks the free-allocation adjustment attributable to precursors. The analysis below therefore uses the checked default-value calculation. Results are commercial estimates, not final statutory surrender obligations. For market comparisons, the same aluminium product can carry materially different estimated costs depending on its origin-specific default value. Consider CN 76012040—unwrought aluminium alloys in billet form—with primary route K, the Q2 2026 certificate price and a quantity of 1,000 tonnes. Estimated costs under the Chinese, Indian and Canadian default-value cases are €143.98, €50.41 and €57.86 per tonne, respectively. These figures include the annual default-value mark-up and the benchmark-based free-allocation adjustment. The Chinese and Indian default-value cases differ by approximately €93.57 per tonne. Comparing only the metal price or processing charge may therefore miss a meaningful difference in the buyer's budget. Where other commercial terms are similar, estimated CBAM costs could affect an offer's attractiveness. However, this is not a ranking of producers' actual carbon intensity. Freight, customs duties, quality and delivery terms are also outside this comparison, so the figures alone cannot determine the preferred supplier. This highlights the commercial value of supplier emissions documentation. For producers whose actual emissions are below the applicable default value, supported by compliant verification, actual data may change a buyer's cost assessment. Buyers can use defaults for an initial budget when documentation is unavailable, then reassess using supplier evidence. Exporters consequently have a reason to prepare emissions information alongside their product offers, rather than negotiate solely around country-default differences. Annual parameter changes also warrant attention. Holding the Chinese product's base default value, route and benchmark constant, and assuming that the import year and applicable reporting year coincide, estimated certificate exposure rises from 1.912575 per tonne in 2026 to 2.248150 in 2027—an increase of approximately 17.5%. This reflects a higher default-value mark-up and a smaller free-allocation deduction; it does not imply a rise in future certificate prices. For supply arrangements spanning different years, companies can first compare certificate exposure, then discuss price-update mechanisms and cost sharing. Even while future certificate prices remain unknown, identifying that exposure and obtaining supplier documentation can improve the comparability of offers and procurement budgets.
Sep 29, 2026 17:32 (GMT+8)
[SMM Analysis] Low-Carbon of Primary Copper Begin Trading Separately—Will Recycled Copper’s Green Value Be Reassessed?
[SMM Analysis: Low-Carbon of Primary Copper Begin Trading Separately—Will Recycled Copper’s Green Value Be Reassessed?] BHP and Amazon’s EAC pilot separates verified emissions reductions from physical copper trade, giving low-emissions primary copper a new source of environmental value. Recycled copper retains a major energy advantage, but future competitiveness may depend more on traceability, recycled content and verified carbon data, potentially adding an environmental dimension to pricing.
Sep 29, 2026 16:03 (GMT+8)

Latest News

Solid-State Battery Next Decade Series, Part 4 of 9: Will It Be Crushed Under the Wheels of PV-Style Industry-Wide Involution? [SMM Analysis]
[SMM Analysis: Solid-State Battery Next Decade Series 9, Part 4: Will It Be Dragged Under the Wheels of PV-Style Industry-Wide Involution?] Solid-state batteries will not face PV-style industry-wide involution in the short term: unconsolidated technology routes, high capital barriers, and yields of only 50%-60% serve as firewalls. From 2027 to 2029, there will be phased risks, including pilot-line surplus and localized price wars on the equipment side; after 2030, if technology routes consolidate, leading capacity is released, and demand growth slows, industry-wide involution could emerge, with intensity likely lower than in PV but with slower market exit. Given the lessons learned from PV, the solid-state battery industry is fully capable of avoiding involution.
Sep 28, 2026 21:30 (GMT+8)
ProLogium and Mercedes-Benz to Jointly Test Gen4 Solid-State Battery Cells
On September 24, ProLogium signed an agreement with Mercedes-Benz to jointly test its latest Gen4 battery cells. Mercedes-Benz secured priority access to the cells and will assess their electrical, thermal and safety performance. The tests will evaluate the technology’s potential suitability for future vehicles. No production model or commercialization schedule has been confirmed. ProLogium is an investee company of EV Advanced Materials.
Sep 28, 2026 12:37 (GMT+8)
Solid-State Battery Weekly :Li2S Production Line Construction Accelerates While Cost Contradiction Remains Unresolved
This week, SMM solid-state battery material prices remained weak. Dowstone’s silicon-carbon anode shipped in batches; Ion Energy’s 51Ah automotive-grade solid-state battery went into production; Dongfeng’s solid-state battery mass production was postponed to Q4. Overseas, Factorial partnered with Mitsui Kinzoku, and WeLion’s 150MWh semi-solid-state energy storage project went overseas. The equipment segment has the highest certainty.
Sep 24, 2026 16:17 (GMT+8)
Polymer Solid-State Battery Layout at “Wuhan Speed”: A Comprehensive Analysis of Ion Energy’s Layout
All-solid-state batteries have entered an intensive GWh pilot production period, with 2027–2030 as the key window for small-batch vehicle installation. Planned capacity is expected to exceed 1,119 GWh by 2035, but the utilization rate from 2026 to 2030 will be only 1%–15%, indicating a severe demand mismatch, with volume ramp-up only gradually beginning after 2032.
Sep 22, 2026 18:52 (GMT+8)
Phosphate Ore Imports and Exports Surge in August: Is the Demand Peak Season Arriving?
Phosphate Ore Imports and Exports Surge in August: Is the Demand Peak Season Arriving?
In August, China’s phosphate ore imports surged month-on-month (MoM), and the price center shifted upward. Total imports for the month were 116,000 mt, up 563.2% MoM, largely recovering from the extremely low base in July caused by the export ban. The average import price rebounded to US$94.6/mt, up 12.0% MoM. Egypt and Jordan together accounted for 98.3%, further intensifying source concentration. Meanwhile, after consecutive zero transactions, exports suddenly rose to 61,000 mt in August.
Sep 21, 2026 14:16 (GMT+8)
[Solid-state: FAW Reports Low-pressure Sulfide Battery Breakthrough; Li2S Pilot Lines Advance]
Sulfide solid-state batteries are gaining pace in China. FAW and the Eastern Institute of Technology reported a low-pressure operation breakthrough published in a top journal, and Hunan Liuli partnered with Tengyuan Cobalt on a lithium sulfide pilot line. Yahua's Li2S pilot line has entered design with a new gas-solid synthesis process, Tianhua's 99.9%-purity product is at pilot stage, and Guanghua Tech already sells Li2S. Battery-grade Li2S still averages about RMB 2 million/t; the industry targets roughly RMB 200,000/t long term to unlock mass commercialization of all-solid-state batteries.
Sep 21, 2026 14:11 (GMT+8)
Solid-State Battery Weekly Recap: Technology Iteration Deepens, Policy Push Intensifies
On the raw material, material, and cell sides, leading companies quietly made continuous breakthroughs in R&D and technology iteration, while startups increased external promotion efforts to build sufficient customer reserves before the commercialization wave of solid-state batteries arrives. The Ministry of Industry and Information Technology (MIIT) and the National Development and Reform Commission (NDRC) issued the 15th Five-Year Plan for the Electronic Information Manufacturing Industry.
Sep 18, 2026 14:28 (GMT+8)
Solid-State Battery Capacity Part 2 :Pilot Lines in Quick Succession; Capacity Planning Mismatches Demand
All-solid-state batteries have entered an intensive GWh pilot production period, with 2027–2030 as the key window for small-batch vehicle installation. Planned capacity is expected to exceed 1,119 GWh by 2035, but the utilization rate from 2026 to 2030 will be only 1%–15%, indicating a severe demand mismatch, with volume ramp-up only gradually beginning after 2032.
Sep 17, 2026 14:52 (GMT+8)
Solid-State Battery Capacity Part 1: Solid–Liquid Batteries A Transition Route with Strong Supply and Demand
Solid–liquid batteries are the vanguard in the industrialization of solid-state batteries. They have entered large-scale mass production, with multiple lines put into operation from 2024 to 2026. By 2035, capacity will approach 2,000 GWh, about 1.8 times that of solid-state batteries, with utilization rates of 50%–77% and strong supply and demand.
Sep 17, 2026 14:37 (GMT+8)
How Are Solid-State Battery Equipment Companies Progressing in the “Last Mile” ?
Sep 16, 2026 16:56 (GMT+8)
[Solid-state battery: Shanghai Jiao Tong University opens tender for intelligent halide solid-state electrolyte preparation and testing system]
[Solid-State Battery: Shanghai Jiao Tong University Issues Public Tender for Intelligent Halide Solid-State Electrolyte Preparation and Testing System] On September 10, 2026, Shanghai Jiao Tong University issued a public tender announcement for an intelligent halide solid-state electrolyte preparation and testing system. The budget is 5 million yuan, and all equipment must be delivered, installed, commissioned, and accepted within 8 months after contract signing. Bids must be submitted before 10:00 AM on October 8, 2026 (Beijing time).
Sep 16, 2026 15:12 (GMT+8)
[Solid-State Battery: Purdue University Research Reveals Formation Mechanism of Interfacial Defects in Solid-State Batteries, Wins Engineering Research Award]
[Solid-State Battery: Purdue University Research Reveals Formation Mechanism of Interfacial Defects in Solid-State Batteries, Wins Engineering Research Award] On September 14, 2026, a research team from Purdue University's College of Engineering used computer modeling to reveal the formation mechanism of interfacial defects in solid-state batteries. The study provides guidance for safer, higher-energy-density lithium and sodium-ion batteries and received an engineering research award.
Sep 16, 2026 14:45 (GMT+8)
[Solid-State: EVE Energy Granted Patent for Halide Solid Electrolyte and All-Solid-State Battery Preparation]
EVE Energy has recently been granted an invention patent titled "A Halide Solid Electrolyte, Its Preparation Method, and a Preparation Method for All-Solid-State Batteries", authorized on September 4, 2026. The patent covers a halide solid electrolyte doped with elements such as Zr, Y, In, Sc, Er or Ga, along with the process for building all-solid-state batteries with it. Halide electrolytes are seen as a key route for all-solid-state batteries thanks to high ionic conductivity and good interface compatibility, and the patent further strengthens EVE's portfolio in solid-state battery technology.
Sep 14, 2026 17:24 (GMT+8)
 Solid-State Battery Weekly | Steady Progress — Cooling Hype, Stronger Efforts
Highlights: This week (Sep 4–10, 2026), in solid-state batteries, nine government departments included automotive solid-state batteries in the “15th Five-Year” special standards system; Xiamen Tungsten and Tinci advanced pilot production of lithium sulfide and electrolytes; Easpring and GEM shipped cathodes at ton-level; silicon-carbon anode projects expanded capacity; CATL said small-batch production is expected by 2027.
Sep 11, 2026 16:00 (GMT+8)
[SMM Announcement] Chinese Market Metal Prices and News Updates Suspended during National Day Holiday (Oct 1-7)
[SMM Announcement] Chinese Market Metal Prices and News Updates Suspended during National Day Holiday (Oct 1-7)
Dear Valued SMM Users, The National Day holiday is approaching. Please note that SMM Chinese market metal price assessments and news updates will be temporarily suspended during the holiday (October 1-7) and resume normal release after the break. However, SMM overseas price assessment will continue to be updated as usual throughout the holiday. We apologise for any inconvenience caused and wish you a pleasant holiday. Shanghai Metals Market (SMM)
Sep 28, 2026 17:06 (GMT+8)
Huawei Pursues Africa Green‑Mining Partnerships and Holds Business Talks with ZESCO at SMM ACM 2026
Huawei Pursues Africa Green‑Mining Partnerships and Holds Business Talks with ZESCO at SMM ACM 2026
Sep 23, 2026 16:41 (GMT+8)
[SMM Analysis] The U.S. Copper Tariff Trade Is Fading — but It Isn’t Over Yet
[SMM Analysis] The U.S. Copper Tariff Trade Is Fading — but It Isn’t Over Yet
Sep 29, 2026 14:37 (GMT+8)
South Africa Poised to Become Key Player in Global Rare Earth Supply Chain by 2034【SMM Analysis】
South Africa Poised to Become Key Player in Global Rare Earth Supply Chain by 2034【SMM Analysis】
Sep 29, 2026 18:54 (GMT+8)
[SMM Analysis] India’s BESS Manufacturing Push Accelerates, but Cell Dependence Remains a Key Bottleneck
[SMM Analysis] India’s BESS Manufacturing Push Accelerates, but Cell Dependence Remains a Key Bottleneck
Sep 30, 2026 08:50 (GMT+8)
SMM Launches Aluminium CBAM Calculator: What Cost Estimates Mean for EU-Bound Offers【SMM Analysis】
SMM Launches Aluminium CBAM Calculator: What Cost Estimates Mean for EU-Bound Offers【SMM Analysis】
Sep 29, 2026 17:32 (GMT+8)
[SMM Analysis] Low-Carbon of Primary Copper Begin Trading Separately—Will Recycled Copper’s Green Value Be Reassessed?
[SMM Analysis] Low-Carbon of Primary Copper Begin Trading Separately—Will Recycled Copper’s Green Value Be Reassessed?
Sep 29, 2026 16:03 (GMT+8)
Latest News
Solid-State Battery Next Decade Series, Part 6 of 9: Ternary Route May Become Great Again [SMM Analysis]
Oct 02, 2026 09:34 (GMT+8)
Solid-state Battery September Analysis and Quarterly Review: Policy and Capital Heat Up, Material Spot Cools Down, Industrialisation Moves from "kg" to "mt" [SMM Analysis]
Sep 30, 2026 14:06 (GMT+8)
Solid‑State Batteries: Q3 Marks Key Transition from Pilot Validation to Pre‑Mass Production
Sep 30, 2026 14:01 (GMT+8)
Solid-State Battery Next Decade Series, Part 4 of 9: Will It Be Crushed Under the Wheels of PV-Style Industry-Wide Involution? [SMM Analysis]
Sep 28, 2026 21:30 (GMT+8)
ProLogium and Mercedes-Benz to Jointly Test Gen4 Solid-State Battery Cells
Sep 28, 2026 12:37 (GMT+8)
Solid-State Battery Weekly :Li2S Production Line Construction Accelerates While Cost Contradiction Remains Unresolved
Sep 24, 2026 16:17 (GMT+8)
Polymer Solid-State Battery Layout at “Wuhan Speed”: A Comprehensive Analysis of Ion Energy’s Layout
Sep 22, 2026 18:52 (GMT+8)
Phosphate Ore Imports and Exports Surge in August: Is the Demand Peak Season Arriving?
Phosphate Ore Imports and Exports Surge in August: Is the Demand Peak Season Arriving?
Sep 21, 2026 14:16 (GMT+8)
[Solid-state: FAW Reports Low-pressure Sulfide Battery Breakthrough; Li2S Pilot Lines Advance]
Sep 21, 2026 14:11 (GMT+8)
Solid-State Battery Weekly Recap: Technology Iteration Deepens, Policy Push Intensifies
Sep 18, 2026 14:28 (GMT+8)
[Solid-State Battery: Highpower Technology Deploys Three Solid-State Routes of Polymer/Oxide/Sulphide, Multiple Solid-State Electrolyte Patents Landed]
Sep 18, 2026 13:45 (GMT+8)
[Solid-state battery: Easpring Technology's sulphide electrolyte enters the small-scale test verification stage with leading clients]
Sep 18, 2026 13:29 (GMT+8)
[Solid-State Battery: Tinci Materials' Hundred-Ton Pilot Production Lines for Lithium Sulfide and Solid-State Electrolyte Completed and Put into Operation]
Sep 18, 2026 13:27 (GMT+8)
Solid-State Battery Capacity Part 2 :Pilot Lines in Quick Succession; Capacity Planning Mismatches Demand
Sep 17, 2026 14:52 (GMT+8)
Solid-State Battery Capacity Part 1: Solid–Liquid Batteries A Transition Route with Strong Supply and Demand
Sep 17, 2026 14:37 (GMT+8)
How Are Solid-State Battery Equipment Companies Progressing in the “Last Mile” ?
Sep 16, 2026 16:56 (GMT+8)
[Solid-state battery: Shanghai Jiao Tong University opens tender for intelligent halide solid-state electrolyte preparation and testing system]
Sep 16, 2026 15:12 (GMT+8)
[Solid-State Battery: Purdue University Research Reveals Formation Mechanism of Interfacial Defects in Solid-State Batteries, Wins Engineering Research Award]
Sep 16, 2026 14:45 (GMT+8)
[Solid-State: EVE Energy Granted Patent for Halide Solid Electrolyte and All-Solid-State Battery Preparation]
Sep 14, 2026 17:24 (GMT+8)
 Solid-State Battery Weekly | Steady Progress — Cooling Hype, Stronger Efforts
Sep 11, 2026 16:00 (GMT+8)