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In February 2026, the solid-state battery industry accelerated its transition from pilot-scale trials to mass production, with sulphide electrolytes becoming the primary technological focus, and the national standard set to be released in July. Pilot lines such as those of Guoci Materials and Xinjie Energy were commissioned in rapid succession; 500 Wh/kg high-energy-density products were released one after another, and demand for dry-process electrode equipment surged.

In January 2026, the solid-state battery industry chain accelerated comprehensively in terms of materials, battery cells, capacity, and capital. Multiple technical routes, including ultra-high nickel and lithium-rich manganese-based cathodes, silicon carbon anodes, and sulfide/oxide electrolytes, achieved breakthroughs in parallel, with planned capacity already reaching tens of GWh. Automaker-driven prototype verifications are being conducted intensively, and the industry is transitioning from R&D to pilot-scale mass production. The year 2026 is expected to become a critical "verification year" for the scaled installation of semi-solid-state batteries and tackling the engineering challenges of all-solid-state batteries, marking the beginning of industry differentiation and reshuffling.

This week (January 16–22, 2026), the solid-state battery industry witnessed a surge of activity: on one hand, capital fervently chased after capacity blueprints, with tens of billions of yuan invested; on the other hand, technological pathways had yet to converge, and the path to industrialisation remained fraught with uncertainty. Large enterprises, such as Gotion High-tech, made substantial investments to secure their positions.

LiPure Energy is a startup focused on solid-state batteries with polymer and silicon carbon anodes. Its first-generation 0.5Ah–50Ah products have passed extreme safety tests and received authoritative certification. The company is advancing capacity construction, with a 1 GWh ESS battery project in Jiangxi already entering the environmental impact assessment stage. Through bank credit lines, partnerships with equipment suppliers, and pilot projects, the company is accelerating its transition from R&D to market applications, initially targeting e-bike battery swapping and ESS scenarios.

Overseas solid-state batteries show a pattern with sulphides as the mainstream, oxides targeting high-end applications, and polymers exploring alternative paths. Japanese and South Korean enterprises have the most mature technology, with Toyota, Samsung, and SK On planning mass production from 2026-2029, though this will likely be delayed; US companies are capital-driven but lack clear commercialization pathways; Europe focuses on high-end applications. The core bottlenecks lie in interface impedance degradation, low-temperature performance, and mass production costs, with the final battle for technological routes expected after 2030.

This week (January 2–8, 2026), solid-state battery industrialization achieved a critical breakthrough: Hongqi's all-solid-state battery vehicle rolled off the production line, and a Finnish startup launched a mass-producible product, marking a new phase in technology validation. Meanwhile, significant progress was made in key segments of the industry chain: Yixing Tianhua's 5,200 mt high-nickel cathode project commenced, Yahua and Haichen completed pilot tests of lithium sulfide and are expected to submit samples soon, and Zhengwang's first batch of CVD silicon-carbon material was produced. On the materials front, a trend of "rising prices for traditional materials and falling prices for specialized materials" emerged, clarifying the long-term cost reduction pathway. Industrial investment is spreading from coastal regions to central areas, and the mass production race is now in full swing.

On December 31, 2025, HONGQI's all-solid-state battery pack was installed in the Tian Gong 06 model for trial production. HONGQI adopted the sulphide electrolyte route and achieved key breakthroughs in materials, battery cells, and system integration. Globally, enterprises such as CATL, GAC, and Toyota are also accelerating their layouts, with the industrialisation of all-solid-state batteries moving from the laboratory to the engineering window period. However, challenges such as interface stability, mass production costs, and supply chain restructuring still exist. The MIIT special fund is accelerating technological breakthroughs, and the industry is shifting from "laboratory fever" to a rational and systematic race towards industrialisation.

This week (December 26-31, 2025), the solid-state battery sector achieved breakthroughs in capital, capacity, application, and standards. On the industry side, the signing of leading projects, the commissioning of GWh-level production lines, and the delivery of semi-solid-state car models signaled an acceleration in industrialisation. On the technical front, innovations such as sulphide electrolytes, composite functional layers, and sodium-ion batteries continued to emerge. On the policy front, the first national standard for automotive applications was initiated, laying a foundation for standardized industry development, and the industry chain ecosystem became increasingly well-established.