Solid-State Batteries (SSBs) Reshaping Materials and Manufacturing
Solid-state batteries (SSBs) are maturing, and end-of-life decisions are coming due. Recycling is only the starting point for a much larger transition. In the supply chain, new chemistries, processing know-how, and new regional manufacturing footprints are needed. The IDTechEx report, Solid‑State Batteries 2026–2036: Technology, Forecasts, Players, guides the SSB efforts beyond circularity.Â
Recycling measures industrial readiness, as SSB compositions include sulfide, oxide, or polymer solid electrolytes along with high-voltage cathodes and silicon-rich or lithium-metal anodes. The SSB separation and recovery workflow depends on the SSB components. To shorten learning curves and reduce the volume of scale costs, SSB packs and cells need to be designed with identification, recycled using safe neutralization, and routed chemistry aware. This goes beyond simple recycling practices and, as outlined in Solid‑State Batteries 2026–2036: Technology, Forecasts, Players, improves a broader materials and manufacturing economics revolution as standardization and throughput rise.
Consequential changes come from SSBs enabled at the cell level. SSB materials that lift energy density and tighten safety shift upstream manufacturing demand. Reducing geopolitical exposure and capturing value near-end markets are the aims of SSB programs that add more local content rules and regional manufacturing initiatives. As detailed in Solid‑State Batteries 2026–2036: Technology, Forecasts, Players, SSB new cell adoptions are reasons to re-plan material resources, factory designs, and strategic partnerships.
SSB recycling viability is immature and not uniformly profitable. Economics proves case by case. SSB manufacturers, tier-one suppliers, and OEMs benefit from early recycling SSB initiatives. Solid‑State Batteries 2026–2036: Technology, Forecasts, Players emphasizes designing recycling in the broader context to include labeling and traceability alignment, safe pre-treatment and logistics, and stress-test business regional policy scenarios. The goal is to ensure SSB recycling supports volume growth, regulatory compliance, and upstream value.
The IDTechEx report, Solid‑State Batteries 2026–2036: Technology, Forecasts, Players, emphasizes sulfide, oxide, and polymer benchmarks, system-level integration issues, manufacturing bottleneck and cost-down levering mapping, and players and strategies reshaping the battery supply chain. Recycling is presented as part of the wider SSB ecosystem. Solid‑State Batteries 2026–2036: Technology, Forecasts, Players focuses on technology maturity, industrialization timelines, and realistic adoption scenarios for EVs and high-end SSBs. The report offers the next decade of critical milestones to support SSB technical and commercial scaffolding, navigating industry manufacturing needs, and facilitating supply chains.
For more information on this report, visit: www.IDTechEx.com/SSB.