Indonesia Battery Recycling Market Size, Share & Forecast, By Battery Type, Recycling Technology & End User, 2026–2032

The Indonesia Battery Recycling Market was worth USD 178 million in 2025. Lead-acid battery recycling remained the largest component because Indonesia's extensive motorcycle, passenger-car and commercial-vehicle fleet produces recurring replacement-battery feedstock. Lithium-ion batteries represented a smaller but higher-value portion of the market as electric mobility and electronics collection expanded. Formal processors monetized the market through secondary lead, recovered plastics, hazardous-waste processing fees and emerging lithium-ion material recovery. The 2025 value reflects formal commercial recycling activity within Indonesia rather than virgin battery manufacturing or unrelated waste-management revenue.

The market is projected to reach USD 399 million by 2032, representing a 12.22% CAGR from the 2025 base. Expansion is expected to accelerate after 2027 as lithium-ion battery volumes, EV manufacturing scrap, formal take-back programs and new dedicated processing capacity enter the system. Market value growth is modeled to outpace tonnage because lithium-ion feedstock carries a higher recovered-material value per ton than traditional lead-acid batteries. The forecast assumes continued lead-acid replacement demand alongside progressively larger nickel, lithium, cobalt, copper and black-mass recovery pools.

The principal profit-pool shift is from conventional secondary-lead production toward lithium-ion material recovery, contracted OEM take-back and closed-loop battery-material supply. Lead-acid batteries remain commercially important because collection infrastructure and downstream buyers already exist, but their economics are more commodity-like. Lithium-ion recycling creates multiple value streams from black mass and recovered nickel, lithium, cobalt and copper. The planned integrated project targeting more than 95% metal recovery materially raises the technical and economic benchmark for recyclers that want to participate in the future battery supply chain.

The most important near-term risk is the mismatch between announced lithium-ion recycling capacity and the still-small pool of end-of-life EV batteries. A government-linked KSP model projects only 13 end-of-life EV batteries in 2026 and 119 in 2027 before volumes increase more substantially later in the decade. That creates utilization risk for capital-intensive facilities commissioned too early. Informal feedstock leakage and the absence of a dedicated end-of-life battery SNI also add collection, safety and compliance uncertainty, particularly for high-voltage lithium-ion packs.

Indonesia ranks first in the selected peer set on the modeled 2025 battery-recycling market value, ahead of Thailand, Viet Nam, Malaysia and the Philippines. Its advantage comes from a large replacement-battery base, substantial domestic vehicle production and direct integration with nickel and battery-material manufacturing. Viet Nam and Thailand currently show higher electric-car sales shares, creating strong future lithium-ion feedstock potential, while Indonesia differentiates itself through upstream mineral integration and a planned 20,000-ton annual recycling project. This combination supports both current lead-acid scale and future closed-loop battery economics.

Demand will be driven by three overlapping feedstock pools: recurring lead-acid replacements from the road-vehicle fleet, rapidly expanding EV sales and growing electronics and stationary-storage battery use. Indonesia's large motorcycle population sustains baseline collection volumes, while electric-car sales reached 15% of new-car sales in 2025. Battery manufacturing also creates production scrap before end-of-life EV volumes mature. As formal take-back and EPR systems improve, a larger portion of these streams should shift from informal handling toward licensed recyclers, raising both captured tonnage and recovered-material value.