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Forecasting the Global Market for Advanced Battery Materials

The electrification of transport and the rapid build-out of renewable storage are reshaping demand for the chemical inputs that feed lithium-ion cells. Cathode active materials, anode coatings and electrolyte solvents are treated as strategic commodities, with prices moving on quarterly contract reviews. Forecasting the global market for advanced battery materials means tracking mining output, midstream refining and downstream cell-chemistry choices at once.

Australia sits unusually high in this stack. The Greenbushes operation in Western Australia remains the world's largest hard-rock lithium mine, and the Pilbara produces most seaborne lithium concentrate. Yet the country remains overwhelmingly an exporter of raw spodumene rather than higher-value lithium hydroxide or cathode precursor pCAM, which is why boardrooms from Sydney to Perth now talk more about processing than digging.

Procurement teams, policy advisers and investors need a grounded view of where the materials sector is heading. The outlook blends mining geology, cell engineering and trade policy, so single-discipline forecasts tend to miss inflection points. For organisations mapping exposure to cathode and anode chemistry shifts, Grand View Report's materials and chemicals research provides a starting layer of industry sizing.

Demand drivers pulling on the materials pipeline

Electrification targets from 2023 and 2024 are still working through supply chains. The EU's 2035 phase-out of new petrol and diesel vehicles, China's NEV credit scheme and the US Inflation Reduction Act's manufacturing tax credits have lengthened order books for cells and the precursors that feed them. Stationary storage adds a second demand curve tied to renewable buildout and grid firming.

Several forces are converging at once.

Forces shaping near-term materials consumption:

Passenger EV penetration across China, Europe and North America, now extending into entry-level segments.
Utility-scale battery storage co-located with solar and wind farms, particularly in the US, Australia and southern Europe.
Commercial fleet electrification, including delivery vans, mining haul trucks and port equipment.
Higher energy-density requirements for defence and aerospace applications.

How regional demand is rebalancing

Demand is not growing evenly. China still produces most cells, but its share of incremental growth is shrinking as North American and European gigafactories come online. Australia hosts only a handful of cell plants yet dominates battery-grade feedstock for factories in Japan and South Korea.

Trade diversion is reshaping flows. US tax credits favour material from free-trade-agreement partners, which has lifted Australian lithium and nickel into a more privileged position. Korean and Japanese buyers are now signing longer-dated agreements rather than spot contracts.

Chemistry shifts and what they mean for materials

LFP has captured entry-level EVs and storage thanks to cost and safety, while high-nickel NMC remains dominant in premium long-range vehicles. Sodium-ion and solid-state prototypes continue to attract investment, and chemistry choices now dictate which materials win and which become stranded.

For upstream suppliers, the implication is a pivot from cobalt-heavy grades toward nickel-rich and manganese-rich precursors, with LFP variants creating a parallel demand stream that uses no nickel or cobalt at all.

Chemistry	Key materials	Energy density	Typical use	Supply-chain risk profile
NMC (Ni-Mn-Co)	Nickel, lithium, cobalt, manganese	High	Premium EVs, performance segments	Concentrated in Indonesia, DRC, Australia
LFP (Li-Fe-PO4)	Lithium, iron, phosphate	Moderate	Entry EVs, stationary storage	Chinese midstream dominance, lower raw-material risk
Sodium-ion	Sodium, manganese, hard carbon	Lower, improving	Entry storage, micromobility, two-wheelers	Diversified inputs, lower cost volatility
Solid-state (sulphide/oxide)	Lithium, sulphur or oxide ceramics, lithium metal anodes	Very high (early production)	Premium EVs, defence, aerospace	Early stage, dispersed patents

Supply-chain bottlenecks and processing gaps

The most acute bottleneck is no longer mining; it is refining. Australia still ships most lithium as concentrate, with the first commercial hydroxide plant only recently ramping up in Kwinana. East-coast nickel refining is similarly thin, leaving matte exports exposed to midstream margins captured overseas.

ESG and provenance tracking are now commercial requirements. Battery passports planned for the EU and piloted in Australia through CSIRO-led work will demand auditable chain-of-custody data from mine to cell.

Forecast scenarios through 2035

Base-case modelling points to roughly fourfold expansion in cathode-active-material demand by 2035, with lithium demand approaching 3 million tonnes LCE. Accelerated scenarios push the curve higher; slower scenarios flatten it. Crucially, volume differs from revenue because price discipline is returning to lithium after the 2022-2023 spike.

Sentiment on the ASX has already cooled, with smaller explorers trading below their 2020 IPO levels even as utilisation at the largest operations stays near full capacity. That divergence is the signal forecasters are watching most closely.

Policy levers shaping investment decisions

Policy levers shaping investment decisions:

Australia's expanded Critical Minerals Strategy, with new production tax credits for processing.
AUKUS-related cooperation on defence-grade energy storage.
State-level support in Western Australia and Queensland for downstream processing hubs.
Commonwealth underwriting of strategic refining capacity, consistent with the Future Made in Australia framework.
Bilateral arrangements with Korea, Japan and Germany linking Australian feedstock to gigafactory offtake.

Opportunities for Australian suppliers

Three opportunity zones look durable: moving from concentrate to lithium hydroxide and carbonate refining; producing pCAM domestically to shorten logistics chains for Asian gigafactories; and recycling end-of-life cells into black mass and battery-grade materials.

Scanning comparable outlooks from providers such as QY Market Research helps test which opportunity zones are real and which depend on policy that may or may not materialise.

A practical way in is to map current procurement of cathode and anode precursors against domestic processing capacity, then identify which two or three feedstock categories the business could realistically onshore within five years.

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