Firebird Metals Builds First LMFP Battery in China Development Push

Firebird Metals

Australian Firm Partners with Chinese University to Test Lithium Manganese Iron Phosphate Technology

Firebird Metals, an Australian battery materials company, has successfully built a lithium manganese iron phosphate (LMFP) battery in China, marking a significant step in its ongoing development program.

The company is conducting these tests in partnership with Central South University in Hunan province, making it one of the first Australian firms to assemble an LMFP battery abroad.

Firebird has begun testing 100 batches of battery metal formulations, with the goal of converting them into fully functional LMFP batteries. As of March 4, the firm has tested five batches, and several of them have already yielded working battery cells, according to its investor update.

Potential for LMFP Capacity Expansion at China Hub

Depending on the results of its full test campaign, Firebird may expand its Chinese battery hub to reach 1 tonne/day of LMFP capacity. The company aims to leverage China’s supply chain efficiency and academic R&D to accelerate commercial battery-grade material production.

Firebird is not alone in the LMFP race. Livium, a battery recycler, produced LMFP battery cells in 2020 at a Brisbane pilot plant. In China, Ningbo Rombay, a leading domestic manufacturer, operates at a scale of 10,000 tonnes per year, positioning itself as a dominant LMFP supplier.

Meanwhile, manganese sulphate prices, a key input for LMFP, have shown notable volatility. According to SUPERMETALPRICE, battery-grade manganese sulphate (≥32% Mn) ex-works pricing climbed from $660/t in February 2024 to $861/t in June, before retreating to $820/t by late February 2025. Prices remain well below the March 2022 peak of $1,671/t, reflecting ongoing market correction and oversupply dynamics.

Firebird’s pilot results could play a critical role in defining Australia’s foothold in low-cost, thermally stable LMFP battery chemistry, widely viewed as a viable alternative to LFP and NCM chemistries in energy storage and e-mobility applications.

Element 25 Butcherbird Manganese Expansion Gains Funding for Battery Supply Chain

Element 25

Element 25 Butcherbird manganese expansion has moved forward after the Australian metals producer raised $18mn in equity to support the next phase of mine growth. The funding will help expand manganese concentrate output from the Butcherbird mine in Western Australia.

The project is expected to triple Butcherbird’s manganese concentrate production to 1.1mn t/yr from 365,000 t/yr. Full mechanical completion and commissioning are expected in the first quarter of 2027.

Element 25 Butcherbird manganese expansion is strategically important because the mine will supply feedstock for the company’s planned battery-grade manganese sulphate refinery in Louisiana. That project links Australian ore supply with US battery materials processing.

The expansion also strengthens Element 25’s role in the electric vehicle supply chain. The company already has offtake agreements with General Motors and Stellantis, giving the project direct exposure to automaker demand for non-China battery materials.

Butcherbird Expansion Builds Manganese Feedstock Scale

Western Australia’s state government approved the Butcherbird expansion in March 2025. The mine is expected to operate for at least 18 years, giving Element 25 a long-term feedstock platform.

The planned increase to 1.1mn t/yr of manganese concentrate would materially change the scale of the operation. Higher concentrate output should support downstream conversion into battery-grade manganese sulphate while also leaving room for sales into traditional steel markets.

Manganese remains a key steelmaking input because it improves strength and toughness. Element 25 plans to sell excess concentrate to steelmakers, creating a secondary demand channel outside batteries.

However, the main strategic value is in batteries. Manganese is increasingly important for lithium-ion battery chemistries as automakers seek lower-cost, more secure and less cobalt-dependent cathode materials.

Louisiana Refinery Links Australia to US Battery Materials Policy

Element 25’s manganese concentrate will mainly feed its battery-grade high-purity manganese sulphate monohydrate facility in Louisiana. The refinery is planned for 135,000 t/yr of production capacity.

The US government backed the Louisiana refinery with a $166mn grant in January last year. This support reflects Washington’s effort to build domestic processing capacity for battery materials and reduce reliance on China-controlled supply chains.

The Australian government also opened a A$50mn loan package in June to support the Butcherbird expansion. Together, the US and Australian support show how allied governments are trying to connect mining, refining and EV manufacturing supply chains.

Element 25 Butcherbird manganese expansion therefore fits a broader industrial strategy. Australia provides the resource base, while the US builds refining capacity closer to automakers and battery manufacturers.

The project’s success will depend on execution at both ends of the chain. Butcherbird must deliver concentrate at scale, while Louisiana must convert that material into battery-grade sulphate that meets customer specifications.

The Metalnomist Commentary

Element 25’s project shows how manganese is moving from a steelmaking material into a strategic battery supply input. The key challenge will be proving that mine expansion and US chemical refining can scale together on the timeline automakers require.

Livium LGES battery recycling deal extends Australia’s circular battery value chain

Livium

The Livium LGES battery recycling deal is expanding Australia’s role in the circular battery economy and black mass supply. Under the renewed Livium LGES battery recycling deal, Livium will process both recalled and end-of-life residential batteries. As a result, the Livium LGES battery recycling deal now runs to 2029 and anchors new growth in Australian black mass output.

Black mass volumes rise as Livium expands feedstock

Livium will continue processing LG Energy Solution batteries recalled in Australia and now add end-of-life units from local users. This expanded access to feedstock should increase black mass volumes and stabilise plant utilisation over the medium term.

The recycler sold over 350t of black mass in the 2024-25 financial year to 30 June. Therefore, management expects higher sales in 2025-26 as the Livium LGES battery recycling deal ramps up. Livium channels this black mass to processing partners such as South Korea’s SungEel Hitech. These partners convert black mass into battery chemicals, which return to global cathode and cell producers.

Meanwhile, LGES is building a 20,000 t/yr battery recycling plant in France with Derichebourg. That European joint venture will also produce and process black mass from end-of-life batteries from 2027. Together, these initiatives show how LGES is building regional recycling hubs to secure critical materials.

Livium LGES battery recycling deal supports lithium recovery innovation

The Livium LGES battery recycling deal also complements Livium’s work on recovering lithium from spodumene waste. Livium signed an agreement with Australian producer Mineral Resources in January to optimise this extraction technology. As a result, the partners formed a joint venture in August to commercialise the process at scale.

This positions Livium not only as a black mass producer but also as a technology player in lithium recovery. For LGES, the partnership reduces long-term exposure to mined feedstock volatility and environmental scrutiny. It also aligns with automakers’ and battery producers’ ESG targets on recycling and resource efficiency.

In strategic terms, expanding the Livium LGES battery recycling deal strengthens regional supply security for nickel, cobalt and lithium units locked in black mass. It also supports Australia’s ambition to move up the value chain from raw material supplier to processing and technology hub.

The Metalnomist Commentary

This partnership illustrates how structured offtake agreements can accelerate the build-out of regional battery recycling ecosystems. For metals markets, increasing black mass flows from deals like this will gradually reshape demand for primary material and reward recyclers with robust technology and downstream access.

Lopal Marble Bar Lithium Project Deal Extends Chinese Battery Material Supply Strategy

Lopal

Lopal Marble Bar lithium project acquisition will give China’s battery cathode material producer Lopal Tech another upstream position in Western Australia’s lithium sector. The company has agreed to acquire the Marble Bar project from Global Lithium Resources for A$14.85mn.

The Lopal Marble Bar lithium project is located in the Pilbara region of Western Australia. The project has an estimated resource of 18mn t grading 1.0% lithium oxide.

The Lopal Marble Bar lithium project deal reflects a continuing push by Chinese battery material producers to secure upstream lithium resources. Cathode and battery material companies are looking beyond processing capacity and moving closer to mine supply.

This matters because lithium raw material security remains central to battery supply chains. Even as lithium prices fluctuate, companies with long-term access to spodumene resources can better protect conversion plants, cathode output and customer supply.

Marble Bar Adds Pilbara Resource Exposure

The Marble Bar project gives Lopal direct exposure to a known lithium-bearing region. Western Australia remains one of the world’s most important hard-rock lithium supply bases, with spodumene projects feeding converters and battery material producers across Asia.

The project’s 18mn t resource at 1.0% lithium oxide gives Lopal a potential raw material position, although the acquisition price suggests the asset is still at an early development stage.

For Global Lithium Resources, the sale allows the company to focus more heavily on its larger Manna lithium project. Manna has a resource estimate of 52mn t grading 1.0% lithium oxide.

This creates a clearer portfolio structure. Lopal gains Marble Bar, while GL1 retains its larger Manna asset and existing downstream-linked partnerships.

The transaction also shows that Chinese battery material producers remain willing to invest in Australian lithium assets despite market volatility. Long-term supply security continues to matter more than short-term price weakness.

Manna Links Lopal to Future Offtake Supply

Lopal already has exposure to GL1 through the Manna project. It holds a 5% equity interest in Manna and has signed an offtake agreement to buy 40% of the project’s output.

China’s Canmax has agreed to take another 30% of Manna’s output and also holds a 9.45% stake in GL1. Australian lithium miner Mineral Resources owns 9.85% of GL1.

These relationships show how lithium supply chains are being structured around equity stakes and offtake agreements. Battery material companies want secured feedstock before projects enter production.

For Lopal, the Marble Bar acquisition adds another layer to its Australian lithium strategy. It gives the company project ownership while maintaining future offtake exposure through Manna.

The broader industrial meaning is clear. Chinese battery material producers are not relying only on spot markets. They are building upstream positions, offtake rights and strategic relationships to support long-term lithium chemical and cathode material supply.

The Metalnomist Commentary

Lopal’s Marble Bar deal shows that lithium strategy is shifting from price speculation to resource control. Even in a weaker lithium market, Chinese battery material companies continue to secure upstream positions that can support future conversion and cathode supply.

Alpha HPA Supply Deal Targets South Korean Battery Materials Market

Alpha HPA

Alpha HPA supply deal plans have advanced after the Australian producer signed a non-binding agreement to supply 5,000 t/yr of high-purity aluminium products to a South Korean lithium-ion battery manufacturer.

Alpha HPA supply deal development follows qualification work with a tier-one battery anode producer evaluating ultra-high-purity aluminium nitrate for next-generation synthetic graphite anodes. The agreement strengthens Alpha's exposure to the battery materials market alongside semiconductor demand.

Alpha HPA supply deal volumes also push the company's total committed volumes under binding agreements and letters of intent to 12,350 t/yr, up from 6,900 t/yr in March.

Crossing 10,000 t/yr of committed volumes is particularly important because it satisfies a condition linked to Australian government-backed financing for the company's planned large-scale Gladstone facility.

Battery and Semiconductor Demand Support Gladstone Expansion

Alpha plans to develop a second-stage plant in Gladstone, Queensland, with 10,930 t/yr of production capacity.

The company expects the facility to begin production in the second half of 2027, although a detailed construction timetable has not yet been disclosed.

Government financing could help accelerate the project. Alpha has access to up to A$400mn in loans through Australian infrastructure and critical minerals financing programmes.

The company now plans to target debt drawdown during the second half of 2026 after surpassing the required 10,000 t/yr threshold for customer commitments.

Alpha already operates a smaller commercial plant in Gladstone producing high-purity alumina, alumina trihydrate and aluminium nitrate.

The new facility will be necessary to support larger customer volumes because existing production capacity is far below the level required under recently signed agreements.

The South Korean battery agreement also demonstrates that high-purity aluminium compounds are moving beyond traditional ceramic and industrial applications into advanced battery materials.

Ultra-high-purity aluminium nitrate can support specialised treatments and coatings used in next-generation synthetic graphite anodes, increasing the importance of purity and contamination control.

AI and Battery Markets Create Dual Growth Path for HPA

Alpha expects demand for its products to rise from around 20,000 t/yr this year to nearly 60,000 t/yr by 2030.

Battery materials represent one growth route, but semiconductor manufacturing is becoming equally important.

South Korean and Japanese manufacturers of semiconductors and high-bandwidth memory chips are increasing demand for high-purity materials as artificial intelligence data centres expand.

Alpha converted a previous 1,000 t/yr HPA letter of intent into a binding supply agreement with a South Korean HBM manufacturer earlier this year.

This gives the company exposure to two rapidly growing technology markets: lithium-ion batteries and AI semiconductor infrastructure.

Australia designated high-purity alumina as a critical mineral in 2022 and has since provided Alpha with grants and direct investment alongside loan support.

The industrial objective is clear. Australia is attempting to move from mineral extraction toward higher-value specialty materials that can enter Asian battery and semiconductor supply chains.

The Metalnomist Commentary

Alpha's strongest advantage is its exposure to both batteries and AI semiconductors rather than one single demand cycle. If Gladstone reaches commercial scale, HPA could become another example of Australia moving successfully from raw materials into advanced specialty processing.

Bald Hill Lithium Mine Restart Signals Stronger Spodumene Recovery

Bald Hill Lithium

Bald Hill lithium mine operations are restarting after Mineral Resources responded to a sustained recovery in lithium prices. The Western Australian mine had been on care and maintenance since November 2024.

Bald Hill lithium mine ramp-up will begin in late May, with crushing and mining operations scheduled to start in June. First spodumene concentrate production is expected in July.

Bald Hill lithium mine shipments are planned from the Port of Esperance in the third quarter of 2026. Full capacity is expected in the fourth quarter.

The restart shows that stronger spodumene prices are beginning to bring suspended Australian lithium capacity back into the market. It also confirms that producers are becoming more confident after the severe lithium downturn that forced project closures and delays.

Spodumene Prices Bring Idled Capacity Back

Bald Hill has production capacity of about 165,000 dry metric tonnes per year of 5.1% spodumene concentrate. On a normalized 6% spodumene concentrate basis, capacity is around 140,000 dmt/yr.

The restart is modest compared with Australia’s largest lithium operations, but it matters for market sentiment. Idled mines returning to production show that the price recovery is no longer only a paper-market signal.

Mineral Resources also operates the Wodgina and Marion lithium mines. The company has lifted production guidance for both assets for the fiscal year ending June 2026.

Wodgina guidance increased to 280,000 dmt of SC6, while Marion guidance rose to 220,000 dmt of SC6. Together with Bald Hill, these assets strengthen MinRes’ position as a major Australian spodumene producer.

The restart also adds more supply to the seaborne lithium concentrate market. That could help converters secure feedstock, but it also raises the risk that returning capacity eventually caps price upside if demand growth slows.

Posco Stake Reinforces Battery Supply Chain Link

South Korean steelmaker Posco acquired a 30% stake in MinRes in November 2025 for $765mn. That investment gives the restart a stronger downstream battery supply-chain connection.

Posco has been expanding across battery materials, and access to Australian spodumene can support long-term lithium chemical production. For MinRes, the relationship provides strategic capital and potential customer alignment.

Western Australia remains one of the world’s most important lithium supply regions. Its hard-rock mines feed converters in China, South Korea and other battery manufacturing hubs.

The Bald Hill restart therefore fits a wider supply-chain pattern. Lithium producers are trying to rebuild volumes as prices recover, while downstream players seek more secure feedstock before battery demand accelerates again.

The key question is whether the recovery remains strong enough to absorb returning supply. If prices hold, more idled lithium capacity could follow Bald Hill back into production.

The Metalnomist Commentary

Bald Hill’s restart shows that lithium’s recovery is becoming operational, not just financial. The market now needs to watch whether returning Australian supply supports battery security or creates the next round of oversupply pressure.

Stellantis Alliance Nickel offtake agreement unravels as nickel prices slump

Stellantis

Stellantis Alliance Nickel offtake agreement is ending, underscoring how weak nickel markets are reshaping EV battery contracts. The Stellantis Alliance Nickel offtake agreement covered nickel and cobalt sulphate from Australia’s NiWest project but failed on key milestones. As a result, the Stellantis Alliance Nickel offtake agreement now joins a growing list of battery metal deals under pressure from low prices and tight funding.

NiWest delays expose battery metals project risk

Alliance Nickel and Stellantis agreed in 2023 to supply 170,000t of nickel sulphate and 12,000t of cobalt sulphate. The volumes represented around 40pc of NiWest’s forecast production, anchoring the project’s commercial foundation. However, low nickel prices and tighter financing conditions have slowed NiWest’s development and triggered missed contractual milestones.

Market conditions have turned sharply since the deal was signed. Oversupply from Indonesia and softer demand from EV and steel sectors have hit prices. The LME three-month nickel price has dropped nearly 40pc since May 2023, falling to $15,117.50/t by 7 November. In this context, long-term offtake commitments are harder to sustain for both miners and OEMs.

The termination becomes effective on 3 December, formally ending the 2023 agreement. For Alliance, the loss of a top-tier automotive anchor customer complicates project financing. For Stellantis, it removes a fixed nickel sulphate commitment tied to a project still at the development stage.

EV supply chains tighten standards on battery materials

Stellantis is also recalibrating its broader battery materials portfolio. Earlier this week, it cancelled a supply agreement with Australian battery materials supplier Novonix over product specification issues. This second cancellation highlights how automakers now demand tighter performance, quality and timing certainty from upstream partners.

Battery metal developers face a tougher landscape as OEMs pursue flexibility and risk diversification. Projects like NiWest must now compete not only on resource quality and ESG credentials, but also on cost resilience under low-price scenarios. Stronger balance sheets, staged developments and diversified customer bases will be critical to securing future offtake.

At the same time, OEMs remain under pressure to secure long-term critical mineral supply for electrification targets. Strategic partnerships will likely shift toward more advanced projects, integrated value chains, and suppliers with proven technical and financial execution.

The Metalnomist Commentary

The collapse of the Stellantis Alliance Nickel offtake agreement illustrates how quickly the battery metals balance of power can shift. When nickel prices slide and capital tightens, marginal projects and early-stage offtakes become vulnerable, even with blue-chip OEM partners. For miners, bankable projects now require true cost competitiveness and technical robustness, not just strong EV narratives.

Vulcan Lithium Hydroxide Project Advances as German Construction Begins

Vulcan Lithium

Vulcan lithium hydroxide project development has moved into major construction in Germany, marking a key step for Europe’s domestic battery materials supply chain. Australian-listed Vulcan Energy has started building its 24,000 t/yr Lionheart lithium hydroxide project in the German state of Hesse.

The Vulcan lithium hydroxide project is scheduled to produce first output in 2028. The construction start follows Vulcan’s receipt of a six-year commercial production licence for the facility in March.

The Vulcan lithium hydroxide project is strategically important because Europe remains heavily dependent on imported lithium chemicals for battery manufacturing. Local lithium hydroxide production could support electric vehicle, battery cell and cathode supply chains across the region.

Vulcan plans to produce battery-quality lithium from low-impurity geothermal subsurface brines. The company will use direct lithium extraction technology, linking lithium production with geothermal resource development in the Upper Rhine Valley.

Geothermal Brines Support Europe’s Local Lithium Strategy

The Lionheart project is part of Europe’s broader effort to build domestic critical minerals capacity. Lithium hydroxide is a key input for high-nickel cathode chemistries used in electric vehicle batteries.

Vulcan’s route is different from conventional hard-rock lithium mining or evaporation pond production. The company plans to extract lithium from geothermal brines, then process it into battery-quality lithium hydroxide.

This matters because direct lithium extraction can reduce land use and accelerate processing compared with traditional evaporation routes. However, DLE projects still face technical and commercial execution risk because each brine system has different chemistry and operating requirements.

Construction of the surface extraction plant at Landau in the Upper Rhine Valley began in February. This upstream extraction work is critical because the lithium hydroxide plant depends on reliable brine supply and stable lithium recovery.

The project’s low-impurity geothermal brine base could give Vulcan a useful advantage if it can scale the process reliably. Battery customers require consistent quality, traceability and long-term supply security.

Public Funding Highlights Strategic Battery Materials Push

The Lionheart project received around €104mn in funding from Germany’s federal government and the states of Rhineland-Palatinate and Hesse last year. This public support shows how lithium processing has become an industrial policy priority in Europe.

Germany has a major automotive industry and is expanding battery manufacturing capacity. Domestic lithium hydroxide production could reduce exposure to overseas conversion hubs and strengthen regional supply resilience.

The project also fits Europe’s push to localise more of the battery value chain. Mining or extraction alone is not enough. Europe needs lithium chemicals, cathode materials, battery cells, recycling and downstream qualification with automakers.

Vulcan’s 24,000 t/yr planned capacity would not satisfy Europe’s full lithium demand. However, it could become a meaningful regional source if production starts as planned in 2028.

The next challenge is execution. Vulcan must complete construction, prove DLE performance, operate the geothermal brine system and qualify lithium hydroxide with battery customers.

The Metalnomist Commentary

Vulcan’s construction start shows that Europe’s battery supply-chain strategy is moving from policy ambition to industrial buildout. The project’s success will depend on whether geothermal brine extraction and lithium hydroxide conversion can scale reliably enough to meet automotive-grade standards.

Japan-Australia Graphite Anode Supply Chain Targets Battery Security

Graphite

The Japan-Australia graphite anode supply chain is becoming a serious strategic project for battery materials security. Idemitsu, Marubeni, NSC, and Graphinex have agreed to develop a cross-border supply chain for natural graphite anode material. The plan links graphite mining in Queensland with refining and processing in Japan. As a result, the Japan-Australia graphite anode supply chain could reduce reliance on more concentrated supply routes.

This matters because graphite remains one of the most important battery raw materials. Demand continues to rise with electric vehicles and renewable energy storage. Japan has relied heavily on imports for graphite procurement. Therefore, the Japan-Australia graphite anode supply chain directly addresses a critical supply risk.

The industrial structure of the deal is also clear. Idemitsu and Graphinex will handle graphite extraction in Australia. Marubeni and NSC will focus on refining and processing in Japan. Consequently, the project is designed as a full upstream-to-midstream partnership rather than a simple trading agreement.

Natural Graphite Anode Material Is Becoming a Strategic Priority

Natural graphite anode material is now central to battery manufacturing competitiveness. Without secure graphite supply, downstream battery production becomes more vulnerable to trade shocks and export restrictions. That makes source diversification more important than ever. As a result, Japan is moving to secure a more stable anode material base.

China’s role helps explain the urgency. Japan wants alternative import sources as it reduces dependence on the world’s largest graphite producer and exporter. Export controls have made that concentration risk harder to ignore. Therefore, the new partnership reflects both industrial logic and geopolitical caution.

Idemitsu’s earlier investment in Graphinex also shows this strategy did not begin overnight. The companies have already been building ties around Australian graphite mining. This new agreement pushes that relationship into a more integrated supply chain phase. Meanwhile, it strengthens confidence that the project has real strategic intent.

Graphite Anode Plant in Japan Could Deepen Domestic Battery Capacity

The graphite anode plant in Japan is the most important downstream element of the plan. The companies are exploring a Japanese production site and aim to start operations in 2028. That would give Japan more domestic control over an essential battery input. Consequently, the graphite anode plant in Japan could become a meaningful industrial anchor.

The partnership also aligns with the wider Japan-Australia critical minerals agenda. Both countries have been working to deepen cooperation on energy security and supply chains. This project fits that framework well because graphite sits at the core of battery manufacturing. Therefore, the deal supports both national policy and commercial demand.

The broader market significance is clear. Battery supply chains are no longer judged only by cell production capacity. They are increasingly judged by who controls upstream and midstream materials. As a result, the Japan-Australia graphite anode supply chain could become a notable model for allied critical mineral cooperation.

The Metalnomist Commentary

This partnership matters because it targets one of the most overlooked battery bottlenecks: graphite anodes. Japan is not only seeking more raw material. It is trying to secure processing and manufacturing depth as well. If execution stays on track, this project could become an important example of how allied supply chains move beyond dependence and into real industrial coordination.

Australia Backs Lithium-Ion Battery Surge in Western Australia

Canberra, Li battery 

Canberra’s CIS Program Expands Storage by 2.6GWh, Supporting Grid Reliability and Renewable Integration

Federal Government Underwrites Four Major Battery Projects in WA

Australia’s federal government has committed to underwriting four lithium-ion battery projects in Western Australia, adding 2.6GWh of storage capacity by late 2027. The investment comes through the Capacity Investment Scheme (CIS), a national program designed to stabilize revenue for renewable and storage developers over a 15-year period.

Although the government has not disclosed exact revenue floor levels for these projects, the financial backing provides long-term security, encouraging private investment in energy infrastructure.

PGS Energy and Neoen Lead Battery Expansion in WA

The largest of the new CIS-backed batteries is a 1.2GWh system in Marradong, developed by PGS Energy. Co-located with a solar farm, it will connect to the South West Interconnected System (SWIS) — the grid serving WA’s most populated regions.

Neoen, a French renewable energy company, will construct a 615MWh battery outside Perth. The company has already established a strong presence in Australia, operating the Collie Battery Energy Storage System since October 2024. That system alone manages 877MWh and is also connected to SWIS.

Two smaller battery systems, totaling 780MWh, will be built in WA’s rural areas. All four projects represent a regional leap forward in clean energy storage capabilities.

National Battery Strategy Accelerates Toward September Megaround

This announcement follows Canberra’s December 2024 decision to underwrite eight other batteries totaling 3.6GWh in three Australian states, excluding WA. The government plans another major round of funding in September 2025, targeting a cumulative 16GWh. So far, over 100 projects with 135GWh in capacity have applied.

Through the CIS, Australia is accelerating its transition toward a renewable-powered grid. Lithium-ion battery storage plays a pivotal role in managing variable solar and wind inputs while enhancing grid resilience.

China's Lithium Tech Export Curbs Threaten EU Battery Industry

China's Lithium Battery

Key Technology Export Controls Put European Battery Industry on Edge

China's proposed restrictions on exporting key lithium processing technologies are sending shockwaves through the European Union's (EU) burgeoning battery industry. The proposed curbs target crucial equipment used in lithium extraction and battery material production, including lithium-iron-phosphate (LFP) battery production equipment, cathode preparation technology, and direct-lithium-extraction (DLE) technology, particularly from spodumene and brines. A consultation period is open until February 1st, after which a final decision will be made.

Europe's Reliance on Chinese Technology Raises Concerns About Supply Chain Security

Industry experts warn the impact could be significant, especially for junior European lithium producers heavily reliant on Chinese technology. Companies like Northvolt, which recently announced job cuts and scaled back ambitions, highlight the vulnerability of the EU's current strategy. The restrictions could hinder the development of a robust, independent European battery supply chain.

Companies with In-House Technology See Opportunity Amidst Crisis

However, some companies are better positioned to weather the storm. Vulcan Energy Resources, an Australian company with operations in Europe, claims to have developed in-house absorption-type DLE technology, securing its supply chain and potentially offering solutions to other European players. Vulcan Energy Resources' executive chair, Francis Wedin, emphasized the strategic advantage of their technology, particularly given Goldman Sachs's preference for brine-based lithium extraction due to lower production costs.

European Lithium Market Faces Uncertainty and Calls for Action

Other voices in the European lithium market paint a more concerning picture. Viridian Lithium's chief commercial officer, Luc Pez, warned of potentially "extremely disruptive" consequences for the nascent ex-China battery supply chain. Pez criticized the lack of preparedness in Europe and the US, urging for accelerated reshoring of the battery supply chain and addressing regulatory inconsistencies within the EU. He highlighted the urgent need for Europe to establish concrete plans and achieve its targets in the face of increasing competition from China in the electric vehicle market.

The Future of European Electric Vehicle Market Hangs in the Balance

China's proposed export restrictions underscore the geopolitical complexities of the lithium market and the challenges facing Europe's ambitions in the electric vehicle sector. The move could significantly impact the development of the European electric vehicle market, as the EU aims to reduce its reliance on China for battery supply.

Mt Marion Lithium Expansion Advances as MinRes and Ganfeng Lift Spodumene Supply

Mineral Resources

Mt Marion lithium expansion is moving ahead after Mineral Resources and Jiangxi Ganfeng Lithium reached a final investment decision on a A$490mn upgrade at the Western Australian mine. The project will raise 6% spodumene concentrate output from 500,000 t/yr to 600,000 t/yr.

Mt Marion lithium expansion reflects renewed confidence in spodumene markets after a period of stronger pricing, Chinese demand and supply disruption from Zimbabwean export controls. The decision also reinforces Australia’s role as a core lithium feedstock supplier to global battery material chains.

Mt Marion lithium expansion includes A$220mn for underground mine development, A$240mn for a flotation plant and A$30mn for non-processing infrastructure. Construction is scheduled to begin in July-September.

The partners expect to commission the mine within 12 months of construction starting, with production ramp-up over the following six months. That timeline makes Mt Marion an important near-term growth project in the Australian hard-rock lithium sector.

Underground Mining Extends Mine Life and Feed Flexibility

The underground mine will supplement ore from the existing open pit and contribute up to 40% of processing feed. This will extend Mt Marion’s remaining mine life by six years beyond the previous estimate of 10 years.

That is strategically important because mine life extension improves supply visibility for customers and investors. Battery chemical producers need stable spodumene feedstock to support long-term lithium hydroxide and lithium carbonate production.

The underground development also gives MinRes and Ganfeng more operational flexibility. Combining open-pit and underground ore can support feed blending, grade control and continuity as the mine matures.

The project will cause minimal disruption to existing operations, according to the company. That matters because the mine is already a major producing asset and any downtime could affect near-term shipments.

Mt Marion is also backed by a strong downstream partner. Ganfeng is one of China’s leading lithium companies, giving the project a direct link to one of the world’s largest battery materials markets.

Flotation Plant Targets Higher-Grade Product Mix

The new flotation plant will remove SC3.5 product from MinRes’ mix and deliver a minimum SC5 grade product. This is a key upgrade because higher-grade concentrate can improve processing efficiency for downstream converters.

SC6 remains the benchmark product for hard-rock lithium supply. Increasing SC6 output to 600,000 t/yr gives Mt Marion stronger exposure to higher-value concentrate markets.

The investment economics are highly sensitive to price. At an assumed SC6 price of $2,700/t, MinRes expects the expansion payback period to be less than one year.

Spodumene prices have risen in recent months, supported by Zimbabwe’s lithium concentrate export controls and strong Chinese demand. The latest Australian SC6 assessment was $2,661/t on 19 May, down from $2,811/t a week earlier but still elevated enough to support renewed investment.

MinRes also cited higher lithium prices as a reason for restarting operations at its Bald Hill mine in Western Australia. Together, these moves suggest producers are again positioning for stronger lithium feedstock demand.

The broader lithium market remains volatile, but the Mt Marion decision shows that high-quality Australian assets can still attract capital when pricing, partners and mine-life extension align.

The Metalnomist Commentary

Mt Marion’s expansion shows that lithium investment is returning first to established, scalable assets with strong downstream links. The key lesson is that the next lithium cycle will reward producers that can improve grade, extend mine life and secure reliable routes into China’s battery supply chain.

Lithium Energy Secures Approval for Solaroz Lithium Brine Project

Solaroz

Green Light for Development of Argentina’s Solaroz Lithium Concessions with CNGR's Partnership

Lithium Energy, an Australian battery minerals company, has successfully secured regulatory approval for its Solaroz lithium brine project in Argentina. This marks a crucial step forward in the company’s strategic plans, including advancing its sales agreement with China's leading battery materials producer, CNGR.

A Major Milestone for the Solaroz Project

The approval, granted through the Environmental Impact Assessment (EIA), allows Lithium Energy and CNGR to jointly explore and develop all of the Solaroz lithium brine concessions. CNGR will be responsible for funding local operations as well as future development phases. This collaboration sets the stage for the project’s growth, as it moves closer to fulfilling its potential to supply lithium for the growing electric vehicle (EV) and battery industries.

In April 2024, CNGR agreed to purchase 90% of the Solaroz project for $63 million, highlighting the importance of the deal for both parties. Lithium Energy shares the lithium rights in the Olaroz Salar basin with Arcadium Lithium, with the project subject to an acquisition by Rio Tinto and Lithium Argentina.

Advancing Lithium Production with Direct Lithium Extraction Technology

To maximize the value of the Solaroz project, Lithium Energy is also exploring innovative Direct Lithium Extraction (DLE) technology. The company has partnered with China’s Xi’an Lanshen, a specialty resin producer, to develop this technology. Lanshen will also build a battery-grade lithium plant onsite with a capacity of 3,000 metric tonnes per year of lithium carbonate. This move aligns with global trends to streamline lithium production and ensure the sustainability of the critical material needed for the EV sector.

With the approval in place and a solid partnership with CNGR, Lithium Energy is poised to contribute to the global lithium supply chain and meet the rising demand for battery materials.

Intensifying Battery Competition in Asia Amid Evolving Market Dynamics

EV Battery

The Race for Dominance in the Lithium Iron Phosphate Battery Market

The competition among major battery producers, particularly between China and South Korea, is set to intensify in 2025. South Korean giants like LG Energy Solution (LGES), Samsung SDI, and SK On are aggressively pursuing mass production of lithium iron phosphate (LFP) batteries, a domain where Chinese manufacturers have traditionally excelled. These South Korean firms are targeting a mass production rollout by the latter half of 2025, aimed primarily at the electric vehicle (EV) market.

Strategic Market Expansion

South Korean battery manufacturers are not just competing on the product level; they are also strategically targeting markets in the US and Europe, regions where their Chinese competitors have been less successful. This move is particularly strategic given the recent failure of Northvolt in Europe, which previously held a significant share of the European battery production capacity. The potential rollback of the US Inflation Reduction Act (IRA) tax credits, however, poses a financial threat to these South Korean firms, particularly with the upcoming changes anticipated under the administration of US president-elect Donald Trump.

Challenges and Opportunities in Other Regions

Australia, on the other hand, is focusing on niche areas such as "stationary storage" battery production, despite facing significant challenges in its mining sectors, especially with nickel and lithium. The downturn in these industries has led to major setbacks, such as the closure of the Bald Hill site by Mineral Resources, prompting government intervention.

In Southeast Asia, countries like Indonesia and the Philippines are making notable advances. Indonesia, in collaboration with LGES and Hyundai Motor, has already commenced operations at a new battery production facility, while the Philippines has launched its first LFP battery plant, which began operations in October with the support of Australian investment firm StB Capital Partners.

Finniss Lithium Operation Restart Signals Australian Spodumene Supply Return

Core Lithium

Finniss Lithium Operation is returning to production after Core Lithium restarted mining at the Grants open pit in Australia’s Northern Territory. The move marks the reopening of an asset that had been in care and maintenance since 2024 because of weak lithium prices.

Finniss Lithium Operation will process its first ore in the September quarter, with the first spodumene concentrate shipment expected in the December quarter. Additional shipments are planned for 2027.

Finniss Lithium Operation restart reflects the sharp recovery in spodumene prices after supply constraints emerged in late 2025. Core Lithium approved the restart in March as stronger pricing improved the economics of bringing idled capacity back online.

The Grants pit will provide access to around 800,000t of ore and deliver about 100,000t of spodumene concentrate on a 5% lithium oxide basis. Mining has started in line with Core Lithium’s final investment decision schedule and cost expectations.

Grants Pit Brings Near-Term Spodumene Back to Market

The Grants open pit gives Core Lithium a near-term route back into the seaborne spodumene market. First ore processing in the September quarter and first shipment in the December quarter create a clear restart timeline.

This matters because Australian lithium producers are beginning to respond to stronger market conditions. Several operations that were halted during the downturn are now restarting as prices recover.

Spodumene prices have rebounded sharply from the lows reached in December 2025. The recovery has made previously idled hard-rock assets more attractive, especially those with existing infrastructure and established development plans.

For buyers, the return of Finniss adds incremental Australian supply at a time when lithium converters are reassessing feedstock security. But the restart also adds new supply into a market still vulnerable to oversupply if too many projects return at once.

Core Lithium’s timing is therefore important. The company is moving before the next wave of supply fully arrives, but it must still prove stable mining, processing and shipment performance after a long shutdown.

BP33 Sets Up Longer-Term Finniss Expansion

Core Lithium is also advancing infrastructure work at the BP33 underground mine. The company awarded a A$274mn underground mining services contract to Develop Global for a three-to-five-year period.

BP33 is expected to be developed by mid-2027. It should help lift ore production at Finniss to 1.2mn t/yr by mid-2028.

Core Lithium’s final investment decision summary outlines a longer-term plan to produce spodumene concentrate over a 20-year mine life. Expected unit costs are around A$762/t, giving the operation leverage to higher spodumene pricing if execution stays on track.

The restart and BP33 development show how lithium producers are rebuilding confidence after the 2024-25 market downturn. The key difference now is that investors and customers will focus more closely on cost discipline, grade, logistics and customer commitments.

For the broader battery supply chain, Finniss adds another signal that Australian spodumene remains central to global lithium raw material supply. The market recovery is bringing supply back, but long-term balance will depend on whether battery demand can absorb returning and new production.

The Metalnomist Commentary

Core Lithium’s restart shows that the lithium cycle has turned enough to bring idled Australian mines back into action. The risk is that recovering prices invite too much supply too quickly, making cost discipline and offtake quality more important than restart headlines.

Idemitsu to Build Lithium Sulphide Plant in Chiba to Support Toyota’s All-Solid-State Battery Rollout

Idemitsu, Lithium Sulphide Plant

$142 Million Facility to Produce Key ASSB Material for 3GWh Annually, Backed by Japanese Government Subsidies

Idemitsu Advances Battery Strategy with New Lithium Sulphide Facility

Japanese energy firm Idemitsu Kosan has announced plans to construct a large-scale lithium sulphide production plant in Chiba, with completion targeted for June 2027. The project is part of Idemitsu’s broader strategy to establish an integrated supply chain for all-solid-state battery (ASSB) production—a technology expected to define the next generation of electric vehicle (EV) batteries.

The plant will produce lithium sulphide at volumes equivalent to powering 3GWh of ASSB output annually, reinforcing Japan’s position in the global battery supply chain. The ¥21.3 billion ($142 million) investment will be partially supported by ¥7.1 billion in government subsidies, according to Idemitsu.

ASSB Seen as Next-Generation EV Battery Solution

ASSBs offer significant advantages over traditional lithium-ion (Li-ion) batteries, including faster charging, higher energy density, better thermal stability, and reduced use of critical metals like nickel and cobalt. These benefits make them highly attractive for next-generation EV platforms.

In October 2023, Idemitsu and Toyota announced a partnership to commercialize ASSB for EVs by 2027–2028. Under this plan, Idemitsu will supply solid electrolytes, derived from its lithium sulphide, while Toyota integrates them into EV battery systems. Toyota’s goal is to produce vehicles capable of driving up to 1,200 km on a single charge—more than twice the range of its current EVs.

Integrated Upstream-Downstream Supply Secures Japan’s Battery Future

Idemitsu will manufacture lithium sulphide by processing lithium hydroxide sourced from its Australian mining assets with sulphur by-products from its oil refining operations. This vertically integrated model reflects Japan’s push to reduce battery supply chain dependencies on China while leveraging domestic expertise in refining and manufacturing.

As Japan’s second-largest oil refiner, Idemitsu is uniquely positioned to transform its fossil fuel legacy into a clean tech future. The company also plans to produce several thousand tonnes of solid electrolyte materials to support full-scale ASSB deployment across Toyota’s production lines.

International Graphite Wogen Offtake Builds Asia-Pacific Supply Route

Graphite

International Graphite Wogen offtake plans could create a new Australia-to-Asia graphite supply route as International Graphite prepares to commission its Collie processing facility in Western Australia. The non-binding agreement combines concentrate supply with downstream sales of micronised spherical graphite.

International Graphite Wogen offtake terms allow Wogen to supply up to 10,000 t/yr of graphite flake concentrate to Collie. In return, International Graphite would supply at least 3,000 t/yr of micronised spherical graphite to Wogen’s Pacific arm for exclusive marketing across Asia-Pacific.

International Graphite Wogen offtake is strategically relevant because Japan and South Korea are major battery and advanced materials markets seeking more diversified graphite sources outside China. Commercial terms will be negotiated on a spot basis, while Wogen may provide credit lines to support transactions.

The companies aim to convert the arrangement into a binding agreement before the 4,000 t/yr Collie facility begins commercial production in mid-2027.

Collie Creates Midstream Graphite Capacity Outside China

The Collie plant gives International Graphite a route into higher-value graphite processing rather than relying only on upstream mining. The facility will produce micronised spherical graphite from imported flake concentrate during its initial operating phase.

This matters because graphite value chains depend heavily on processing. Natural graphite must undergo sizing, shaping, purification and coating before it can qualify as active anode material for lithium-ion batteries.

The material produced at Collie will still require additional processing before use in battery anodes. That means the project sits in the midstream rather than representing a fully integrated battery-anode supply chain.

However, the Wogen agreement creates a commercial bridge into Japan and South Korea. Both markets have established battery, automotive and electronics industries that require secure sources of processed graphite.

Wogen’s ability to supply up to 10,000 t/yr of concentrate also gives International Graphite feedstock flexibility while its own mining plans remain on hold.

The Collie commissioning schedule has moved to mid-2027 from an earlier January 2027 target. Production is expected to ramp over the following 18 months.

Springdale Delay Highlights Processing-First Strategy

International Graphite ultimately plans to source flake graphite from its Springdale project in Western Australia. But the company has paused exploration and drilling while concentrating capital and management resources on Collie and its Italian midstream joint venture with Alkeemia.

This sequencing reflects a pragmatic strategy. Building processing capability first can establish customers, product qualification and market access before the company commits larger capital to mine development.

Springdale received A$4.7mn in Australian federal government support in 2023. The resource could eventually provide domestic feedstock to Collie and create a more vertically integrated Australian graphite chain.

For now, the project will rely on external concentrate. That reduces near-term upstream development risk but increases dependence on third-party feedstock availability and pricing.

The Wogen arrangement helps manage that exposure while providing an outlet for processed material. If converted into a binding contract, it would cover a substantial share of Collie’s planned production capacity.

The broader opportunity is ex-China graphite diversification. China remains dominant in spherical graphite and battery-anode processing, making new midstream capacity in Australia strategically important even before full anode qualification is achieved.

The Metalnomist Commentary

International Graphite is prioritising the hardest commercial step first: building processing capacity and customer routes before expanding its mine. If Collie secures reliable feedstock and qualifies into Asian markets, Springdale can later become the upstream anchor of a more integrated ex-China graphite chain.

Hancock Lithium Mine Plan Advances as Spodumene Prices Recover

Hancock Lithium Mine

Hancock lithium mine plans in Western Australia are moving forward as stronger lithium concentrate prices revive confidence in large-scale spodumene development. Hancock Prospecting plans to build the A$1bn Andover mine, targeting production of up to 1.1mn t/yr of lithium concentrate.

Hancock lithium mine construction is scheduled to start in November 2028, with a two-year construction period. The project is planned for a 30-year operating life and would process 6mn t/yr of ore.

Hancock lithium mine development reflects a shift in lithium sentiment after the deep price collapse that forced project delays and suspensions across the sector. Spodumene prices have rebounded as Chinese battery demand improves and supply expectations tighten.

The Andover project is strategically important because Australia remains one of the world’s key hard-rock lithium supply bases. New capacity from Western Australia could support converters, battery producers and electric vehicle supply chains seeking long-term spodumene feedstock.

Andover Adds Scale to Western Australia’s Spodumene Pipeline

The Andover mine would become a major new lithium concentrate source if developed as planned. Annual output of up to 1.1mn t would give the project meaningful weight in the seaborne spodumene market.

The project sits within a broader ownership structure shaped by recent consolidation. Hancock Prospecting and Chilean lithium producer SQM partnered to acquire Azure Minerals in a A$1.7bn deal completed in May 2024 through their jointly owned company, SH Mining.

Andover is 60% owned by Azure, while Croydon Gold, a subsidiary of the Creasy Group, holds the remaining 40%. The involvement of Hancock and SQM gives the project both Australian mining strength and global lithium-market experience.

SQM’s role is especially relevant. The Chilean producer brings downstream lithium market knowledge, while Hancock adds financial capacity and Australian project execution capability.

The planned 30-year mine life also matters. Battery supply chains need long-duration feedstock sources, not only short-cycle spot supply. A project of this scale could support long-term offtake and conversion strategies.

Price Recovery Revives Lithium Project Economics

The Andover plan comes after a sharp recovery in spodumene concentrate prices. Prices rose in April as tighter supply expectations followed Zimbabwe’s introduction of export quotas for lithium concentrate.

Spodumene prices had previously collapsed to $900-1,100/t cif China in January 2024, down 83% after supply growth outpaced demand. That downturn forced many lithium developers to slow, delay or reassess projects.

Prices later began recovering in late 2025 as demand from China’s lithium-ion battery sector improved market sentiment. Stronger pricing has now made large hard-rock projects more attractive again.

However, lithium remains a volatile market. New supply from Australia, Africa, South America and China can quickly change balances if demand growth slows or inventories rebuild.

For Hancock, timing will be critical. Construction is not expected to start until late 2028, meaning the project will enter the market after the current price recovery has already been tested by several more years of battery demand and supply growth.

The strategic value remains clear. If lithium demand continues to rise from electric vehicles and energy storage, Andover could become an important feedstock source for global converters. If supply again expands too quickly, project economics may face renewed pressure.

The Metalnomist Commentary

Hancock’s Andover plan shows that lithium investment confidence is returning, but only for projects with scale, strong sponsors and long-term strategic value. The market has recovered from its deepest downturn, but future winners will still need cost discipline and secure downstream demand.

Australia Invests $63 Million in Neoen’s Renewable Energy Projects

Neoen

The Australian government has committed A$100 million ($63.2 million) in funding to French renewable energy producer, Neoen, to support the development of three large-scale renewable energy and battery storage projects in Australia. This investment reflects Australia's ongoing push to expand its renewable energy infrastructure and reduce reliance on fossil fuels.

Focus on Battery Storage and Solar Power

The three projects in question include:

1. A 341MW Battery Energy Storage System (BESS) in Western Australia.
2. A 270MW BESS in Queensland.
3. A 440MW peak solar farm in New South Wales.

These projects, which are still under development, aim to enhance Australia's energy security by integrating large-scale storage solutions with renewable energy generation. The Western Australia BESS is particularly significant as it will be an extension of the already operational Collie Battery Energy Storage System, which stores and discharges 219MW of power. Once both parts of the Collie system are fully operational, they will support up to 20% of the state's average energy needs.

Neoen’s New South Wales solar farm, known as the Culcairn Solar Farm, is scheduled to begin generating 800 GWh/year by 2026, covering an area of 1,000 hectares. While a BESS at the site is a possibility, Neoen has yet to make any official announcements regarding that development.

Role of the Clean Energy Finance Corporation (CEFC)

The Clean Energy Finance Corporation (CEFC), a state-owned green investment fund, is providing the funding to Neoen. The CEFC has already been involved in funding a total of 2.3GW worth of battery storage projects across Australia, playing a crucial role in the country's transition to a cleaner, more sustainable energy grid.

Australia’s Renewable Energy Growth

Renewable energy generation has surged across Australia, now accounting for 25% of the country’s total power generation in 2023, up from 17% in 2017. During the same period, the combined share of gas and coal in power generation fell from 81% to 63%. This shift aligns with the government’s broader climate goals, including decarbonizing the energy sector and ensuring energy resilience.

The funding commitment to Neoen comes just a day after the Australian government allocated A$14.1 million to GrainCorp and Ampol to promote the development of sustainable aviation fuels and renewable diesel.

PLS Lithium Phosphate Offtake Signals Shift Toward Midstream Battery Materials

PLS Lithium

PLS lithium phosphate offtake with China’s Ningbo Ronbay New Energy Technology marks a strategic step by the Australian lithium producer into higher-value battery materials. The agreement covers lithium phosphate from PLS’ midstream lithium refining demonstration plant.

PLS lithium phosphate offtake gives the company an early customer pathway as it tests whether spodumene can be converted into an intermediate chemical product with broader downstream appeal. The plant is scheduled to deliver first product in the third quarter of 2026.

PLS lithium phosphate offtake also links the company directly with Ronbay, one of the world’s largest lithium iron phosphate cathode material producers. Ronbay will provide technical support as PLS works to optimise product quality and specification.

The agreement’s price and volume details were not disclosed. But the pricing structure will broadly reference lithium chemical prices, with a proportional mechanism similar to spodumene pricing.

Lithium Phosphate Could Shorten the LFP Supply Chain

PLS’ demonstration plant is designed to produce more than 3,000 t/yr of lithium phosphate. It will consume about 27,000 t/yr of spodumene.

The company took full ownership of the plant from former joint-venture partner Calix in February. That gives PLS more control over the development route as it moves beyond conventional lithium concentrate sales.

The strategic importance lies in the possible use of lithium phosphate as a direct feedstock for LFP cathode production. Some LFP cathode producers are testing lithium phosphate instead of lithium carbonate because it could shorten processing steps and reduce total production costs.

This matters because LFP batteries are gaining share in electric vehicles and energy storage systems. Cathode producers want lower-cost, reliable and scalable lithium inputs that can support high-volume manufacturing.

If lithium phosphate can meet strict cathode specifications, PLS could access a new customer base. Instead of selling only to lithium hydroxide or carbonate converters, it could sell directly into cathode material supply chains.

That would move PLS closer to battery manufacturers and allow it to capture more margin inside the lithium value chain.

Quality Testing Will Determine Commercial Potential

The opportunity remains at an early stage. PLS has warned that lithium phosphate must meet demanding quality requirements before it can become a commercial cathode feedstock.

Battery material customers require tight control over impurities, consistency, particle characteristics and chemical performance. A product that works technically at small scale must still prove reliability across repeated production.

Ronbay’s role is therefore important. As a major LFP cathode producer, it can provide practical feedback on product suitability, processing performance and downstream qualification needs.

The agreement also reflects a broader trend in lithium markets. Producers are no longer focused only on mining and concentrate production. They are looking for midstream products that can reduce processing complexity and improve customer access.

For PLS, lithium phosphate could serve multiple markets. It may supply existing lithium chemical producers, while also opening a direct route to cathode manufacturers.

The demonstration plant will test whether that strategy can move from concept to commercial scale. If successful, it could give spodumene producers a new pathway into battery materials without fully entering carbonate or hydroxide production.

The Metalnomist Commentary

PLS’ lithium phosphate strategy is a clear attempt to move higher in the battery value chain without jumping directly into full chemical conversion. The key test will be whether cathode makers accept lithium phosphate as a reliable feedstock at scale, not just as a technical possibility.