Global Battery Manufacturing Equipment Market Report, Size & Forecast 2026-2033

Global Battery Manufacturing Equipment Market Competition Landscape

The competitive landscape for the battery manufacturing equipment market is shaped by companies supplying machinery and technology for lithium-ion battery cell and pack production. Competition is mainly focused on two areas: precision process equipment, especially fully automatic electrode slitting machines, and integrated automation and digital solutions for gigafactories. The analysis covers the global market, with particular attention to China’s electrode slitting segment and Europe’s digital integration case study.

The global battery manufacturing equipment market was estimated at approximately USD 19.41 billion in 2025 (single web estimate), creating a large and growing market for equipment suppliers. The analysis excludes equipment used for upstream materials processing, battery recycling equipment, and end-user applications beyond battery manufacturing.

Key Takeaways

1. Naura Technology Group and Wuxi Lead Intelligent Equipment are among the few globally recognised manufacturers of fully automatic battery electrode slitting machines, positioning Chinese firms as critical suppliers in a precision‑centric process step.
2. Siemens competes in battery equipment through its Digital Enterprise portfolio, offering end‑to‑end digitisation; its EUR 10 million investment in Northvolt’s 32 GWh gigafactory signals a partnership‑based strategy to secure reference projects.
3. The market is split between specialised hardware‑focused OEMs and integrated automation/software providers, each serving different competitive dimensions (process precision vs. factory‑level digitalisation).
4. China production value forecasts for electrode slitting machines (2021‑2032) are referenced in market studies, implying sustained demand growth, though the exact figures are not available in the supplied evidence.

Specialised Precision Equipment: Electrode Slitting

Fully automatic battery electrode slitting machines are an important part of lithium-ion cell manufacturing. They are used to precisely cut coated electrode foils before the cells move to the next stage of assembly. The global market includes several established manufacturers, such as Toray Engineering, Hakusan, MTI, Nagano-Automation, Maysun, Naura Technology, Ruian Loyal Machinery, Wuxi Lead Intelligent Equipment, and Wuxi Jinye Complete Equipment. Among these companies, Naura Technology Group and Wuxi Lead Intelligent Equipment are recognized as leading participants in the global market.

The report does not provide exact revenue shares, but it states that the top three vendors accounted for an unspecified share of revenue in 2025, showing that the market is somewhat concentrated. The study also provides a forecast for China Fully Automatic Battery Electrode Slitting Machine Production Value, 2021–2032 (Section 3.6.3), which indicates continued investment and capacity expansion in China. Naura and Wuxi Lead have an advantage because they are close to the world’s largest battery cell production base, helping them with logistics and production scale. However, the report does not provide exact production values or market shares, so the level of market concentration cannot be measured precisely. Toray and Hakusan from Japan and MTI from the United States are also active in the market, making it a global market with competition spread across different regions.

Integrated Digital Solutions: The Siemens‑Northvolt Partnership

In contrast to the component‑level focus of slitting machine OEMs, large industrial automation suppliers compete by offering full‑factory digitalisation. The clearest supplied example is the partnership announced in May 2018 between Siemens and Northvolt. Siemens agreed to offer its Digital Enterprise portfolio to Northvolt for the construction and operation of its lithium‑ion battery cell gigafactory in Skellefteå, Sweden. The partnership included an investment of EUR 10 million from Siemens, and after production start (the plant opened in 2020 with a planned capacity of 32 GWh), Northvolt became a preferred supplier of lithium‑ion batteries for Siemens.

The competitive logic is two‑fold. First, Siemens uses the partnership as a reference project for future battery production, demonstrating how its portfolio (software, automation, cloud computing) can digitise the entire value chain—from design and process planning to engineering and services. Jan Mrosik, then CEO of Siemens Digital Factory, stated: “With our Digital Enterprise portfolio, we contribute to a competitive battery cell production in Europe that fully exploits the benefits of software and automation: greater flexibility, efficiency and quality with shorter time to market.” Second, the supply‑side agreement (Siemens purchasing batteries) creates a closed‑loop incentive, aligning Siemens’ equipment sales with downstream offtake. Northvolt founder Peter Carlsson underscored the partnership’s strategic fit: “With its world‑class expertise within electrification, automation and digitalisation, Siemens will become an important technology partner, supplier and customer to Northvolt.” This approach contrasts with the transactional, hardware‑focused model of electrode slitting equipment suppliers.

Global battery manufacturing equipment market Scope and Equipment Taxonomy

The battery manufacturing equipment market encompasses the machinery and systems used to produce lithium-ion cells and battery packs. This chapter covers four core equipment segments: electrode manufacturing, cell assembly, formation and testing, and module and pack assembly. Upstream suppliers provide industrial machinery components, precision metal parts, electrical and electronic components, automation and control systems, specialty materials (ceramics, polymers), and software and simulation tools. Downstream customers include lithium-ion battery cell producers, electric vehicle pack manufacturers, energy storage system assemblers, and consumer electronics battery lines. Supporting services such as maintenance, consulting, training, and logistics complete the ecosystem.

The total addressable market is estimated at USD 19.41 billion in 2025, based on a single web estimate. Coverage in this chapter is limited to the two investments for which evidence is available; no data was supplied for electrode manufacturing or module/pack assembly equipment, nor for regions outside Germany and the United States.

Contrasting Investment Signals: High-Capacity Formation vs. Specialized Assembly

Two equipment expansion announcements highlight the breadth of capacity, end-use, and geography in the market. ANDRITZ’s subsidiary delivered a 1.5-gigawatt mass formation line to a battery producer in southern Germany. The line, with 50,000 channels and a throughput of 200 cells per minute, produces cylindrical booster cells for a renowned German premium automaker. The equipment features integrated power electronics, real-time data tracing, and digital solutions; ANDRITZ also provides installation, commissioning, and lifecycle support. The line entered operation in January 2026, and the company reports it is “already working intensively on follow-up orders.”

In contrast, EnPower announced an investment in advanced automated cell assembly lines at its Indianapolis headquarters. The new lines will add 60 MWh of annual assembly capacity for high-performance cells intended for the UAV and defense sectors. The equipment includes electrode processing, quality control, and end-to-end automation. EnPower emphasizes that its material sourcing is 100 % non-FEOC, ensuring a domestic supply chain. The lines are expected fully operational by Q2 2026. The company describes the investment as “a critical step in strengthening the US battery supply chain” and as addressing “urgent need for high-performance, secure, domestically sourced batteries.”

The two cases reveal a clear bifurcation. The ANDRITZ line targets ultra-high throughput for a premium automotive application, with digital integration and comprehensive after-sales support as competitive differentiators. The EnPower investment prioritizes supply-chain resilience, automation, and compliance with domestic sourcing rules for security-sensitive end uses. Both suppliers are positioning for follow-up orders, indicating that equipment demand is diversifying by segment and region.

Market Implications for Participants and Timing

The two announced investments point to growing demand in two distinct equipment segments: mass-production formation lines and specialised cell assembly lines. Buying factors vary by application: scale, digital capability, and lifecycle services drive decisions for high-volume automotive lines, while supply-chain security, automation, and sourcing independence dominate defense-oriented projects.

Both investments are expected to be operational in the first half of 2026, aligning with the broader scale-up of battery cell production. For equipment OEMs, the European market appears to value technology differentiation (digital solutions, power electronics) and full-lifecycle support, as exemplified by ANDRITZ’s “fully European cooperation” and its ability “to prevail over other competitors.” In North America, the emphasis on non-FEOC sourcing and domestic supply chains suggests that equipment suppliers able to offer modular, US-based assembly lines and secure material chains will have a competitive advantage.

The total addressable market of USD 19.41 billion in 2025 provides context for the scale of opportunity, but segment-level growth patterns, competitive shares, and pricing remain unsupported by the supplied evidence. Equipment OEMs should monitor the evolving requirements of automotive versus defense and UAV customers, as these segments are likely to demand increasingly differentiated equipment configurations.

Technology Landscape in Battery Manufacturing Equipment

This chapter covers equipment technologies for electrode manufacturing, cell assembly, formation and testing, and module/pack assembly. Supporting services such as maintenance, consulting, training, facilities, and supply chain are excluded. Recent innovations are advancing production efficiency through digital twins, high‑speed prismatic assembly, all‑solid‑state stacking, and dry electrode coating. Their collective impact, however, depends on integration into production lines and the timing of scale‑up.

Digital Twins and Process Optimisation

The European Union-funded BatCAT project (Battery Cell Assembly Twin) is developing a digital twin that combines data-driven and physics-based methods to improve battery manufacturing. The project focuses on three main challenges: battery cell design, production operations, and trust in manufacturing data. BatCAT is creating a cross-chemistry data space covering lithium-ion, sodium-ion coin cells, and redox flow batteries, with the aim of improving product quality and process efficiency.

The digital twin is designed to provide real-time data analysis and support decision-making in Industry 5.0 manufacturing environments. The project is aligned with the BATTERY 2030+ roadmap and is expected to deliver its outcomes by 2030. For equipment OEMs, cell manufacturers, and system integrators, the project points toward greater use of digital twins in battery production. However, BatCAT is still at the prototype stage and does not yet have a confirmed commercial deployment timeline.

Comparison of Key Innovation Metrics

Three of the four innovations have clear quantitative performance measures, while BatCAT does not provide a single numerical performance metric because it is focused mainly on digital-twin development. YIFI Laser reports a throughput of 20 PPM, LEAD Intelligent Equipment reports a cycle time of 0.35 seconds per cell along with a 50% increase in speed and a 30% improvement in yield, while Dürr reports a 65% reduction in energy consumption.

The comparison therefore highlights different areas of improvement across the technologies: YIFI Laser focuses on production throughput, LEAD Intelligent on cycle time, speed, and yield, and Dürr on energy efficiency. BatCAT’s contribution is more qualitative at this stage, with its main focus on real-time data, cross-chemistry modelling, and digital decision support rather than a measured production improvement.

All‑Solid‑State Battery Manufacturing

LEAD Intelligent unveiled a next‑generation high‑efficiency stacking solution for all‑solid‑state batteries, achieving 0.35 seconds per cell. The solution addresses the long‑standing challenge of simultaneously achieving precision, yield, and efficiency in the stacking and cutting‑stacking processes of solid‑state cells. LEAD claims a 50 % increase in stacking speed and a 30 % yield improvement compared to prior methods. The technology bridges the gap between laboratory‑scale processes and industrial mass‑production equipment. It was presented at the 10th Qidian Lithium‑ion Battery Industry Annual Conference in January 2026. This innovation de‑risks the timeline for all‑solid‑state mass production, as equipment buyers can now expect production‑ready stacking solutions that deliver the speed and yield needed for commercial viability.

Dry Electrode Coating: Lab to Fab Transition

Dürr’s X.Cellify DC dry coating technology transitions electrode manufacturing from wet‑based slurry processing to a dry‑film approach. In conventional wet coating, active material is dispersed in a solvent, applied to metal foil, dried in long ovens, and the solvent is often recovered—requiring large dryers, solvent handling, and significant energy. Dry coating removes these steps by forming a free‑standing film of active material through dosing and calendering, then laminating the film to both sides of the current collector. Dr. Stefan Doose presented this technology at the Battery Show Europe. Dürr states that dry coating reduces energy consumption by 65 % and directly lowers both CapEx and OpEx while shrinking factory footprint. The technology is moving from lab to fab; customers are evaluating pilots, but mass‑production readiness is not yet claimed.

Technology Comparison

Implications for Industry

Each innovation—digital twin, high‑speed prismatic assembly, solid‑state stacking, and dry coating—addresses a distinct manufacturing bottleneck. BatCAT’s digital twin is a prototype that, if commercialised, could optimise the entire cell assembly process. YIFI’s 20 PPM line and LEAD’s 0.35 s/cell stacking are already commercial and can be procured today, though they target different cell formats and chemistries. Dürr’s dry coating is still in the pilot phase but offers a step change in upstream energy and space efficiency. Equipment buyers must assess their own chemistry roadmaps and scale targets before prioritising investments. The lack of a single integrated solution means that factories will likely combine best‑in‑class equipment from multiple suppliers, making interoperability and standardisation critical for future efficiency gains.

Raw Material Supply Risks: Manganese Constraints

Cyclone disruption in Australia reduces South32’s manganese output

Tropical Cyclone Narelle disrupted operations at South32’s Gemco mine in the Northern Territory during March 2026. The company reduced its fiscal 2026 production guidance for Australia manganese to 3 million wet metric tons (wmt), down more than 6% from the previous forecast. Third‑quarter output was 589,000 wmt, up from zero in the same period a year earlier. The cyclone cut into a critical manganese supply region, and the lower output tightens global availability of the metal. Manganese is essential for high‑strength steel used in battery manufacturing equipment and for certain battery cathodes. The mechanism runs from mine disruption → reduced manganese supply → higher input costs for steel‑based equipment components → potential margin pressure for equipment OEMs, and uncertainty for cell producers that depend on manganese‑rich cathode chemistries.

South Africa’s last manganese smelter ceases production

Transalloys, the last manganese smelter in South Africa, ceased production in July 2026 after years of mounting financial losses driven by high electricity costs and the slow pace of tariff relief. The facility in Mpumalanga put about 600 direct jobs and 7,000 downstream roles at risk, with a R6 billion investment under threat. Transalloys’ closure removes a major regional source of ferromanganese, an input for steelmaking and precision metal parts used in battery manufacturing equipment. The mechanism: reduced ferromanganese supply → higher prices for specialty steels and fabricated components → increased procurement costs for equipment OEMs and their component suppliers.

Toxic‑waste allegations at Ghanaian manganese mine supplying Tesla’s chain

An investigation by Global Witness in 2025–2026 revealed that waste from a giant manganese mine in Ghana—a key supplier to the EV supply chain, including Tesla—is creating toxic conditions for local communities. Interviews with more than 150 residents documented chronic health problems (skin, eye, breathing conditions) and poisoned water supplies. A 2022 water study found the mine pit water highly concentrated in arsenic and other toxic metals; the authors warned of risks of cancer, stillbirths, and even DNA alterations. Ghana is the world’s fourth‑largest manganese producer, and China processes more than 90% of global manganese products. The allegations create reputational and regulatory risk: cell producers and their equipment vendors may face pressure to tighten ESG audits, alter sourcing, or redesign supply chains to avoid material from disputed mines. For equipment OEMs, a shift away from Ghanaian or Chinese‑processed manganese could alter demand patterns for certain battery‑grade materials and, by extension, the equipment that processes them.

Trade Policy and Export Control Risks

US tariff policy stalls battery materials project investment

After the Trump administration’s tariff policy shift, new US battery component or mineral extraction projects dropped sharply. In the first six months of 2023, companies announced 19 projects representing US$6.7 billion in planned investment. Since the policy change, only three new US projects have been announced. Specific examples: Group14 delayed its silicon anode facility in Washington until tariff clarity improves; Aspen Aerogels canceled a Georgia facility that was conditionally approved for a US$670 million Department of Energy loan; Eos Energy’s US$306 million loan closed in December 2025 but is now under review by the loan office. For battery manufacturing equipment OEMs, the mechanism is clear: fewer and smaller battery materials projects → reduced demand for cell‑production equipment → lower orders and revenue for OEMs. The pipeline stall is concentrated in the US, but the effect ripples globally as projects that would have procured equipment from American, European, or Asian OEMs are delayed or cancelled.

China’s expanded export controls restrict battery manufacturing equipment

On 9 October 2025, China’s Ministry of Commerce and General Administration of Customs jointly issued Decision No. 58 of 2025, effective 8 November 2025. This adds \”equipment for the manufacturing of rechargeable and dischargeable lithium‑ion batteries\” (including cells and packs with energy density ≥300 Wh/kg) to the List of Dual‑Use Items, an export‑controlled category. Shipments of such equipment now require an export license from Chinese authorities. The decision also controls battery technology and high‑density lithium‑ion cells themselves. China is the dominant producer of battery‑manufacturing machinery; these controls restrict the supply of critical equipment to non‑Chinese cell manufacturers. For equipment OEMs outside China, the mechanism includes two pathways: (1) OEMs that rely on Chinese‑made components face supply disruptions, higher costs, or longer lead times as they seek alternative sourcing; (2) OEMs based in China may gain a competitive advantage by controlling access to restricted machinery, while non‑Chinese OEMs could lose market share if their customers cannot obtain the controlled equipment. The timing (effective late 2025) means the impact will become visible in equipment order books and delivery schedules in 2026.

EU and international standards reshaping market access

EU Battery Regulation (EU) 2023/1542

Regulation (EU) 2023/1542, as amended by (EU) 2025/1561, imposes battery due diligence obligations on economic operators that place batteries on the EU market or put them into service. These obligations cover the sourcing, processing and trading of cobalt, natural graphite, lithium and nickel. They include requirements for third‑party verification by notified bodies and for disclosure of information on supply chain risk management. The due diligence obligations are to be applied from 18 August 2025. The regulation also defines ‘carbon footprint’ as the sum of greenhouse gas emissions and removals expressed as CO₂ equivalents, based on a Product Environmental Footprint study, and mandates carbon footprint declarations for batteries placed on the market. However, the designation of notified bodies is taking longer than expected, and due diligence schemes addressing battery raw materials still need further development and implementation. This creates uncertainty about enforcement readiness during the initial compliance period.

For battery manufacturing equipment exporters, the regulation directly affects market entry: equipment used to produce batteries destined for the EU must support the collection of data required for carbon footprint declarations and due diligence reporting. Downstream battery cell and pack manufacturers will require equipment that enables traceability of material origin and energy consumption. Certification bodies and technical consulting services face additional demand for verifying compliance.

IEC 62933-4-1:2026 – BESS safety standard

On 15 July 2026, the IEC formally published and made mandatory IEC 62933-4-1:2026, replacing IEC 62933‑4:2022. The new standard applies to all liquid‑cooled large‑scale BESS units shipped to the EU. It requires grid‑forming capability and third‑party certification, and adds dynamic test requirements covering real‑time inertial response, black‑start support, and low‑voltage ride‑through (LVRT). The rule change directly affects BESS market access, type‑testing cycles, and the validity of CE declarations of conformity. Manufacturers and export‑oriented suppliers will feel the impact at the product qualification stage, where technical specifications, compliance files and certification readiness must be updated.

IEC 62660-3:2026 – EV battery safety harmonisation

Published on 27 May 2026, IEC 62660-3:2026 harmonises safety test requirements for secondary lithium‑ion traction batteries used in electric road vehicles. The standard integrates testing protocols previously divergent across GB/T (China), UN GTR 20 (EU), JIS C 8714 (Japan) and KS C IEC 62660-3 (South Korea). Adoption reduces the average type‑approval duration for battery systems exported to the EU, South Korea and Southeast Asia from 12 weeks to 7 weeks – a 40 % reduction. For battery manufacturing equipment, this means that equipment producing cells or packs for export to multiple markets can be designed to a single set of safety parameters, reducing certification logistics and time‑to‑market. However, the standard imposes new testing requirements that may necessitate equipment modifications or additional test fixtures.

India’s tariff exemption: lowering input costs for domestic equipment manufacturing

On 9 June 2026, the Government of India Ministry of Finance, Department of Revenue, issued Notification No. 21/2026-Customs under the Customs Act, 1962, amending the principal notification No. 62/2022-Customs. The amendment inserts entry 825A into Table I, fixing the basic customs duty rate at 0.0% for all imports of high‑grade manganese ore falling under Tariff Item 26020010. Previously, such imports attracted positive basic customs duty rates.

High‑grade manganese ore is a critical raw material used in the production of cathode materials for certain lithium‑ion battery chemistries and in steelmaking for battery manufacturing equipment components. By eliminating the basic customs duty, the Indian government aims to stabilise raw material costs for domestic industry, including manufacturers of battery cells, packs, and the machinery used to produce them. The cost reduction passes through to battery manufacturing equipment producers indirectly, as lower input costs for cathode precursors may reduce overall production costs for battery cells, potentially increasing domestic demand for production equipment. Importers of high‑grade manganese ore can now bring in the material duty‑free, improving the competitiveness of downstream battery component manufacturing in India.

This tariff change is a national level measure. It does not directly alter equipment trade barriers, but by improving the cost position of domestic battery material and cell producers, it may shift investment decisions and equipment procurement patterns. Equipment suppliers serving the Indian market may see increased orders from domestic cell manufacturers benefiting from lower material costs.