Battery-electric underground mining equipment Market | Latest Report, Market Analysis, Business Trends

Battery-electric underground mining equipment demand is shifting from pilot fleets to mine-level procurement

Battery-electric underground mining equipment refers to battery-powered loaders, haul trucks, drills, bolters, utility vehicles, battery packs, charging systems, swap stations, and supporting fleet-control systems used below surface in hard-rock and selected coal mining operations. The global Battery-electric underground mining equipment market is estimated at around USD 3.2 billion in 2026 and is projected to reach nearly USD 7.4 billion by 2033, reflecting a CAGR of about 12.7% during 2026–2033. Demand is concentrated in underground gold, copper, nickel, zinc, platinum-group metals, and critical-mineral mines where ventilation cost, diesel particulate exposure, heat load, decarbonization targets, and fleet replacement timing directly influence procurement. Major segmentation is shaped by equipment type, with load-haul-dump loaders and underground trucks leading revenue; by application, with metal mining stronger than coal; by battery system, with swappable battery platforms gaining preference in high-utilization mines; and by region, with Canada, Australia, Sweden, Finland, South Africa, the United States, and Chile forming the most active adoption clusters.

Loaders and haul trucks hold the strongest early share because diesel replacement economics are clearest underground

Battery-electric loaders and trucks account for the strongest commercial demand because they operate for long hours in high-heat, high-emission underground zones. Diesel LHDs and haul trucks require high ventilation volumes to remove exhaust gases and heat. In deep mines, ventilation can represent 30% to 50% of underground mine energy use, making battery-electric conversion a cost and compliance decision rather than only an emission-reduction step. The business case is strongest where mines are already expanding deeper, where haulage routes are repetitive, and where power infrastructure can be planned with the mine design.

In April 2025, Sandvik received an order worth around SEK 750 million from South32 for the Hermosa critical minerals project in Arizona. The order covered a 42-unit underground equipment fleet, including 22 battery-electric machines. This is important because the order moved battery-electric underground mining equipment beyond trial use and into greenfield fleet planning. The mix included electric bolters, development drills, longhole drills, loaders, and trucks, showing that battery-electric procurement is no longer limited to one equipment class.

Canada is another strong indicator of adoption moving toward fleet scaling. In December 2025, Eldorado Gold ordered battery-electric trucks and loaders from Sandvik for the Lamaque mine in Québec. The SEK 160 million order followed an earlier SEK 65 million order, and the site’s Sandvik BEV fleet is expected to rise from 2 units to 12 units, with deliveries beginning in mid-2026 and continuing into 2027. This pattern shows how buyers typically adopt the technology: one or two units are validated first, then the fleet expands once charging, maintenance, route performance, and operator acceptance are proven.

Metal mining applications are stronger than coal because battery value is tied to ventilation, depth, and ESG-linked capital

Metal mining remains the dominant application for battery-electric underground equipment. Gold, copper, nickel, zinc, and PGM mines operate in deeper underground environments, often with higher ventilation intensity and longer mine lives than many underground coal assets. These mines also face stronger investor scrutiny because copper, nickel, and zinc are tied to electrification supply chains. For buyers, the equipment decision links directly with mine permitting, worker safety, ventilation design, and long-term cost control.

Underground copper and critical-mineral projects are especially relevant. South32’s Hermosa project in the United States is positioned around zinc, manganese, and silver supply, while Canadian gold and copper mines are using BEV fleets to reduce diesel exposure and improve underground working conditions. In March 2025, Epiroc announced a large order from Hudbay Minerals for battery-electric vehicles for an underground gold and copper mine in Canada, reinforcing the country’s role as one of the clearest commercial markets for underground BEVs.

Battery-electric drills and bolters are growing, but their adoption logic differs from trucks and loaders. Drills already use electric power in many underground settings, so the battery-electric value comes from reduced cable handling, improved mobility, automation compatibility, and lower heat load. Loaders and trucks have a stronger diesel-displacement case because they are heavier, more fuel-intensive, and more exposed to ventilation economics.

Supply is still concentrated, and pricing reflects battery systems, mine customization, and service coverage

The supply base is concentrated around Sandvik, Epiroc, Normet, MacLean, Komatsu, Caterpillar, and selected specialized underground vehicle manufacturers. Buyers do not purchase only a machine; they procure a fleet package that includes battery modules, chargers, swap systems, digital monitoring, operator training, maintenance planning, spare parts, and site-level engineering support. This makes service coverage a decisive factor in supplier selection.

Battery-electric underground machines generally carry a higher upfront price than diesel units because battery packs, thermal management, power electronics, charging infrastructure, and software diagnostics increase equipment cost. However, the total-cost calculation changes where diesel ventilation, fuel handling, maintenance, and heat-management costs are high. Battery-swapping systems improve utilization for mines running multiple shifts, while plug-in charging is more suitable for smaller fleets, utility vehicles, or mines with lower duty-cycle intensity.

Supply availability is improving, but it remains uneven by region. North America, Australia, and the Nordic mining belt have better OEM support, trained technicians, mine electrification engineering, and early installed-base learning. India is becoming more relevant on the manufacturing side. In August 2025, Epiroc announced a ₹350 crore investment in a 42-acre manufacturing and R&D facility near Nashik, Maharashtra, with the facility expected to be operational by December 2026. While this investment supports broader mining and construction equipment production, it also signals that global OEMs are strengthening regional engineering and testing capacity closer to Asian demand centers.

Adoption remains procurement-led, not purely technology-led

The main restraint is not interest in battery-electric underground mining equipment; it is mine readiness. Older underground mines often lack sufficient electrical distribution capacity, charging bays, ventilation redesign plans, and maintenance teams trained for high-voltage systems. Battery replacement cost, charging downtime, fire-safety rules, and compatibility with mixed diesel-electric fleets also affect procurement timing.

For this reason, adoption is strongest in greenfield mines, deep mine expansions, and operations with scheduled fleet replacement windows. Brownfield mines usually adopt in stages, beginning with one loader, one truck, or a utility vehicle before moving to mine-level electrification. The market is therefore growing through procurement cycles rather than broad immediate conversion. The strongest near-term demand will come from mines where ventilation savings, diesel-emission reduction, worker exposure limits, and ESG-linked capital access all point toward the same equipment decision.

Regional demand is led by underground hard-rock mining clusters with high ventilation cost and deeper mine plans

Regional behavior in battery-electric underground mining equipment is not shaped by general mining activity alone. Demand is strongest where underground mines are deep, diesel ventilation cost is high, labor-safety rules are strict, and operators have the balance sheet to procure high-value fleets with charging infrastructure. This places Canada, Australia, Sweden, Finland, the United States, Chile, South Africa, and selected Indian metal-mining clusters ahead of countries where underground mines remain smaller, lower-mechanized, or cost-led.

Canada is one of the clearest early-adoption markets because underground gold, nickel, copper, and zinc mines are concentrated in Ontario, Québec, Manitoba, and British Columbia. Mine operators already use high-mechanization fleets, and electrification fits both ventilation economics and workplace exposure reduction. The December 2025 Sandvik order from Eldorado Gold for the Lamaque mine in Québec shows this pattern clearly: the order covered battery-electric trucks and loaders, followed an earlier BEV order, and is expected to expand the site fleet from 2 to 12 battery-electric units. This indicates a replacement-and-scale model rather than a one-off demonstration.

The United States is moving from limited adoption into project-level procurement. South32’s Hermosa project in Arizona is a strong case because it is a greenfield critical-minerals development, allowing electrical infrastructure, charging points, and haulage layouts to be planned from the beginning. The April 2025 Sandvik order valued at about SEK 750 million included 22 battery-electric machines within a 42-unit underground fleet. That type of order directly supports higher regional equipment revenue because BEV adoption is attached to mine construction capex, not only replacement purchasing.

Australia remains an important demand and testing market because its underground gold, nickel, copper, and base-metal mines are large, technically advanced, and exposed to rising labor, diesel, and ventilation costs. Western Australia and South Australia are the most relevant demand clusters. The buyer base includes large miners, contract miners, and mine-development contractors. Procurement is usually tied to fleet reliability, productivity per shift, dealer support, and availability of field technicians rather than only emission reduction.

Nordic Europe has a stronger supply-side and technology-development role. Sweden and Finland are not the largest mining equipment consumption markets by unit volume, but they are important because Sandvik, Epiroc, Normet, and several automation and electrification specialists operate from this ecosystem. Regional mines in Sweden and Finland provide harsh-environment validation for loaders, trucks, drilling equipment, utility machines, batteries, chargers, and digital fleet tools. This gives Nordic suppliers an installed-base advantage in underground electrification.

Chile is a selective but important demand market because copper mining is large and underground development is expanding. Battery-electric underground machines are relevant where mines are deeper and ventilation intensity rises. Normet’s May 2025 launch of new SmartDrive XS-series and L-series platforms at the Electric Mine Conference in Santiago also shows Chile’s role as a commercial and technical meeting point for underground electrification in Latin America. Adoption is stronger in copper-linked underground support equipment, utility machines, explosives charging, concrete spraying, and service vehicles before full-scale haulage conversion.

India is at an earlier stage on battery-electric underground mining equipment adoption, but underground metal mining, especially zinc and lead-zinc operations, is creating a practical base. Hindustan Zinc’s April 2025 order from Epiroc for underground mining equipment and aftermarket support points to growing procurement sophistication in Indian underground mining. India’s supply relevance is also increasing. Epiroc’s August 2025 decision to build a 175,000 square meter production and R&D facility near Nashik, with operations expected in 2026, strengthens local production, prototyping, testing, and service capability for mining and construction equipment.

Supply availability is regional, but key components remain globally sourced

Manufacturing and assembly are concentrated among global OEMs, but battery-electric underground machines depend on a wider component base than diesel machines. Major inputs include lithium-ion battery packs, battery-management systems, power electronics, electric motors, drivetrains, hydraulic systems, vehicle controllers, high-voltage cabling, thermal-management systems, fire-suppression systems, chargers, swap systems, and mine-duty structures.

The supply chain is not fully localized in most regions. North American and Australian buyers depend heavily on OEM imports or regional assembly supported by local service centers. Europe has stronger engineering depth because Sweden and Finland are major supplier bases. India is becoming more important for equipment manufacturing and component support, but high-performance battery systems and control electronics are still commonly linked to global sourcing networks.

Import-export dependency is therefore more important for high-value components than for all equipment frames. Mines may receive assembled units through OEM distribution networks, while batteries, chargers, control electronics, and diagnostic systems come through specialized supplier channels. This affects lead time, spare-part stocking, and maintenance contract structure.

Segmentation by regional behavior can be summarized as follows:

• North America: strongest in early fleet scaling, gold, copper, nickel, and critical-mineral projects; higher willingness to pay for safety, ventilation savings, and ESG-linked procurement.
• Australia: strong in advanced underground mining, contractor-led fleet purchasing, and high-utilization equipment economics.
• Nordic Europe: strongest in OEM supply, technology development, testing, automation integration, and battery-electric platform maturity.
• Latin America: selective adoption led by copper mines, underground support equipment, and mine-service applications.
• India: early adoption market with growing manufacturing and aftermarket support capacity.
• Africa: demand concentrated in South Africa and selected deep precious-metal mines, but higher capex sensitivity slows conversion.
• China: large underground mining base, but domestic supply, local standards, and cost competition create a separate market structure.

Demand trend: procurement is moving from single-unit trials to mixed-fleet electrification

The demand pattern is changing from pilot purchasing to mixed-fleet procurement. Underground mine operators are not replacing all diesel machines at once. They are electrifying the equipment categories where the economics are strongest: LHDs, trucks, utility vehicles, personnel carriers, shotcrete sprayers, explosives chargers, and support vehicles. Loaders and trucks dominate revenue because their battery size, mechanical complexity, and duty cycle create higher unit values. Utility vehicles often lead in unit numbers because they are easier to deploy and require less charging infrastructure.

Pricing remains above diesel equipment because batteries, high-voltage systems, chargers, and site integration increase upfront cost. However, mines with high ventilation energy cost and long operating lives can justify premium pricing through reduced diesel use, lower heat load, improved underground air quality, and less exposure to future emission restrictions. Replacement cycles are becoming more favorable because many mines are aligning BEV purchasing with scheduled fleet renewal rather than treating electrification as a separate capital program.

Competitive structure is led by global OEMs with underground installed-base advantage

The competitive base for battery-electric underground mining equipment is concentrated, but not uniform across all product categories. Sandvik and Epiroc are among the strongest top-tier suppliers because they combine underground drills, loaders, trucks, automation systems, battery-electric platforms, aftermarket support, and deep customer relationships. Their advantage is not only machine supply; it is the ability to support fleet conversion, maintenance planning, operator training, remote monitoring, and spare-parts availability across major mining countries.

Sandvik has built a visible position in battery-electric loaders, trucks, drills, and bolters. Its battery-electric portfolio includes Toro loaders and trucks, electric underground drills, and mine automation compatibility. The South32 Hermosa order is important because it included six DS412iE bolters, five DD422iE development drills, four DL422iE longhole drills, four Toro LH518iB loaders, and three Toro TH665iB trucks. This mix shows portfolio depth across development, production, support, and haulage. The Eldorado Lamaque order also strengthens Sandvik’s Canadian installed-base position in load-and-haul electrification.

Epiroc is a leading competitor through its battery-electric loaders, trucks, drill rigs, automation systems, and aftermarket capabilities. The company has a strong underground mining footprint in Sweden, Canada, Australia, India, the United States, and Latin America. Its competitive strength is linked to integrated equipment plus service coverage. The March 2025 order from Hudbay Minerals for battery-electric vehicles for an underground gold and copper mine in Canada shows Epiroc’s role in North American mine electrification. The April 2025 Hindustan Zinc order in India also reflects its position in underground equipment and aftermarket contracts.

Normet is stronger in underground support and utility applications rather than heavy haulage. Its SmartDrive battery-electric platform targets concrete spraying, explosives charging, lifting, logistics, personnel transport, and underground service vehicles. Normet’s May 2025 expansion of SmartDrive with XS-series and L-series platforms strengthens its coverage at both smaller and larger equipment sizes. The company stated that more than 60 SmartDrive units were already operating across six continents, which supports its position in battery-electric underground service equipment.

MacLean Engineering has a strong niche in battery-electric underground production support vehicles. Its EV Series includes personnel carriers, utility vehicles, cassette trucks, boom trucks, scissor lifts, and support equipment for underground hard-rock mines. The company states that it has sold and commissioned battery-electric production support mining vehicles across 16 mine sites on two continents and accumulated more than 500,000 operating hours. This makes MacLean relevant where mines electrify support fleets before large loaders and trucks.

Komatsu is expanding in underground battery-electric equipment through narrow-vein and hard-rock applications. In September 2024, Komatsu introduced the WX04B battery-electric LHD with a 150 kW underground charger. The machine is positioned for narrow-vein mines and offers up to four hours of runtime with a battery-swap system. Komatsu’s advantage is global mining brand reach and broad underground hard-rock equipment capability, although its BEV installed base is still developing compared with earlier electric-focused competitors.

Caterpillar remains a major global mining equipment supplier, but its underground battery-electric positioning is more selective than Sandvik and Epiroc in hard-rock BEV fleets. Its competitive advantage comes from global dealer reach, service infrastructure, mining customer access, and broad equipment integration. For mines that prioritize lifecycle support and financing, dealer capability remains an important part of procurement.

Pricing and cost pressure are shaped by batteries, charging infrastructure, and service contracts

Battery-electric underground mining equipment is priced at a premium to diesel machines, mainly because of battery packs, electric drivetrains, control systems, thermal management, charging infrastructure, and safety engineering. The premium is easier to absorb in deep mines because ventilation savings and diesel-reduction benefits are larger. It is harder to justify in small mines with short operating lives or limited electrical infrastructure.

Manufacturing economics also depend on battery sourcing. Battery cost, cell availability, pack design, and certification requirements influence margin pressure. OEMs with standardized platforms and field data have an advantage because they can reduce warranty risk and improve service scheduling. Mines increasingly evaluate suppliers on battery warranty, charger compatibility, uptime guarantee, spare battery availability, and local technician response time.

Recent developments directly shaping the market include:

• April 2025, United States: Sandvik received a SEK 750 million order from South32 for the Hermosa project in Arizona, including 22 battery-electric machines within a 42-unit underground fleet.
• March 2025, Canada: Epiroc received a large battery-electric vehicle order from Hudbay Minerals for an underground gold and copper mine, supporting BEV adoption in Canadian metal mining.
• April 2025, India: Epiroc won a large underground mining equipment and aftermarket support order from Hindustan Zinc, indicating stronger underground mechanization and service-led procurement in India.
• May 2025, Chile: Normet launched SmartDrive XS-series and L-series battery-electric platforms at the Electric Mine Conference in Santiago, expanding its underground BEV support-equipment range.
• August 2025, India: Epiroc announced a 175,000 square meter production and R&D facility near Nashik, supporting equipment production, prototyping, testing, and future regional supply.
• December 2025, Canada: Sandvik received a SEK 160 million battery-electric truck and loader order from Eldorado Gold for Lamaque, raising the mine’s BEV fleet from 2 units to 12 units.