Statistics & Highlights

Market Snapshot

Market size in USD Billion
$1.70B
2025
Base year
$2.37B
2026
Estimated
  
$8.98B
2030
Forecast
Largest market
Canada
Fastest growing
Surface Battery Haul Trucks
Dominant segment
Underground Loaders, Trucks and Drills
Concentration
Moderately Fragmented
CAGR
39.47%
2026 – 2030
GROWTH
+$7.27B
Absolute
STUDY PARAMETERS
Base year2025
Historical period2021 – 2025
Forecast period2026 – 2030
Units consideredValue (USD Billion)
REPORT COVERAGE
Segments covered11
Regions covered5
Companies profiled16+
Report pages290+
DeliverablesPDF, Excel, PPT
Executive Summary

Key Takeaways

Machine deliveries rise from 569 units in 2025 to 2,313 by 2030, with surface battery haul trucks moving from 26 to 760 and taking market value share from 10% to 49% as underground falls from 67% to 46% of units.
Ventilation cost avoidance is the one driver no government can withdraw. Mining law prescribes minimum airflow per kilowatt of diesel power, from 0.092 cubic metres per second per kilowatt in Quebec to 0.047 in Newfoundland.
A 40% to 60% airflow reduction becomes roughly 78% to 88% less fan power through the cube law, against ventilation running 25% to 50% of underground electrical energy and 15% of capital in deep hot mines.
The most-quoted saving does not reconcile. Borden's stated physical savings of 2 megalitres of diesel, 1 megalitre of propane and 33,000 megawatt-hours value at about USD 4.4 million, not the USD 9 million in circulation.
Sweden abolished its mining diesel concession in 2019 and is the most electrified mining jurisdiction on earth, while Chile rebates at 100%, South Africa moves to 100% in April 2026 and Canada zeroed its fuel charge in 2025.
The segment leader's electrification revenue fell, from 4.2% of group revenue to 3.8%, or roughly USD 285 million to USD 251 million, while its battery order book moved from 39 to 40 mine sites in nine months.
Market Insights

Market Overview & Analysis

Report Summary

This report sizes the global electric mining equipment market — battery-electric and cable-tethered electric mobile machines supplied to mine sites worldwide, plus trolley-assist systems and the charging and mine electrical infrastructure that serves them. Coverage spans underground loaders, trucks, drills and utility vehicles; surface battery haul trucks; cable-tethered surface excavators, shovels and drills; and trolley conversions. Diesel-electric drivetrains and the legacy grid-powered dragline and rope shovel fleet are excluded.

No public global unit registry exists for electric mining equipment, and that absence governs how this report should be read. Every unit series here is a Marqstats construction built from original equipment manufacturer order-book disclosure, named mine deployments and machine-class populations. A country-level machine count does circulate widely in this sector, but it traces to a single source that cannot be cited in a Marqstats report, so its figures are neither reproduced nor used here — and Marqstats found no independent count that contradicts or replaces it. The supply-side cross-check available is revenue: Epiroc's derived electrification revenue of USD 251 million is about 15% of this model's 2025 total, which with Sandvik at comparable scale puts the two underground leaders near 30% of a market that also contains Caterpillar, Komatsu, Liebherr, XCMG, Normet and MacLean plus infrastructure.

The market's shape changes fundamentally across the forecast. In 2025 it is an underground market: 67% of units are underground machines and surface battery haul trucks are 10% of value. By 2030 surface haul trucks are 49% of value on the strength of a small number of very large orders, and underground falls to 46% of units without falling in absolute terms. Australia rises from 7% of global value to 19% on one customer's order book, which is the single largest concentration risk in this forecast. The largest electric mining fleets in the world today, however, are neither of these: they are Chinese surface coal operations, which most coverage of this sector does not reach.

Market Dynamics

Key Drivers

★ Ventilation cost avoidance, quantified. Statutory airflow rules tie required ventilation to installed diesel power; removing diesel removes the requirement. A 40% to 60% airflow reduction yields roughly 78% to 88% less fan power through the cube law, independent academic work computes upwards of 80%, ventilation is 25% to 50% of underground electrical energy, and ventilation plus refrigeration is about 15% of capital cost in deep hot mines. Crucially for a mine planner, this is a capital avoidance rather than an operating saving: a shaft, a raise and a fan installation not built are costs never incurred, and they are incurred at the point in a mine's life when capital is scarcest.

Depth compounds the argument. Ventilation and refrigeration requirements rise with depth as virgin rock temperature climbs, so the deeper the orebody the larger the share of capital and energy that electrification can avoid. That is why the flagship all-electric projects are deep ones, and why the argument strengthens rather than weakens as the world's accessible shallow orebodies are exhausted.

Occupational exposure regulation is already binding in Europe. The 0.05 milligram per cubic metre elemental carbon limit reached underground mining on 21 February 2026, and compliance through ventilation is expensive where compliance through removing diesel machines is structural.

Underground battery machines have a real and growing installed base with evidenced repeat ordering. Epiroc reports about a third of its battery orders coming from existing customers across 40 mine sites, and named all-electric or majority-electric mines now exist in Canada, Finland and Sweden with published machine counts.

Cable-tethered surface machines are the quiet growth segment and carry none of the battery constraints. A tethered excavator or drill has no pack cost, no charging infrastructure requirement and no thermal management problem, and this class is in production at scale while surface battery haulage is not.

Trolley assist is a mature technology with published savings where it is installed. Operators report diesel reductions in the range of 90% on the electrified section, with one Nordic operation citing 830 cubic metres of diesel a year saved on 700 metres of line and 5,500 cubic metres projected across two sites. Trolley also solves the problem battery haulage cannot: it delivers power continuously on the loaded ramp climb, which is where a haul truck consumes most of its energy and where a battery is least able to supply it.

Key Restraints

★ The ventilation saving cannot be banked by an existing mine. Every quantified figure comes from a mine designed electric; no regulator publishes a ventilation credit for battery machines; and the best-instrumented trial on record cut diesel particulate tenfold while reducing no airflow. The driver is capital-side and greenfield, which limits how fast it can convert an installed base.

Mining diesel is rebated or untaxed across most major jurisdictions, so the operating-cost case is weak wherever it matters most. Chile rebates at 100%, South Africa moves to 100% in April 2026, Canada zeroed its federal fuel charge in 2025 and Australia rebates 53.7 cents a litre. The most electrified jurisdiction on earth is the one that abolished its concession.

The supply side is not compounding. The leading underground manufacturer added one net mine site in nine months and its electrification revenue fell year on year in both share and absolute terms. Published unit claims are not battery-only and cannot be aggregated, so the sector's own headline numbers overstate the battery population.

Trolley assist has failed to spread for 59 years and the reason is structural. Roughly 95 trolley-equipped trucks operate worldwide against approximately 28,000 large mine haul trucks — 0.34% of the fleet. The manufacturer sells the truck and the pantograph, but somebody else must build, power and maintain the line, and that split is why installations remain single-site.

Key Trends

The market is shifting from an underground unit market to a surface value market. Underground machines fall from 67% to 46% of units while surface battery haul trucks rise from 10% to 49% of value, entirely on the strength of a small number of very large orders rather than on broad adoption.

Chile's first trolley line went live in July 2025, correcting a widely held assumption that Chile was already a trolley market. Underground trolley is genuinely new: a Nordic operator is running a battery-electric trolley truck system on an 800-metre test track at 13% incline with a 5-kilometre installation planned at 750 metres depth.

Chinese manufacturers lead electric mining truck sales and are exporting the model. One Chinese group ranked first by 2025 electric mining truck sales, and Chinese electric wide-body trucks are already in volume use in Indonesian operations, with a new overseas factory opened to serve them. Any addressable-market estimate built only from the Western majors will be wrong.

Charging and mine electrical infrastructure is the fastest-growing line in the market at 53.91%, rising from 6.5% of value in 2025 to 10.6% by 2030. Underground charging bays and reticulation, surface megawatt chargers and trolley line are being specified as part of the mine rather than as an accessory to the machine.

Global Electric Mining Equipment Market Dynamics Segment Analysis Infographic
Segment Analysis

Market Segmentation

Underground Loaders, Trucks and Drills
Leading

The volume market and the segment with genuine operating history. Marqstats models deliveries rising from 380 units in 2025 to 1,070 in 2030, a 23.00% CAGR. This is where the ventilation argument applies, where repeat ordering is evidenced, and where the all-electric mine case studies come from. It is also the segment where the two competing charging philosophies matter most: a mine that builds high-power reticulation to the working level for fast charging cannot cheaply switch to pack swap, and the reverse is equally true, so the architecture choice is effectively irreversible at mine-design stage.

Surface Battery Haul Trucks

The value step-change and the concentration risk. Deliveries rise from 26 units in 2025 to 760 by 2030, a 96.41% CAGR that takes the segment from 10% of market value to 49%. That growth rests on a small number of very large order books rather than on broad adoption, and the report treats it as schedule-dependent.

Cable-Tethered Surface Machines

Excavators, shovels and drills on trailing cable, growing from 145 units to 395 at 22.19%. This class has no pack cost, no charger requirement and no thermal management problem, and it is in production at scale today while surface battery haulage is not.

Trolley-Assist Systems

The smallest and oldest segment, at 18 sets in 2025 rising to 88 by 2030. Published diesel savings on the electrified section reach 90%, but installed base remains 0.34% of the global haul truck fleet after 59 years because the line, not the truck, is the barrier. The economics are also route-specific in a way machine purchases are not: a trolley line pays back only against a fixed, heavily trafficked ramp, so it suits long-life operations with stable haul profiles and suits nothing else.

Underground Mining
Leading

Where the driver is structural. Statutory ventilation rules tied to diesel power, an already-binding European exposure limit, and confined-space heat and air quality all favour electrification independently of energy prices. It carries the majority of units throughout the forecast and all of the evidenced repeat ordering.

Surface Mining

Where the capital is, and where adoption is order-book-driven rather than fleet-driven. Surface takes the majority of market value from 2029 through haul truck deliveries, with cable-tethered machines and trolley providing the only segments with meaningful current production.

Regional Analysis

By Geography

Canada

The jurisdiction where the ventilation argument was proven and published, and the largest single market for underground battery machines. Its statutory airflow rates range from 0.092 cubic metres per second per kilowatt in Quebec and Manitoba to 0.047 in Newfoundland, a spread wide enough that the same machine changes the economics of a project depending which side of a provincial boundary it sits on. The flagship all-electric mines with published energy and ventilation figures are here, and they are the evidence base the rest of the world cites. Canada takes 23.5% of 2025 market value falling to 16.7% by 2030 as surface haulage grows elsewhere.

Nordic Countries

Sweden and Finland, at 21.0% of 2025 value. Sweden abolished its mining diesel concession in 2019 and is the most electrified mining jurisdiction on earth, which is the strongest available evidence that fuel taxation shapes adoption. The region also hosts the first underground battery-electric trolley system and the best-instrumented underground battery trial on record.

Latin America

Chile dominates, at 17.0% of 2025 value rising to 17.5%. Mining diesel is rebated at 100%, which weakens the operating-cost case, but Chile's first trolley line went live in July 2025 and the country's large copper operations are the natural home for surface electrification at scale.

Australia

Computed from the Marqstats Australia Electric Mining Equipment report rather than estimated independently, so parent and child cannot disagree. Australia is 7.2% of global value in 2025 rising to 18.6% by 2030 — the largest single swing in the regional mix, resting almost entirely on one customer's order book and on a delivery schedule that has already slipped twice.

China, Africa and Rest of World

The largest electric mining fleets in the world are Chinese surface coal operations, and Chinese manufacturers rank first by electric mining truck sales while exporting the model to Indonesia through a new overseas factory. China takes 20.5% of 2025 value; Africa and the remaining markets take 18.0%, falling to 13.0% as their surface haulage lags.

Global Electric Mining Equipment Market Regional Analysis Infographic
Competitive Landscape

How Competition Is Evolving

The competitive structure differs sharply by mining method. Underground is led by Epiroc and Sandvik, both with genuine installed bases and published order books, joined by Normet, MacLean and Miller Technology in specialist classes. Surface is Caterpillar, Komatsu, Liebherr and increasingly XCMG, competing on machine and on charging architecture. The infrastructure layer — ABB in trolley and underground converter systems, BluVein in dynamic charging, Fortescue Zero in battery systems — is a separate competitive field whose members rarely appear in equipment share tables at all. Chinese manufacturers occupy a third position that Western share tables miss almost entirely: one Chinese group ranked first by 2025 electric mining truck sales, and Chinese electric wide-body trucks are in volume service in Indonesia, served by a purpose-built overseas factory. A competitive assessment drawn only from the Western majors describes perhaps half the machines actually being delivered.

The sector's own published unit figures cannot be used as they stand. Epiroc and Sandvik each claim over 600 electric units worldwide and Sandvik additionally claims to be the largest supplier, but neither figure is battery-only: both include cable-electric and electric-tramming machines, which have existed in mining since the 1970s. The two claims are neither additive nor comparable, and a reader who sums them produces a battery population roughly double the real one. Marqstats reports them as what they are and builds its own series from order-book disclosure and named deployments instead.

The most consequential competitive fact in this market is one that runs against the narrative. Epiroc's electrification revenue fell in 2025, from 4.2% of group revenue to 3.8%, or roughly USD 285 million to USD 251 million, and its battery order-book site count moved from 39 to 40 across nine months. That is the clearest single datapoint the sector publishes about its own trajectory, it comes from the segment leader's annual reporting, and it points the wrong way. Against it sits the genuinely encouraging figure from the same disclosure: about a third of those orders are repeat orders from existing customers, which is the strongest available evidence that the machines work.

Global Electric Mining Equipment Market Competitive Landscape Infographic
Major Players

Companies Covered

The report profiles 16+ companies with full strategy and financials analysis, including:

Epiroc AB
Sandvik AB
Caterpillar Inc.
Komatsu Ltd.
Liebherr-International AG
Normet Group Oy
MacLean Engineering & Marketing Co., Limited
Miller Technology Inc.
Xuzhou Construction Machinery Group Co., Ltd. (XCMG)
SANY Group Co., Ltd.
Yutong Heavy Industries Co., Ltd.
Inner Mongolia North Hauler Joint Stock Co., Ltd.
ABB Ltd
Hitachi Construction Machinery Co., Ltd.
Fortescue Zero
BluVein Pty Ltd
Note: Full company profiles include revenue analysis, product portfolio, SWOT, and recent strategic developments.
Latest Developments

Recent Market Activity

Feb 2026
The European occupational exposure limit for diesel engine exhaust emissions reaches underground mining on 21 February 2026 at 0.05 milligrams per cubic metre of elemental carbon, after a five-year transition period. It is the first binding, non-repealable regulatory driver for underground mine electrification in a major jurisdiction.
Jan 2026
Epiroc reports that 40 mines worldwide have ordered its battery-electric vehicles, with most 2025 orders coming from existing customers — one net site above the 39 reported nine months earlier. In the same reporting, electrification falls to 3.8% of group revenue from 4.2% a year earlier.
Jul 2025
Chile's first trolley-assist installation enters service, correcting the widely held assumption that Chile was already a trolley market. Roughly 95 trolley-equipped trucks now operate worldwide against approximately 28,000 large mine haul trucks.
Apr 2025
Canada zeroes its federal fuel charge on 1 April 2025, removing the carbon-price component of mining diesel cost in a jurisdiction whose statutory ventilation rules already provide the strongest structural case for electrification.
2025
A Nordic operator runs a battery-electric trolley truck system underground on an 800-metre test track at 13% incline, with a 5-kilometre installation planned at 750 metres depth using four trolley-capable battery trucks. Underground trolley is genuinely new technology rather than an adaptation of surface practice.
Apr 2026
South Africa's mining diesel rebate moves to 100% with effect from 1 April 2026, joining Chile at full rebate and further weakening the operating-cost case for electrification in a major mining jurisdiction.
Report Structure

Table of Contents

1. Introduction
1.1 Study Assumptions & Market Definition
1.1.1 What Counts as Electric Mining Equipment
1.1.2 Diesel-Electric Drivetrains — Excluded, and Why
1.1.3 Legacy Grid-Powered Draglines and Rope Shovels — Excluded, and Why
1.1.4 ★ Boundary Against the Off-Highway Electric Vehicle Report
1.1.5 ★ Relationship to the Australia Electric Mining Equipment Report
1.2 Scope of the Study
1.3 Currency, Units and Price Basis
2. Research Methodology
2.1 Machine-Class Build-Up Approach
2.2 ★ Why No Public Global Unit Registry Exists
2.2.1 The Circulating Country Count and Why It Is Not Used
2.2.2 Order-Book Disclosure as the Substitute Evidence Base
2.3 ★ The Revenue Cross-Check on the Global Total
2.4 ★ Why Published Unit Claims Are Reported but Not Used
2.5 Computing the Australian Regional Line from the Child Report
2.6 Ventilation Derivations and Their Sources
2.7 Forecast Model, Concentration Risk and Sensitivity
2.8 Data Gaps and Limitations
3. Executive Summary
3.1 Key Findings
3.2 Market Size and Forecast at a Glance
3.3 ★ From an Underground Unit Market to a Surface Value Market
4. Market Landscape
4.1 Market Overview
4.2 ★★ VENTILATION COST AVOIDANCE — THE DRIVER THAT CANNOT BE LEGISLATED AWAY
4.2.1 Statutory Airflow per Kilowatt of Diesel Power, by Jurisdiction
4.2.2 The Cube Law and Fan Power Reduction
4.2.3 Ventilation as a Share of Underground Energy and Capital
4.2.4 Published Mine-Level Reductions
4.2.5 ★ Why the Most-Quoted Saving Does Not Reconcile
4.2.6 ★ The Counter-Argument — a Greenfield Case, Not a Retrofit Case
4.2.7 Depth as a Compounding Factor
4.3 Global Mining Equipment Denominators
4.4 Where the Largest Electric Mining Fleets Actually Are
5. Market Dynamics
5.1 Market Drivers
5.1.1 Ventilation Cost Avoidance, Quantified
5.1.2 Occupational Exposure Regulation in Europe
5.1.3 Evidenced Repeat Ordering Underground
5.1.4 Cable-Tethered Machines Without Battery Constraints
5.1.5 Published Trolley-Assist Savings
5.2 Market Restraints
5.2.1 ★ The Ventilation Saving Cannot Be Banked by an Existing Mine
5.2.2 ★ Mining Diesel Rebated or Untaxed Across Major Jurisdictions
5.2.3 A Supply Side That Is Not Compounding
5.2.4 Why Trolley Assist Has Not Spread in 59 Years
5.3 Market Trends
5.3.1 Underground Unit Market to Surface Value Market
5.3.2 Chile's First Trolley Line and Underground Trolley
5.3.3 Chinese Manufacturers Leading Electric Mining Truck Sales
5.3.4 Charging and Mine Electrical as the Fastest-Growing Line
5.4 Regulatory and Policy Framework
5.4.1 Statutory Mine Ventilation Requirements
5.4.2 The European Diesel Engine Exhaust Exposure Limit
5.4.3 ★ Mining Diesel Taxation and Rebates by Jurisdiction
5.4.4 Carbon Pricing That Actually Reaches Mining
5.4.5 ★ What the United States Mine Safety Regulator Has and Has Not Done
5.5 Technology Assessment
5.5.1 Battery Sizing by Machine Class
5.5.2 Fast Charging Against Pack Swap Underground
5.5.3 Cable Reeling and Medium-Voltage Reticulation
5.5.4 Trolley and Dynamic Charging Architectures
5.5.5 Mine Electrical Load and Grid Connection
5.6 Total Cost of Ownership Analysis
5.7 Porter's Five Forces Analysis
6. Market Segmentation
6.1 By Machine Type
6.1.1 Underground Loaders, Trucks and Drills
6.1.2 Surface Battery Haul Trucks
6.1.3 Cable-Tethered Surface Machines
6.1.4 Trolley-Assist Systems
6.2 By Mining Method
6.2.1 Underground Mining
6.2.2 Surface Mining
6.3 By Region
6.3.1 Canada
6.3.2 Nordic Countries
6.3.3 Latin America
6.3.4 Australia
6.3.5 China, Africa and Rest of World
7. Competitive Landscape
7.1 Market Structure by Mining Method
7.2 ★ Why Published Unit Claims Cannot Be Aggregated
7.3 The Underground Leaders and Their Order Books
7.4 Surface Manufacturers and Charging Architecture
7.5 The Infrastructure Layer
7.6 Chinese Manufacturers and the Export Model
7.7 Company Profiles
7.7.1 Epiroc AB
7.7.2 Sandvik AB
7.7.3 Caterpillar Inc.
7.7.4 Komatsu Ltd.
7.7.5 Liebherr-International AG
7.7.6 Normet Group Oy
7.7.7 MacLean Engineering & Marketing Co., Limited
7.7.8 Miller Technology Inc.
7.7.9 Xuzhou Construction Machinery Group Co., Ltd. (XCMG)
7.7.10 SANY Group Co., Ltd.
7.7.11 Yutong Heavy Industries Co., Ltd.
7.7.12 Inner Mongolia North Hauler Joint Stock Co., Ltd.
7.7.13 ABB Ltd
7.7.14 Hitachi Construction Machinery Co., Ltd.
7.7.15 Fortescue Zero
7.7.16 BluVein Pty Ltd
8. Market Opportunities and Future Outlook
8.1 Where the Forecast Could Break — Concentration and Schedule Risk
8.2 The Greenfield All-Electric Mine Opportunity
8.3 Charging and Mine Electrical Infrastructure
9. Appendix
9.1 Abbreviations and Technical Terms
9.2 Data Gap Register
9.3 Related Marqstats Reports and Scope Boundaries
9.4 Disclaimer and Contact
Study Scope & Focus

Coverage & Segmentation

This study covers battery-electric and cable-tethered electric mobile mining machines supplied worldwide across 2021 to 2030, underground and surface, together with trolley-assist systems and the dedicated charging and mine electrical infrastructure serving them. Diesel-electric drivetrains are excluded because they consume diesel, and the legacy grid-powered dragline and rope shovel fleet is excluded as a mature installed base with no meaningful new supply. Generation and transmission are excluded from market value and treated as context. Two boundaries are stated explicitly: the overlap with the Marqstats Off-Highway Electric Vehicle report, which names mining vehicles among its segments; and the relationship to the Marqstats Australia Electric Mining Equipment report, which is this report's child.

Market value is measured at machine and installation supply price in United States dollars. The base year is 2025, the historical period 2021 to 2025 and the forecast period 2026 to 2030. Readers should treat the global totals as constructed rather than measured: no public global unit registry exists for electric mining equipment, and the one widely circulated country count is not citable and is not used here. The forecast is also concentrated — Australia rises from 7.2% to 18.6% of global value on a single order book whose delivery schedule has already slipped twice, and a further slip would remove a material share of the global growth.

Frequently Asked Questions

FAQs About the Global Electric Mining Equipment Market

Marqstats estimates the global electric mining equipment market at USD 1.70 billion in 2025, rising to USD 8.98 billion by 2030. Machine deliveries rise from 569 units a year to 2,313. The scope covers battery-electric and cable-tethered electric mobile mining machines, trolley-assist systems and the dedicated charging and mine electrical infrastructure serving them; diesel-electric drivetrains and legacy grid-powered draglines are excluded.
The market grows at a CAGR of 39.47% between 2025 and 2030, against 32.38% on unit deliveries. The gap reflects mix: surface battery haul trucks grow at 96.41% a year from a base of 26 units and carry a far higher unit value than the underground machines that dominate today.
Ventilation cost avoidance, and its distinguishing feature is that no government can withdraw it. Mining law prescribes minimum airflow per kilowatt of installed diesel power — 0.092 cubic metres per second per kilowatt in Quebec and Manitoba down to 0.047 in Newfoundland. Because fan power varies with the cube of flow, a 40% to 60% airflow reduction becomes roughly 78% to 88% less fan power, against ventilation running 25% to 50% of underground electrical energy.
Underground loaders, trucks and drills dominate on units, at 67% of 2025 deliveries falling to 46% by 2030 without falling in absolute terms. Surface battery haul trucks dominate on value from 2029, rising from 10% of market value in 2025 to 49% by 2030. Charging and mine electrical infrastructure is the fastest-growing line at 53.91%.
Canada leads in 2025 at 21.8% of market value, on the strength of statutory ventilation rules and the flagship all-electric mines that published the evidence base. China takes the largest single share by 2030 at 19.9%, and Australia shows the largest swing, rising from 7.2% to 18.6% on one customer's order book — the single largest concentration risk in this forecast.
Sixteen companies are profiled across three distinct fields. Underground is led by Epiroc and Sandvik, joined by Normet, MacLean and Miller Technology. Surface is Caterpillar, Komatsu, Liebherr and increasingly XCMG, SANY and Yutong Heavy Industries. The infrastructure layer — ABB, BluVein and Fortescue Zero — rarely appears in equipment share tables at all.
Yes. Marqstats supports customisation including additional machine classes, country-level splits, deeper company profiling, ventilation scenario modelling and alternative order-book delivery schedules. The report is delivered as PDF, Excel and PowerPoint, and covers the base year 2025 with a 2021 to 2025 historical period and a 2026 to 2030 forecast period.