Authors:
Preeti Wadhwani, Manish Verma
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Trucks Market Size & Share 2026-2035
Report ID: GMI6781
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Published Date: August 2026
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Trucks Market
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Trucks Market Size
The global trucks market was valued at USD 400.9 billion in 2025 and is projected to reach USD 792.6 billion by 2035, expanding at a 7.3% CAGR from 2026.
Trucks Market Key Takeaways
Market Leader: Daimler Truck led with over 5.9% market share in 2025.
Leading Players: Top 5 players in this market include Daimler Truck, FAW, Isuzu Motors, Sinotruk, Volkswagen, which collectively held a market share of 22.9% in 2025.
The market's scale reflects its role across freight movement, construction activity, industrial supply chains, mining, and last-mile distribution. Class 8 vehicles accounted for USD 269.39 billion in 2025, making heavy-duty equipment the principal value pool, while Class 3 vehicles are expected to expand more rapidly as urban delivery fleets and service applications require smaller commercial platforms.
Electrification is adding a second growth path rather than displacing conventional trucks uniformly. More than 90,000 electric trucks were sold globally in 2024, with sales increasing by around 80% year over year. China represented more than 80% of those sales, demonstrating how local manufacturing scale, policy support, and use cases with predictable routes can accelerate adoption [1]International Energy Agency, Trends in heavy-duty electric vehicles - Global EV Outlook 2025, iea.org. ICE trucks nevertheless represented USD 371.86 billion in 2025, underscoring that diesel, gasoline, and natural-gas powertrains will remain commercially relevant where payload, range, refueling time, and fleet utilization outweigh the current operating advantages of zero-emission alternatives.
Regulation is reshaping the product-development cycle, particularly in North America. The U.S. EPA's Clean Trucks Plan establishes emissions requirements for heavy-duty vehicles beginning with model year 2027, increasing the importance of powertrain efficiency, aftertreatment integration, and zero-emission product planning [2]U.S. Environmental Protection Agency, Clean Trucks Plan, epa.gov. The result is a market in which fleet replacement decisions increasingly combine asset utilization requirements with compliance timing, charging or refueling access, and residual-value considerations.
GMI Analyst View
Truck demand is no longer governed solely by freight volumes. The largest economic pool remains in heavy-duty ICE platforms because long-haul and vocational fleets require dependable operating range and rapid replenishment, yet the fastest-growing value pools are emerging where fleet duty cycles are more controllable. This split favors manufacturers able to sustain conventional-truck profitability while funding electric, hybrid, hydrogen, connectivity, and safety programs.
The market's expansion to USD 792.59 billion by 2035 depends on replacement demand across multiple end uses rather than a single technology transition. Fleet operators are likely to sequence investments: regulatory exposure and depot-based operating patterns can justify early electrification, while high-utilization or remote applications may retain combustion powertrains until charging, hydrogen supply, and total-cost economics improve. Product breadth, service coverage, and financing capacity therefore become as important as vehicle launch cadence.
Key Drivers
Freight-intensive logistics is the core demand engine for trucks. Logistics and transportation represented USD 169.05 billion in 2025 and is expected to reach USD 321.00 billion by 2035. Fleet renewal in this category is influenced by utilization, fuel expense, maintenance downtime, and increasingly stringent emissions rules. Retail and e-commerce is expected to grow at a 10.5% CAGR, faster than the overall market, because parcel distribution and urban fulfillment require frequent-stop vehicles, smaller delivery platforms, and fleet configurations suited to depot charging.
Construction and infrastructure create a distinct replacement cycle for vocational and heavy-duty trucks. U.S. public construction spending reached USD 517.3 billion in 2025, 3.7% above the preceding year, while highway construction spending was running at a USD 148.5 billion seasonally adjusted annual rate in January 2026 [3]U.S. Census Bureau, Monthly Construction Spending, January 2026, census.gov. Construction fleets require high-load durability, jobsite maneuverability, and predictable parts support. This supports demand for dump trucks, mixers, utility vehicles, and specialized chassis rather than only highway tractors.
Electric-truck adoption is broadening where route predictability allows battery capacity to be matched to daily operating needs. Europe recorded more than 10,000 electric-truck sales in 2024, while the United States recorded more than 1,700. Battery pack capacity for heavy-duty BEVs increased by about 70% between 2020 and 2024, although pack costs increased by less than 20%, improving the technical feasibility of longer-range duty cycles. In China, BEV total cost of ownership has reached parity with diesel in some applications, while parity in Europe and the United States is expected closer to 2030.
Safety and driver-assistance technology are becoming a product differentiator in vocational trucks as well as highway vehicles. Mack plans to introduce a comprehensive ADAS suite in a new vocational truck in late 2027 [4]Truck and Bus Builder, Mack to introduce ADAS suite in new vocational truck in late 2027, truckandbusbuilder.com. The expansion of ADAS into vocational duty cycles can increase the value of electronic architecture, sensors, software validation, and maintenance capability within the truck purchase decision.
Key Restraints
The commercial case for electrification remains uneven across truck classes and operating routes. In the United States, diesel total cost of ownership for heavy-duty trucks was estimated to be about 20% lower than BEV total cost of ownership in 2024. Higher vehicle acquisition costs, charging infrastructure requirements, grid-upgrade lead times, and revenue loss from payload limitations can slow adoption, particularly for long-haul and irregular-route fleets.
Hydrogen trucks face a different constraint. Liquid hydrogen can improve range and refueling time, but the economics of production, distribution, storage, and station deployment remain dependent on coordinated infrastructure investment. This limits FCEV adoption outside corridors or depot networks where fuel availability can be contracted with greater certainty. Hydrogen platforms may be technically attractive for long-haul freight, but their addressable market will be paced by fuel-system deployment rather than vehicle availability alone.
Regulatory pressure can also create uneven regional demand. Compliance rules encourage fleet renewal, but smaller operators may defer purchases when the upfront cost of compliant equipment rises faster than freight rates or access to finance. Manufacturers must therefore balance emissions technology investment with products that preserve operating economics for independent and mid-sized fleets.
GMI Analyst View
The principal constraint is not a lack of truck technology; it is the mismatch between technology readiness and fleet operating conditions. Battery-electric platforms have the strongest near-term case in recurring, depot-based service, whereas long-distance and high-payload operations still place a premium on diesel's established fuel network and operating flexibility. Manufacturers that treat electrification as a duty-cycle-specific offering rather than a universal replacement strategy are better positioned to protect volume during the transition.
Regulation is likely to raise the cost of delaying product development, but it does not remove the buyer's need for predictable uptime. Compliance-driven replacement demand can benefit suppliers with efficient combustion platforms, electric vehicles, and service infrastructure simultaneously. The commercial advantage will accrue to companies that reduce transition risk for fleets through charging support, financing, maintenance coverage, and residual-value confidence.
Trucks Market Segment Analysis
By Class
Class 8 trucks generated USD 269.39 billion in 2025 and are projected to reach USD 483.31 billion by 2035. Their large value base reflects use in long-haul freight, construction, mining, and other high-payload applications. The segment's 6.6% CAGR is below the overall market rate because it starts from a mature installed base, but its absolute value expansion remains substantial. Heavy-duty purchasers prioritize powertrain reliability, payload capability, fuel efficiency, and access to service networks, which favors established manufacturers with broad dealer coverage.
Class 3 is projected to expand from USD 55.09 billion in 2025 to USD 139.50 billion by 2035, or about a 10.0% CAGR. This class benefits from retail distribution, e-commerce fulfillment, municipal services, and urban freight operations, where vehicles travel shorter routes and return to a common depot. Those conditions also make Class 3 among the more practical settings for BEV adoption.
Class 4 and Class 6 are smaller but faster-growing categories, expected to increase from USD 5.12 billion and USD 7.46 billion in 2025 to USD 12.05 billion and USD 18.07 billion by 2035, respectively. These classes serve specialized distribution, utility, municipal, and vocational uses. Their operating patterns can support technology adoption where daily mileage and payload requirements are sufficiently defined.
Class 5 is expected to rise from USD 31.29 billion in 2025 to USD 69.75 billion by 2035, while Class 7 is forecast to increase from USD 32.54 billion to USD 69.92 billion. Class 5 benefits from regional distribution and service fleets, whereas Class 7 bridges medium-duty operations and heavier vocational applications. The slower projected growth of Class 7 reflects its exposure to applications where buyers may either downsize to lighter, more efficient platforms or move to Class 8 equipment when payload requirements increase.
By Propulsion/Fuel
ICE trucks are forecast to grow from USD 371.86 billion in 2025 to USD 714.92 billion by 2035. Diesel remains central to heavy-duty freight because of energy density, established fueling infrastructure, and extensive maintenance familiarity. Gasoline maintains relevance in lighter commercial applications, while natural gas can serve selected fleets with centralized fueling and emissions objectives. ICE demand will increasingly depend on the ability of manufacturers to meet emissions requirements without materially weakening vehicle economics.
BEV trucks are projected to expand from USD 17.44 billion in 2025 to USD 47.56 billion by 2035 at a 10.8% CAGR. Their strongest early applications are urban delivery, regional hauling, and return-to-base operations. China's dominant share of global electric-truck sales illustrates the importance of policy, local supply chains, and highly repeatable commercial routes in making electric platforms viable.
HEV trucks are expected to increase from USD 8.61 billion in 2025 to USD 21.40 billion by 2035. Hybrid systems can provide an intermediate option for fleets seeking fuel-efficiency improvements without relying entirely on external charging infrastructure. Their role is likely to be strongest where stop-start duty cycles and emissions requirements justify additional powertrain complexity.
FCEV trucks are projected to increase from USD 2.98 billion in 2025 to USD 8.72 billion by 2035, the highest CAGR among propulsion categories at 11.2%. The segment's growth begins from a low base and depends on hydrogen availability. Daimler Truck's NextGenH2 program illustrates the long-haul proposition: the vehicle is designed for more than 1,000 km of range and refueling in 10–15 minutes using liquid hydrogen [5]Daimler Truck, Daimler Truck presents Mercedes-Benz NextGenH2 Truck, daimlertruck.com.
By Transmission
AMT represented USD 158.93 billion in 2025 and is forecast to reach USD 340.82 billion by 2035. The category combines automated shifting with the efficiency architecture of manual gearsets, making it attractive in freight and vocational applications where driver comfort and fuel management are important. Its 8.2% CAGR indicates that fleets are placing greater value on repeatable driving performance and reduced driver fatigue.
Manual transmission trucks are expected to grow from USD 142.62 billion in 2025 to USD 245.70 billion by 2035. Manual systems retain importance in price-sensitive markets and applications where repair familiarity and lower initial costs influence procurement. Automatic transmission trucks are forecast to rise from USD 99.34 billion to USD 206.07 billion. Their faster growth relative to manual systems reflects demand for easier operation in congested urban driving, delivery routes, and fleets seeking to broaden the pool of eligible drivers.
By Autonomy Level
Level 0 trucks accounted for USD 223.43 billion in 2025 and are projected to reach USD 389.16 billion by 2035. Conventional vehicles will remain the largest autonomy category because most global fleets continue to operate without advanced automated driving capability. Level 1 systems are expected to expand from USD 127.49 billion to USD 259.97 billion as driver-assistance functions become more widely integrated into commercial vehicles.
Level 2 is projected to grow from USD 43.00 billion in 2025 to USD 116.48 billion by 2035, supported by demand for coordinated assistance features that can improve driver workload management and safety. Level 3 is forecast to rise from USD 6.98 billion to USD 19.02 billion, but its deployment will depend on legal frameworks, validation requirements, and clearly defined operating domains.
Level 4 is expected to emerge from 2027 and reach USD 7.93 billion by 2035. The segment is likely to be concentrated initially in controlled routes, hubs, or repetitive commercial operations where the operating environment can be constrained. Level 5 remains negligible, projected at approximately USD 0.04 billion by 2035, because unrestricted operation across all roads, weather conditions, and freight environments presents a substantially more complex technical and regulatory challenge.
By Application
Logistics and transportation remains the largest application, projected to increase from USD 169.05 billion in 2025 to USD 321.00 billion by 2035. Vehicle uptime, fuel consumption, and service access determine procurement decisions in this segment, making operating economics more important than headline technology claims.
Construction and infrastructure is expected to grow from USD 113.59 billion to USD 214.00 billion. Demand is tied to capital-project cycles and requires durable vocational configurations that can operate in variable terrain and high-load conditions. Mining is projected to rise from USD 49.01 billion to USD 103.04 billion, reflecting the specialized, high-value nature of haulage operations and the importance of equipment reliability in remote locations.
Retail and e-commerce is forecast to expand from USD 40.04 billion to USD 106.21 billion. Its high growth rate is consistent with the need for dense delivery networks and vehicles suited to frequent starts, stops, and depot returns. Agriculture and forestry is expected to rise from USD 20.42 billion to USD 33.29 billion, constrained by seasonal demand and rugged operating conditions that favor robust conventional equipment. The others category is projected to grow from USD 8.77 billion to USD 15.06 billion, encompassing specialized uses that do not fit the major application groups.
GMI Analyst View
Segment growth is separating according to route structure and asset economics. Class 3, retail and e-commerce, BEV, and Level 2 categories are expanding faster because urban and regional fleets can better define routes, charging windows, and vehicle utilization. In contrast, Class 8, logistics, construction, and mining remain the largest pools because they carry the highest payload and uptime requirements, even where electrification is technically progressing.
Transmission and autonomy trends reveal a broader shift toward making truck operation more repeatable. AMT and automatic systems reduce driver effort and can standardize performance across fleets, while Level 1 and Level 2 assistance technologies provide commercially deployable improvements without requiring the legal and technical leap associated with higher autonomy. Suppliers that align these systems with specific work cycles, rather than selling them as generic technology upgrades, can capture value across both conventional and zero-emission platforms.
Trucks Market Regional Analysis
Asia Pacific
Asia Pacific was the largest regional market, valued at USD 197.20 billion in 2025, and is projected to reach USD 398.67 billion by 2035. China alone represented USD 128.49 billion in 2025. The region's scale reflects industrial freight, manufacturing supply chains, construction activity, and the rapid development of electric commercial vehicles. China's share of more than 80% of global electric-truck sales in 2024 gives its manufacturers a material learning advantage in battery integration, fleet deployment, and localized supply chains. India, Japan, South Korea, Australia, Indonesia, Malaysia, Vietnam, and the Philippines add differentiated demand through infrastructure development, port activity, industrial distribution, resource transport, and urban delivery.
North America
North America is projected to increase from USD 94.72 billion in 2025 to USD 201.32 billion by 2035, at an 8.1% CAGR. The United States accounted for USD 82.30 billion in 2025, while Canada represented USD 12.42 billion. U.S. demand is supported by long-haul freight, construction activity, and a large replacement market. Clean Trucks Plan requirements for model year 2027 and later vehicles are expected to accelerate investment in compliant ICE and zero-emission truck platforms. Canada's market is shaped by cross-border freight, resource-industry activity, and the need for equipment able to operate across long distances and severe weather conditions.
Europe
Europe was valued at USD 69.44 billion in 2025 and is expected to reach USD 120.47 billion by 2035. Germany represented USD 14.96 billion, Spain USD 6.94 billion, and the rest of Europe USD 47.54 billion. Germany remains an important commercial-vehicle manufacturing and fleet market; the VDA forecast heavy-truck registrations above 16 tonnes to increase 9% in 2026, with medium trucks between 6 and 16 tonnes also expected to rise 9% [6]Autofox News, VDA: New commercial vehicle market in Germany to grow in 2026, autofoxnews.com. The UK, France, Italy, Spain, Russia, Switzerland, the Netherlands, and Poland collectively provide demand across urban logistics, cross-border freight, industrial transport, construction, and agricultural applications. European truck buyers face a tighter regulatory environment, which supports demand for fuel-efficient vehicles, electric trucks, and safety technologies while increasing the importance of charging access and total-cost planning.
Latin America
Latin America is projected to increase from USD 25.93 billion in 2025 to USD 45.97 billion by 2035. Mexico accounted for USD 8.11 billion in 2025 and benefits from industrial integration with North American manufacturing and freight networks. Mexico produced 4 million vehicles in 2024, ranking as the fifth-largest vehicle exporter globally, with automotive exports valued at USD 193.9 billion representing 31.4% of total exports [7]Mexecution, Mexico's Automotive Manufacturing Power: 2025 Industry Outlook, mexecution.com. USMCA trade framework incentivizes regional sourcing, offering duty-free exports for compliant goods and providing a predictable tariff environment. Brazil, Argentina, and Chile contribute demand through agricultural transport, mining, construction, consumer-goods distribution, and cross-border logistics.
Middle East and Africa
The Middle East and Africa market was valued at USD 13.61 billion in 2025 and is forecast to reach USD 26.16 billion by 2035. South Africa represented USD 3.50 billion, with the rest of the region accounting for USD 10.11 billion. South Africa's mining, agricultural, and distribution activity supports demand for heavy-duty and vocational vehicles. Saudi Arabia and the UAE add demand through infrastructure investment, logistics hubs, construction, and regional trade routes. Truck procurement across the region is strongly influenced by service reach, durability under demanding operating conditions, and the availability of parts and financing.
GMI Analyst View
Regional growth is shaped by different combinations of freight intensity, regulation, and vehicle-operating conditions. Asia Pacific leads in market value and electric-truck deployment because China combines industrial scale with policy support and localized supply capacity. North America offers the fastest regional growth through 2035, supported by freight demand, infrastructure-related activity, and regulatory replacement cycles, although BEV adoption remains constrained by total-cost and charging considerations.
Europe's commercial opportunity is more closely tied to regulatory compliance and fleet decarbonization planning, while Latin America and MEA place greater weight on vehicle durability, financing, and service accessibility. This divergence limits the viability of a single global product strategy. Manufacturers require regional powertrain portfolios, localized dealer support, and procurement propositions that reflect whether the buyer's central risk is emissions compliance, fuel expense, route coverage, or capital affordability.
Trucks Market Share & Competitive Landscape
The competitive landscape combines global manufacturers with broad product and service portfolios, regional producers with strong local market positions, and emerging companies pursuing specialized powertrain or vehicle solutions. Daimler Truck, Volvo Group, PACCAR, Isuzu Motors, Toyota Group, Dongfeng Motor, Tata Motors Commercial Vehicles, Volkswagen, Ford Motor, and FAW Group form the global-player group. Their competitive position depends on manufacturing scale, distribution networks, product breadth, fleet finance, aftermarket capability, and investment capacity for emissions-control, electric, hydrogen, safety, and connected-vehicle technologies.
Regional competitors include Sinotruk, Hyundai Motors, Ashok Leyland, BYD Auto, Mahindra and Mahindra, SAIC Motor, and Eicher. These companies can compete effectively where domestic production, local supply chains, established dealer networks, and market-specific vehicle configurations shape purchase decisions. Emerging participants Hyliion, Foton Motor, and JAC Motors broaden the competitive field through alternative-powertrain initiatives, targeted commercial-vehicle offerings, and participation in markets where demand is expanding beyond traditional global OEM strongholds.
Daimler Truck held an estimated 5.9% market share in 2025, followed by Isuzu Motors at 5.1%, Sinotruk at 4.8%, Volkswagen at 3.7%, and FAW Group at 3.4%. The top five companies collectively accounted for 22.9%, indicating that the market remains fragmented despite the presence of large multinational truck manufacturers. Fragmentation reflects differing regional regulation, truck classes, distribution channels, and application requirements.
Daimler Truck's NextGenH2 program demonstrates how competitive positioning is extending beyond the vehicle itself. The company plans small-series production of 100 liquid-hydrogen trucks from the end of 2026, with full-series production targeted for the early 2030s. Such initiatives require manufacturers to coordinate powertrain engineering, fuel infrastructure assumptions, vehicle service capability, and funding relationships. Competition will increasingly hinge on which companies can translate these systems into dependable fleet operations rather than merely introduce new drivetrains.
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