Countries across the world are moving toward a low-carbon economy. Electric vehicle adoption is gaining traction as a part of this shift, with rapid penetration expected beyond 2025 as the market for EV adoption matures and more EVs become available for commercial sale.
In Europe, the transition to zero-emission vehicles is an important element of the low-emission mobility strategy. City administrative bodies and local authorities play pivotal roles in this transition by providing incentives for low-emission vehicles and deploying charging infrastructure. Government incentives and programs, such as the electromobility directive from Germany, electric charging funding in France, and the Efficient and Sustainable Mobility Incentives (MOVES) II program in Spain, will drive electrification and the growth of charging infrastructure.
OEMs are focusing on urban distribution, refuse, and regional haul as strong use cases for electrification. Battery energy density and cycle life are expected to increase even as costs reduce with the likely commercialization of solid-state lithium and lithium-sulfur technology after 2027. Fuel cell technology is progressively getting better at power density and durability.
Crude oil price fluctuations and lower maintenance costs will strongly favor the total cost of ownership of electric trucks as battery prices are expected to decline significantly after 2025. Lower cost of ownership with attractive leasing options for batteries and trucks and greater access to charging infrastructure will encourage smaller fleets to shift to electric vehicles.
The study covers the commercial vehicle (CV) market, particularly HD CV: Greater than 16 tons GVWR. The study also provides a total cost of ownership analysis to examine the effect of these factors on the electric MD and HD segments.
Author: Saideep Sudhakar
The Impact of the Top Three Strategic Imperatives on the Electric Trucks
Transformative Mega Trends
- Why: The transition from fossil fuel-based automotive powertrains to low-emission or zero emission powertrains is accelerating.Automakers are exploring sustainable and renewable energy sources.Faster transition is a major economic goal for several countries as they strive to achieve a cleaner and safer environment.
- Frost Perspective: Electrification can replace conventional energy sources, such as coal and petroleum products.With supportive regulations and investments, electrification has already taken off, with commercial electric vehicles (EVs) expected to consume an estimated 100TWh of electricity by 2030.
Disruptive Technologies
- Why: Technology innovation is a key enabler of the transformation of the commercial vehicle (CV) industry.Advanced drivetrain architecture, nonpermanent magnet motors, and new battery chemistries will drive the progress of CV electrification.
- Frost Perspective: As the CV industry progresses, Tier I suppliers will begin to play a crucial role because of their ability to integrate electric technology in vehicles. Axle electrification evolves as manufacturers explore choices as part of the portfolio transition phase and for new-concept vehicles. As motor technology advances, axle architecture will be preferred while central drive architecture will decline, which is the prominent technology choice for most OEMs during the initial transition phase.
Industry Convergence
- Why: Legacy companies with high-polluting diesel truck portfolios and dominant market shares monopolize the trucking industry because range anxiety and high-cost batteries make it difficult for them to shift to a zero emission portfolio.Utility companies, oil companies, and original equipment manufacturers (OEMs) are developing charging capabilities and eliminating range anxiety to increase electric powertrain adoption.
- Frost Perspective: Component suppliers and vehicle manufacturers will begin to focus on value chain integration and capability expansion.The diverse dynamics of vehicle ownership, including maintenance, performance, and operation, across different technology platforms will impact consumer preferences. These changes are expected to converge around specific nodes of vehicle platform development.
Research Scope
- Base Year: 2022
- Study Period: 2022–2030
- Forecast Period: 2023–2030
- Market/Segment/Program Area:
- Powertrain Type: Battery Electric Vehicle
- The study covers the CV market across the following sectors:
- HD CV: Greater than 16 tons GVWR
- Energy consumption for HD trucks at charger level is also covered from 50kW to 1MW.
- Total HDT Lifecycle CO2 Emissions Assessment included in study.
- Geographic Scope: Europe: Germany, France, UK, Italy, Spain, RoE
Growth Drivers
- Emission Regulations to Drive EV Adoption: The transportation sector is responsible for more than half of carbon monoxide and nitrogen oxide and almost a quarter of hydrocarbon emissions.
Many countries focus on strengthening greenhouse gas emission regulations to reduce tailpipe pollutants, and governments promote renewable energy sources because automobiles consume roughly 60% of global fossil fuels.
- Improved Total Cost of Ownership (TCO): With the anticipated reduction in the purchase costs of EVs and electric vehicle supply equipment (EVSE), the smaller price gap compared to internal combustion engine (ICE) vehicles will be offset by savings on fuel and maintenance. Low electricity costs, when compared to continuously increasing fuel prices, will make EVs more economically viable. On a TCO basis, the running cost of a commercial EV will soon be lower than that of ICE vehicles.
- Increasing Global Adoption Enabling Economies of Scale: The introduction and adoption of EVs in major global economies such as Europe, NA, China, and Latin America has helped advance global sourcing and supply chain and factory line production. It has facilitated the proliferation of duty-cycle-focused technologies, which are benefiting from global adoption and enabling technology maturity and price declines.
- Technology Readiness: Increased battery R&D aims to improve battery capacity and density, giving EVs better ranges through high-energy-density or solid-state lithium batteries. Ultrafast DC charging stations of more than 350 kW that reduce charging times will require minimal development.
Growth Restraints
| Restraint |
|---|
| High Capital Investment: Extensive investments are necessary to construct DC fast-charging stations to charge high-capacity batteries. Despite many OEMs and governments investing in charging capabilities, utilization will be low because of the lower EV sales volume forecast for the short term. |
| Low EV Adoption due to Range Anxiety and Long Charging Duration: Ultrafast charging technology is not available across countries, hindering electric truck adoption. The charging duration at Level 2 charging stations is long and only suits trucks that opt for overnight charging or charging over long periods of time. The lower electric powertrain adoption in MDTs and HDTs may affect charging station operator revenue. |
| Market Viability: As internal combustion engines currently have the majority penetration in trucks, EV disruption could impact the whole supply chain and the federal revenue from fuel tax. How regulators handle this disruption will impact its adoption. Taxes on charging infrastructure and the power supplied may come into existence and affect long-term competitiveness of EVs. |
| Pricing: As EV adoption expands, lithium-ion has become the new oil. Electric trucks will benefit from the volume of scale that electric passenger cars achieved. The rise in demand for rare earth metals (used in motors) may also impede EV affordability. Hence, the shift to non-heavy-earth-dependent induction or switched reluctance motors would be vital. |
Why Is It Increasingly Difficult to Grow?
The Strategic Imperative 8™
The Impact of the Top Three Strategic Imperatives on the Electric Trucks
Growth Opportunities Fuel the Growth Pipeline Engine™
Key Trends Influencing the Growth of Electric Trucks
Electric MD-HD Trucks: Regional Contribution
OEM Electrification Application Focus
Research Scope
Segmentation
Growth Metrics
Growth Drivers
Growth Restraints
Forecast Criteria
HD Sales Forecast by Region, Europe
Main Factors Impacting Electrification
Impact Analysis: Legislative Factors
Impact Analysis: Economic Factors
Impact Analysis: Economic Factors (continued)
Impact Analysis: Infrastructure Factors
Impact Analysis: Technological Factors
Electrification Use Cases for HD Electric Trucks
Sales and Electric Vehicle Penetration Forecast
Unit Shipment Forecast
Powertrain Split Forecast for HD Trucks
Energy Consumption Forecast
Revenue Forecast for HD Electric Trucks, Europe
Motor Type Mapping by OEM
Battery Capacity Mapping by OEM Model
Growth Metrics
Unit Shipment Forecast
Energy Consumption Forecast
Forecast Analysis
Growth Metrics
Unit Shipment Forecast
Energy Consumption Forecast
Forecast Analysis
Growth Metrics
Unit Shipment Forecast
Energy Consumption Forecast
Forecast Analysis
Growth Metrics
Unit Shipment Forecast
Energy Consumption Forecast
Forecast Analysis
Growth Metrics
Unit Shipment Forecast
Energy Consumption Forecast
Forecast Analysis
DAF Trucks N.V: Strategy and Development Roadmap
AB Volvo: Strategy and Development Roadmap
Renault Trucks: Strategy and Development Roadmap
Daimler Truck AG: Strategy and Development Roadmap
IVECO S.p.A: Strategy and Development Roadmap
Traton-MAN: Strategy and Development Roadmap
Traton-Scania: Strategy and Development Roadmap
TCO Analysis: Key Assumptions
Total Cost of Ownership
HDT Operational Characteristics and User Cycle Overview
Total HDT Lifecycle CO2 Emissions Assessment
Growth Opportunity 1: Dedicated Electric Platform Development
Growth Opportunity 1: Dedicated Electric Platform Development (continued)
Growth Opportunity 2: Electric Charging Infrastructure
Growth Opportunity 2: Electric Charging Infrastructure (continued)
Growth Opportunity 3: Value-added Services
Growth Opportunity 3: Value-added Services (continued)
Abbreviations and Acronyms Used
Your Next Steps
Why Frost, Why Now?
List of Exhibits
List of Exhibits (continued)
List of Exhibits (continued)
Legal Disclaimer
- Electric Trucks: Regional Contribution to Global Sales, Europe, 2022–2030
- HD Electric Truck: Electrification Application Focus of OEMs in Europe, 2022–2023
- HD Electric Trucks: Key Growth Metrics, Europe, 2022
- HD Electric Trucks: Growth Drivers, Europe, 2023–2030
- HD Electric Trucks: Growth Restraints, Europe, 2023–2030
- HD Electric Trucks: Sales Forecast by Region, Europe, 2022 and 2030
- Impact of Global Legislation on Electrification, 2022–2030
- Impact of Global Economics on Electrification, 2022–2030
- Impact of Global Infrastructure Projects on Electrification, 2022–2030
- Impact of Global Technology on Electrification, 2022–2030
- HD Electric Trucks: HD Truck Sales and BEV Penetration Forecast, Europe, 2022–2030
- HD Electric Trucks: Unit Shipment Forecast, Europe, 2022–2030
- HD Electric Trucks: HD Powertrain Split Forecast, Europe, 2022 and 2030
- HD Electric Trucks: Total Required Energy for HDT Parc, Europe, 2022–2030
- HD Electric Trucks: Revenue Forecast, Europe, 2022–2030
- HD Electric Truck: OEM Motor Mapping, Europe, 2022–2023
- HD Electric Truck: OEM Battery Capacity Mapping, Europe, 2022–2023
- HD Electric Trucks: Growth Metrics, Germany, 2022
- Electric Trucks: HD Electric Trucks Unit Shipment Forecast, Germany, 2022–2030
- HD Electric Trucks: Total Required Energy for HDT Parc, Germany, 2022–2030
- HD Electric Trucks: Growth Metrics, France, 2022
- HD Electric Trucks: Unit Shipment Forecast, France, 2022–2030
- HD Electric Trucks: Total Required Energy for HDT Parc, France, 2022–2030
- HD Electric Trucks: Growth Metrics, Italy, 2022
- HD Electric Trucks: Unit Shipment Forecast, Italy, 2022–2030
- HD Electric Trucks: Total Required Energy for HDT Parc, Italy, 2022–2030
- HD Electric Trucks: Growth Metrics, Spain, 2022
- HD Electric Trucks: HD Electric Trucks Unit Shipment Forecast, Spain, 2022–2030
- HD Electric Trucks: Total Required Energy for HDT Parc, Spain, 2022–2030
- HD Electric Trucks: Growth Metrics, UK, 2022
- HD Electric Trucks: Unit Shipment Forecast, UK, 2022–2030
- HD Electric Trucks: Total Required Energy for HDT Parc, UK, 2022–2030
- Electric Trucks: HD Long Haul TCO Forecast, Europe, 2022–2030
- HD Electric Trucks: Operational Characteristics and User Cycle Overview, Europe, 2023-2030
- HD Electric Truck: Total Lifecycle CO2 Emissions Assessment — Diesel vs. BEV, Europe, 2023–2035
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| Deliverable Type | Market Research |
|---|---|
| Author | Saideep Sudhakar |
| Industries | Automotive |
| No Index | No |
| Is Prebook | No |
| Keyword 1 | electric trucks on the market |
| Keyword 2 | electric vehicle market |
| Keyword 3 | Electric Truck Market Forecast |
| List of Charts and Figures | Electric Trucks: Regional Contribution to Global Sales, Europe, 2022–2030~ HD Electric Truck: Electrification Application Focus of OEMs in Europe, 2022–2023~ HD Electric Trucks: Key Growth Metrics, Europe, 2022~ HD Electric Trucks: Growth Drivers, Europe, 2023–2030~ HD Electric Trucks: Growth Restraints, Europe, 2023–2030~ HD Electric Trucks: Sales Forecast by Region, Europe, 2022 and 2030~ Impact of Global Legislation on Electrification, 2022–2030~ Impact of Global Economics on Electrification, 2022–2030~ Impact of Global Infrastructure Projects on Electrification, 2022–2030~ Impact of Global Technology on Electrification, 2022–2030~ HD Electric Trucks: HD Truck Sales and BEV Penetration Forecast, Europe, 2022–2030~ HD Electric Trucks: Unit Shipment Forecast, Europe, 2022–2030~ HD Electric Trucks: HD Powertrain Split Forecast, Europe, 2022 and 2030~ HD Electric Trucks: Total Required Energy for HDT Parc, Europe, 2022–2030~ HD Electric Trucks: Revenue Forecast, Europe, 2022–2030~ HD Electric Truck: OEM Motor Mapping, Europe, 2022–2023~ HD Electric Truck: OEM Battery Capacity Mapping, Europe, 2022–2023~ HD Electric Trucks: Growth Metrics, Germany, 2022~ Electric Trucks: HD Electric Trucks Unit Shipment Forecast, Germany, 2022–2030~ HD Electric Trucks: Total Required Energy for HDT Parc, Germany, 2022–2030~ HD Electric Trucks: Growth Metrics, France, 2022~ HD Electric Trucks: Unit Shipment Forecast, France, 2022–2030~ HD Electric Trucks: Total Required Energy for HDT Parc, France, 2022–2030~ HD Electric Trucks: Growth Metrics, Italy, 2022~ HD Electric Trucks: Unit Shipment Forecast, Italy, 2022–2030~ HD Electric Trucks: Total Required Energy for HDT Parc, Italy, 2022–2030~ HD Electric Trucks: Growth Metrics, Spain, 2022~ HD Electric Trucks: HD Electric Trucks Unit Shipment Forecast, Spain, 2022–2030~ HD Electric Trucks: Total Required Energy for HDT Parc, Spain, 2022–2030~ HD Electric Trucks: Growth Metrics, UK, 2022~ HD Electric Trucks: Unit Shipment Forecast, UK, 2022–2030~ HD Electric Trucks: Total Required Energy for HDT Parc, UK, 2022–2030~ Electric Trucks: HD Long Haul TCO Forecast, Europe, 2022–2030~ HD Electric Trucks: Operational Characteristics and User Cycle Overview, Europe, 2023-2030~ HD Electric Truck: Total Lifecycle CO2 Emissions Assessment — Diesel vs. BEV, Europe, 2023–2035~ |
| Podcast | No |
| WIP Number | PF4C-01-00-00-00 |
Growth Opportunities in European Heavy-duty Electric Trucks
EV Adoption in Regional Haulage to Ensure Future Growth Potential of HD Electric Truck Sales
23-Feb-2024
Europe
Market Research



