1. | EXECUTIVE SUMMARY |
1.1. | Key Report Findings |
1.2. | Light Commercial Vehicles |
1.3. | Emissions Restrictions & Fossil Fuel Bans to Drive eLCV Growth |
1.4. | LCV Sales in Major Markets (ICE vs. EV) |
1.5. | Electric and Diesel LCV Cost Parity |
1.6. | Key eLCV OEMs |
1.7. | Europe eLCV Sales |
1.8. | China eLCV Sales |
1.9. | US eLCV Sales |
1.10. | Depreciation Dominates eLCV TCO |
1.11. | eLCVs Require Purchase Grants To Generate ROI |
1.12. | eLCV Batteries Can Match ICE Performance |
1.13. | Battery Sizes Vary by Region |
1.14. | Fuel Cells LCVs Need Green Hydrogen - But Electricity Will Be Cheaper |
1.15. | Global eLCV Sales Forecast |
1.16. | BEVs To Dominate The Future eLCV Market |
1.17. | Global eLCV Battery Demand Forecast |
1.18. | Global eLCV Market Size Forecast |
2. | INTRODUCTION |
2.1. | Introduction to the LCV Industry |
2.1.1. | Light Commercial Vehicles (LCVs) |
2.1.2. | IDTechEx LCV Segmentation |
2.1.3. | Segments of Land Transportation |
2.1.4. | Regional LCV Sales |
2.2. | Drivers for Electrification |
2.2.1. | Transportation as a Source of Emissions |
2.2.2. | Transport Emissions by Vehicle Segment |
2.2.3. | Urban Air Quality |
2.2.4. | Fossil Fuel Bans |
2.2.5. | Example Fossil Fuel Bans by Region |
2.2.6. | Fuel Price Volatility |
2.2.7. | Last Mile Logistics |
2.2.8. | Road Freight to See Increased Demand |
2.2.9. | Emissions Objectives of Largest e-Commerce Companies |
2.3. | Challenges for eLCVs |
2.3.1. | Range Considerations |
2.3.2. | Total Cost of Ownership |
2.3.3. | Potential for Electric and Diesel LCV Cost Parity |
2.3.4. | IDTechEx Assumptions for Battery Size, Range, and TCO Calculation |
2.3.5. | More Details in IDTechEx's Reports |
3. | ELCV MODEL DATA |
3.1. | Overview of Model Data |
3.2. | Model Data (1) |
3.3. | Model Data (2) |
3.4. | Model Data (3) |
3.5. | Model Data (4) |
3.6. | Model Data (5) |
3.7. | Model Data (6) |
3.8. | Model Data (7) |
3.9. | Model Data (8) |
4. | TOTAL COST OF OWNERSHIP (TCO) |
4.1. | Factors Influencing TCO |
4.1.1. | Regional Variations in Diesel and Electricity Prices |
4.1.2. | eLCVs Reduce Maintenance Costs and Downtime |
4.1.3. | Fleet Lifetimes, Insurance Costs, and Charger Installation Costs |
4.1.4. | Depreciation for LCVs and eLCVs |
4.1.5. | Depreciation and Resale Value |
4.1.6. | Will eLCVs Require Battery Replacements? |
4.2. | TCO Analysis |
4.2.1. | TCO Analysis Example - Small LCV/eLCV (1) |
4.2.2. | TCO Analysis Example - Small LCV/eLCV (2) |
4.2.3. | TCO Analysis Example - Medium LCV/eLCV |
4.2.4. | TCO Analysis Example - Large LCV/eLCV |
4.2.5. | What Makes Up eLCV TCO? |
4.2.6. | Governments and OEMs Providing Purchase Subsidies |
4.2.7. | Subsidies Will Reduce Breakeven Periods for eLCVs |
4.2.8. | Taxation and Emissions Charges for LCVs |
4.2.9. | Emissions Charges Accelerate Viability of eLCVs |
4.2.10. | Varying Emissions Charges |
4.2.11. | Combining Purchase Grants with Emissions Charges |
4.2.12. | TCO Savings for Fleet Operators |
4.3. | Leasing Models and Total Cost of Leasing |
4.3.1. | Commercial Van Leasing vs. Ownership |
4.3.2. | Monthly Leasing Costs |
4.3.3. | TCL Analysis Example - Small LCV/eLCV |
4.3.4. | TCL Analysis Example - Medium and Large LCV/eLCV |
4.3.5. | Emissions Charges Will Make eLCVs the Preferred Leasing Option |
4.3.6. | Comparing TCO and TCL |
4.3.7. | Strengthening Financial Advantages for eLCVs |
5. | ELCVS IN EUROPE |
5.1. | Overview |
5.1.1. | eLCV Sales in Europe |
5.1.2. | eLCVs Sales in Europe Slowing Down in 2024 |
5.1.3. | Key European eLCV OEMs |
5.1.4. | Best Selling eLCVs in Europe |
5.1.5. | EV Adoption Is Not Even Amongst European Countries |
5.1.6. | Diesel Emissions vs Grid Emissions from Charging - Europe |
5.1.7. | Low- and Zero-Emission Zones on The Rise |
5.2. | TCO and TCL in Europe |
5.2.1. | Purchase Grants in Europe |
5.2.2. | Small and Medium eLCV TCO |
5.2.3. | Large eLCV TCO |
5.2.4. | What Does Europe Need to Favor eLCV Ownership? |
5.2.5. | TCO vs. TCL |
5.2.6. | Commentary on Emissions Restrictions in Europe |
5.3. | Models and Case Studies |
5.3.1. | Renault |
5.3.2. | Citroen |
5.3.3. | Citroen eLCV Price Premiums |
5.3.4. | Mercedes |
5.3.5. | IVECO |
5.3.6. | Fiat |
5.3.7. | Compact Utility Vehicles |
6. | ELCVS IN CHINA |
6.1. | Overview |
6.1.1. | New Energy LCV Sales |
6.1.2. | Leading NEV Commercial Vehicle OEMs |
6.1.3. | Market Entry of Key Chinese OEMs |
6.1.4. | Electrification in China & The Double Carbon Policy |
6.1.5. | Emissions from Diesel vs Electricity in China |
6.2. | TCO and TCL in China |
6.2.1. | Chinese Government Subsidizing NEV Commercial Vehicles |
6.2.2. | eLCV TCO in China |
6.2.3. | What Do eLCVs in China Need to Succeed? |
6.2.4. | Total Cost of Leasing Comparison |
6.3. | Models and Case Studies |
6.3.1. | Geely and Farizon |
6.3.2. | Foton |
6.3.3. | BYD |
6.3.4. | Karry |
6.3.5. | Chery Pelkan |
7. | ELCVS IN THE US |
7.1. | Overview |
7.1.1. | US eLCV Sales |
7.1.2. | US Market Entry |
7.1.3. | Most Popular US eLCV Models |
7.1.4. | US eLCV Development Driven by E-Commerce & Delivery Companies |
7.1.5. | Diesel vs. Electricity Emissions - US Grid |
7.2. | TCO and TCL in the US |
7.2.1. | Key Differences in US LCV Design and Operation |
7.2.2. | EV Grants and Subsidies in the US |
7.2.3. | TCO in the US |
7.2.4. | What Do eLCVs in the US Need to Succeed? |
7.2.5. | TCL in the US |
7.3. | Models and Case Studies |
7.3.1. | Ford E-Transit |
7.3.2. | Rivian EDV Series |
7.3.3. | Chevrolet Brightdrop/Brightdrop Zevo 400 & 600 |
7.3.4. | RAM Promaster EV |
8. | ELCVS IN THE ROW |
8.1. | Overview |
8.1.1. | Global OEM Presence in RoW Regions |
8.1.2. | Market Entry of RoW OEMs |
8.1.3. | Japan eLCV Sales |
8.1.4. | Korea eLCV Sales |
8.1.5. | India eLCV Sales |
8.1.6. | eLCV Sales in Other RoW Markets |
8.1.7. | Total Sales in RoW Markets |
8.1.8. | Diesel vs. EV Global Average Emissions |
8.2. | TCO and TCL in RoW |
8.2.1. | Grants and Subsidies in RoW Regions |
8.2.2. | TCO for RoW Regions |
8.2.3. | What Measures Will Move TCO Into eLCVs' Favor |
8.2.4. | TCL for RoW Regions |
8.3. | Models and Case Studies |
8.3.1. | Hyundai Porter 2 Electric |
8.3.2. | Nissan |
8.3.3. | Toyota Proace Electric |
8.3.4. | Mitsubishi |
8.3.5. | Switch Mobility IeV3 & IeV 4 |
9. | BATTERIES FOR ELCVS |
9.1. | Battery Technologies and Sizing |
9.1.1. | Lithium Battery Chemistries |
9.1.2. | Key Differences Between Battery Technologies |
9.1.3. | Li-ion Battery Performance Comparisons of Typical Technology Options |
9.1.4. | Battery Chemistries in eLCVs |
9.1.5. | Battery Size Requirements for eLCVs |
9.1.6. | eLCV Batteries Are More Than Big Enough for Operation |
9.1.7. | Battery Size by Region |
9.2. | Supplier Case Studies and Relationships |
9.2.1. | Stellantis |
9.2.2. | GM Ultium Platform |
9.2.3. | CATL and Tianxing |
9.2.4. | Known Supplier Relationships for eLCVs (1) |
9.2.5. | Known Supplier Relationships for eLCVs (2) |
9.2.6. | Known Supplier Relationships for eLCVs (3) |
9.2.7. | Known Supplier Relationships for eLCVs (4) |
9.2.8. | Li-ion Batteries and Battery Management Systems for Electric Vehicles 2024-2034 |
10. | MOTORS FOR ELCVS |
10.1.1. | Summary of Traction Motor Types |
10.1.2. | Comparison of Traction Motor Construction |
10.1.3. | ZF Preferred Electric Drivetrain Architecture |
10.1.4. | Evolution of Motor Power |
10.1.5. | eLCV Motors Match ICE Performance |
10.1.6. | PM Motors Are Dominant Worldwide |
10.1.7. | Known Tier 1 Relationships for eLCVs |
10.1.8. | OEMs Moving Motor Development In-House |
10.1.9. | Electric Motors for Electric Vehicles 2025-2035: Technologies, Materials, Markets, and Forecasts |
11. | PLUG-IN HYBRID LCVS |
11.1. | PHEV Overview |
11.1.1. | Primary Advantages of PHEVs |
11.1.2. | Primary Barriers of PHEVs |
11.1.3. | Comparing TCO: ICE vs PHEV vs BEV (1) |
11.1.4. | Comparing TCO: ICE vs PHEV vs BEV (2) |
11.1.5. | PHEV Carbon Emissions |
11.1.6. | IDTechEx's Outlook on Plug-In Hybrid LCVs |
11.2. | PHEV Models & Case Studies |
11.2.1. | Ford Transit Custom PHEV |
11.2.2. | LEVC VN5 |
11.2.3. | Car-Derived PHEVs |
12. | FUEL CELL LCVS |
12.1. | FCEV Overview |
12.1.1. | Attraction of Fuel Cell Vehicles |
12.1.2. | Deployment Barriers of Fuel Cell Vehicles |
12.1.3. | Colors of Hydrogen |
12.1.4. | Fuel Cells for Green LCVs Need Green Hydrogen |
12.1.5. | BEV vs. FCEV Efficiency |
12.1.6. | Green Hydrogen Cost Reduction |
12.1.7. | Cost Comparisons (1): Hydrogen vs Diesel |
12.1.8. | Cost Comparisons (2): Hydrogen vs Electricity |
12.1.9. | Do Fleets Need FCEVs? |
12.1.10. | Japanese & Korean OEMs Moving Towards BEV eLCVs |
12.1.11. | BEV and FCEV Comparison |
12.2. | FCEV Models & Case Studies |
12.2.1. | Vauxhall Vivaro & Movano Hydrogen - and Future Stellantis FCEVs |
12.2.2. | Hyvia-Renault Master H2-Tech |
12.2.3. | First Hydrogen |
12.2.4. | Hydrogen Toyota Hilux Prototype |
12.2.5. | Previous Attempts at Fuel Cell LCVs |
12.2.6. | Isolated Developments in Hydrogen-Combustion LCVs |
12.2.7. | IDTechEx's Outlook on Fuel Cell LCVs |
12.2.8. | Fuel Cell Electric Vehicles 2024-2044: Markets, Technologies, Forecasts |
13. | FORECASTS |
13.1. | Forecast Methodology - Total Addressable LCV Market |
13.2. | Forecast Methodology - eLCVs |
13.3. | Forecast Assumptions |
13.4. | Global eLCV Sales Forecast by Region |
13.5. | Global eLCV Sales Forecast by Powertrain |
13.6. | Europe eLCV Sales Forecast by Powertrain |
13.7. | China eLCV Sales Forecast by Powertrain |
13.8. | US eLCV Sales Forecast by Powertrain |
13.9. | RoW eLCV Sales Forecast by Powertrain |
13.10. | eLCV Battery Demand Forecast by Region |
13.11. | eLCV Battery Demand Forecast by Powertrain |
13.12. | eLCV Fuel Cell Forecast by Region |
13.13. | eLCV Market Size Forecast by Region |
13.14. | eLCV Market Size Forecast by Powertrain |