【思略特】2024年全球卡车研究报告电池电动卡车正在崛起_37页_2mb

Summary of "Battery-electric Trucks on the Rise" (Truck Study 2024)

Core Content

The document outlines the current and future trajectory of battery-electric trucks (BETs) in the global transportation and logistics sector. It highlights that regulatory pressures and customer demand are driving the transition to electrification in commercial vehicles, with a focus on battery technology, powertrain efficiency, and charging infrastructure. The key message is that the next phase of eMobility transformation will be determined by the development of specialized BET platforms that meet diverse use cases and customer needs.

Main Views and Key Information

1. Regulatory and Customer Requirements

• Regulatory Drivers: EU regulations aim to reduce new fleet emissions by at least 90% by 2040 and up to 45% by 2030, pushing for decarbonization and electrification.
• Customer Needs: Diverse use cases require varying levels of range and charging speed. BET platforms must be flexible to meet these needs.
• Global Emission Regulations:
  • EU has average emission limits.
  • China has the mildest.
  • US has the strictest.
• Regulatory Pressure: Electrification is enforced from 2030 onwards.

2. Powertrain Technology

• New BET Generations:
  • First line-haul and long-haul trucks are entering the market.
  • These vehicles are more usable for daily operations and can handle long distances.
• eDrive Configurations:
  • Central motor: Similar to ICE, but with mechanical losses.
  • Axle-integrated motor: Offers better efficiency and performance with direct power transmission.
• Efficiency Focus: eDrive efficiency is a major factor in TCO and operational cost.
• Power Requirements: Up to 600 kW for heavy-duty trucks and 400 kW for line-haul applications.
• Technological Diversification: Different eDrive and battery technologies are being developed for various applications.

3. TCO Analysis

• TCO Drivers:
  • Energy costs (electricity and charging infrastructure) are the primary TCO drivers.
  • Depreciation, maintenance, and financing are secondary factors.
• BET vs. ICE TCO:
  • BETs are expected to outperform ICE in TCO from 2025 onwards.
  • Energy cost differences can flip the TCO advantage of BET towards ICE if charging prices exceed 38 ct/kWh.
• Cost Components:
  • Battery cost is the main cost driver.
  • Powertrain costs constitute ~35% of the total BET price.
  • Battery costs make up ~90% of the powertrain cost.
• Leasing as a Solution:
  • Leasing can reduce the investment burden and facilitate BET adoption.
  • Leasing models help externalize residual value and maintenance risks.

4. Market Development

• Market Share Projections:
  • By 2030, more than 20% of transportation will be electrified.
  • BETs are expected to reach a market share of ~25% by 2040.
• Battery Demand:
  • Global battery demand for BETs is projected to surpass 400 GWh in 2030 and reach over 1,700 GWh in 2040.
  • BETs will account for ~13% of automotive battery cell demand in 2030, growing to 25% by 2040.
• Use Case Segmentation:
  • Long-haul, line-haul, and distribution are the most significant in terms of emissions and mileage.
  • Distribution and urban buses are expected to be early adopters of BET technology.

5. Transition Elements

• Infrastructure Development:
  • Charging infrastructure is critical for BET adoption.
  • Depot charging (CCS) offers cost and utilization advantages.
  • Public charging (MCS) is needed for broader coverage.
• Charging Price Sensitivity:
  • For BETs to be competitive, charging costs must be below 38 ct/kWh.
  • CCS charging is feasible at utilization >7%, while MCS requires >17%.
• Cross-Industry Collaboration:
  • Regulatory, automotive, energy, and logistics sectors need to work together.
  • Financial services play a key role in facilitating the transition.

Recommendations

• Platform Diversification: Develop BET platforms that can meet the specific needs of various use cases.
• Battery Innovation: Focus on improving battery performance, including cycle stability, energy density, and cost efficiency.
• Charging Infrastructure: Invest in both depot and public charging to support the growing BET market.
• Cell Chemistry Optimization:
  • NMC and L(M)FP are expected to dominate due to their energy density and performance.
  • LFP will remain significant due to its cost and lifetime benefits.
  • Sodium chemistry (Na-lon) could be suitable for short-range and medium-duty applications.
• TCO Management:
  • Energy cost reduction is crucial for BET competitiveness.
  • Leasing models can help small- and mid-sized companies overcome initial investment challenges.
• Operational Model Adaptation:
  • Logistics and transportation companies must adapt to new operational models to support BET adoption.
  • BETs will require changes in vehicle utilization, holding periods, and hub logistics.

Conclusion

The electrification of commercial vehicles, particularly battery-electric trucks, is accelerating due to regulatory mandates and evolving customer demands. While initial investment costs remain a barrier, TCO considerations, especially energy costs and charging infrastructure, are expected to drive the transition from 2030 onwards. A mix of battery chemistries and eDrive technologies will be essential to meet the diverse needs of the market. Cross-industry collaboration and strategic investment in infrastructure and operating models will be critical to the success of BET adoption.