2025-04-13-世界银行-发展中国家道路运输的清洁氢气（英）_116页_6mb

Summary of "Clean Hydrogen for Road Transport in Developing Countries"

Core Content

This report, authored by Wenxin Qiao, Binyam Reja, and Rohan Shah, explores the potential of clean hydrogen in road transport, particularly in developing countries. It evaluates the economic and environmental viability of hydrogen fuel cell electric vehicles (FCEVs) compared to battery electric vehicles (BEVs) and internal combustion engine vehicles (ICEVs), using comprehensive modeling exercises in five countries: Brazil, Chile, India, South Africa, and the Republic of Korea.

Main Views

• Hydrogen as a Sustainable Alternative: Clean hydrogen, produced via renewable-based electrolysis (green hydrogen) or natural gas reforming with carbon capture (blue hydrogen), offers a sustainable alternative to fossil fuels, enhancing energy security and supporting decarbonization.
• Niche Opportunities in Road Transport: While hydrogen is currently underrepresented in the road transport sector, it has potential in niche markets, especially for heavy-duty vehicles (HDVs) and buses, due to its longer driving range, faster refueling time, and higher payload capacity.
• Economic Challenges: FCEVs face significant economic barriers, including high capital and fuel costs, as well as underdeveloped refueling infrastructure, which hinder their widespread adoption.
• Environmental Benefits: FCEVs provide substantial environmental benefits, particularly in reducing carbon emissions and local air pollutants like PM₂.₅, NOₓ, and SOₓ, which can offset their cost disadvantages in densely populated areas.
• Policy Recommendations: The report suggests country-specific economic assessments, integration of hydrogen into green energy transitions, and the development of enabling policies and regulations to support hydrogen mobility.

Key Information

Hydrogen Production and Costs

• Hydrogen Production Methods: Green hydrogen (renewable-based electrolysis) and blue hydrogen (natural gas reforming with carbon capture) are the main clean hydrogen production methods.
• Cost Trends: The levelized cost of hydrogen (LCOH) and levelized cost of refueling (LCOR) are projected to decrease by 2030, but green hydrogen will still be more expensive than diesel or electricity.
• Country-Specific Costs: Figures show that in 2030, the delivered cost of compressed green hydrogen will range from $1.85 to $2.50/kg, while blue and gray hydrogen will be cheaper in some countries.

Economic Viability of FCEVs

• Capital Costs: FCEVs are more expensive than ICEVs and BEVs, with capital costs for buses and HDVs being nearly three times that of their ICE counterparts.
• Fuel Costs: FCEVs have higher fuel costs than BEVs, with green hydrogen projected to cost around $12/kg by 2030.
• Total Cost of Ownership (TCO): Despite some cost reductions, FCEVs are expected to have a higher TCO than BEVs and ICEVs beyond 2030.
• Cost Advantage of BEVs: BEVs are projected to outperform FCEVs in all segments by 2030 due to lower capital and fuel costs, though their charging infrastructure remains a challenge.

Environmental Impact

• Carbon Intensity: FCEVs powered by green hydrogen have lower carbon intensity than BEVs in countries with fossil fuel-dependent power grids (e.g., India and South Africa), but this gap narrows in countries with renewable energy (e.g., Brazil).
• Air Pollution Reduction: FCEVs reduce local air pollutants such as PM₂.₅, making them a valuable option in densely populated urban areas.
• Health Benefits: In India, reducing one tonne of PM₂.₅ emissions from road transport is valued at approximately $380,000, compared to $60,000 in South Africa.

Operational Advantages of FCEVs

• Driving Range: FCEVs have a longer range (300-350 miles) compared to BEVs (175-200 miles) due to hydrogen's higher energy density.
• Refueling Time: FCEVs can be refueled in 5-15 minutes, while BEVs require several hours, making FCEVs more suitable for operations requiring minimal downtime.
• Payload Capacity: FCEVs allow for higher cargo payloads and reduced road wear due to lighter hydrogen storage tanks.

Policy and Market Considerations

• Market Readiness: The global stock of FCEVs is currently low, with 93,000 units in mid-2024, or one hydrogen vehicle for every 330 BEVs.
• Country-Specific Strategies: Each country must assess its unique conditions to determine the feasibility of hydrogen mobility. In India and Korea, environmental benefits may justify the cost premium of FCEVs, whereas in Brazil, Chile, and South Africa, the economic case is less compelling.
• Niche Markets: FCEVs are particularly suitable for HDVs and buses, especially in hilly regions, cold climates, and logistics sectors with high-utilization fleets.

Recommendations

1. Promote a Clean Hydrogen Economy: For energy security and job creation.
2. Integrate Hydrogen into Green Energy Transition: Through pilot projects.
3. Target Niche Markets: Especially for HDVs and buses.
4. Develop Enabling Policies: To support the growth of hydrogen mobility.
5. Adopt a Coherent Strategy: Aligning hydrogen with broader clean energy goals.
6. Conduct Country-Specific Assessments: To guide investment and policy decisions.

Conclusion

The long-term success of hydrogen mobility in road transport depends on cost reductions, market readiness, and integration into broader clean energy strategies. A balanced, technology-neutral approach is essential to accelerate the decarbonization of transport, especially in developing countries. While BEVs are currently more economically viable, FCEVs offer unique operational advantages that could make them a compelling option in specific markets and conditions.