欧洲城市和地区燃料电池和氢应用商业案例开发研究英文版_80页_2mb

Summary of "Fuel Cells and Hydrogen for Green Energy in European Cities and Regions"

Core Content

This report presents a study conducted by Roland Berger for the Fuel Cells and Hydrogen Joint Undertaking (FCH 2 JU), detailing the role of fuel cells and hydrogen (FCH) technology in supporting the green energy transition in European cities and regions. The study highlights the participation of 89 regions and cities from 22 countries, representing approximately one quarter of Europe's population, surface area, and GDP. These regions and cities are investing in FCH technology with a total planned investment of about EUR 1.8 billion over the next five years.

Main Viewpoints

• Environmental Benefits: FCH technology is a key enabler for reducing greenhouse gas (GHG) emissions and local pollutants such as nitrogen oxides, fine particulate matter, and sulphur dioxide. It supports the transition to a green, low-carbon energy system and improves local air quality, which in turn has positive health impacts.

• Technological Maturity: FCH technology is technically mature, well-tested, and has demonstrated success in real-world applications across various sectors, including transport, industry, and energy. It provides a zero-emission solution with operational flexibility, making it a viable alternative to traditional energy sources.

• Economic and Social Impact: Investing in FCH can stimulate local economic growth, create jobs, and support the development of a European FCH value chain. It also helps regions and cities position themselves as attractive places to live, work, and visit by fostering a "green" image.

• Market Potential: The FCH sector is growing rapidly, and the deployment of FCH applications is expected to contribute significantly to the commercialisation of the technology. The study outlines the potential for further market expansion and the importance of scaling up FCH deployments.

• Need for Continued Support: Despite the progress made, continued support is necessary to bring FCH deployment plans to fruition. This includes support for individual projects and for the coalition as a whole, such as funding, awareness-raising, and stakeholder alignment.

Key Information

• Participation: 89 regions and cities from 22 countries are involved in the FCH JU's Regions and Cities Initiative, with a significant number of FCH projects under development outside the study coalition.

• Investment Plans: The total investment planned for these regions and cities is about EUR 1.8 billion over the next five years, with a high likelihood of implementation for most projects.

• Deployment Ambitions: The initiative includes a wide range of FCH applications, from buses and cars to stationary power generation (mCHP) and hydrogen production infrastructure. These applications are aligned with local emission reduction targets and the broader goals of the EU's green energy transition.

• Challenges: The main challenges to FCH deployment include high costs, lack of infrastructure, and regulatory barriers. However, the study also outlines ways to overcome these challenges through collaboration, funding, and policy support.

• H2 Valleys: The concept of "H2 Valleys" is proposed as the next stage for FCH development. These are regional clusters that integrate hydrogen production, distribution, and application, aiming to accelerate the commercialisation of FCH technology.

Structure

1. Introduction

• Context: The need for reducing emissions and building a sustainable green energy system is a key challenge for Europe in the 21st century.
• EU Emission Targets: The EU aims to reduce GHG emissions by 20% by 2020, 40% by 2030, and 80–95% by 2050 compared to 1990 levels.
• Role of Regions and Cities: Regions and cities are crucial in translating global goals into local action, and they are actively working to shape their green energy transitions.

2. Hydrogen and Fuel Cell Applications

• Potential and Current Status: FCH technology is being deployed across various sectors, including transport, energy, and industry, with a wide range of applications already in place.
• Benefits: FCH technology offers a zero-emission solution, enables sector coupling, and can store renewable energy on a large scale.
• Technological Readiness: The technology is mature and has demonstrated commercial viability, with improvements in performance and cost reduction over recent years.

3. FCH Deployment Plans and Ambitions

• Investment Volumes: The study outlines the envisaged investment volumes and the number of projects per region, with a focus on the likelihood of implementation.
• Geographical Overview: A geographical breakdown of FCH investments is provided, highlighting the distribution across Europe.
• H2 Valleys: The initiative proposes the development of H2 Valleys as a strategic step towards large-scale FCH commercialisation.

4. Way Forward for Realising the FCH Roadmap

• Demand-Side Initiatives: The FCH JU and the European Commission are working on initiatives to develop the FCH market and support project implementation.
• Supply-Side Initiatives: The FCH industry and Hydrogen Europe are focused on advancing technology development to ensure product availability and competitiveness.
• Framework Conditions: The European Commission and national governments must provide a supportive policy and regulatory framework to facilitate FCH deployment.

Conclusion

The study highlights the growing coalition of European regions and cities investing in FCH technology to meet their emission reduction targets and support the green energy transition. With continued support and collaboration, the FCH sector can be scaled up to become a commercial reality, contributing to a sustainable and low-carbon future for Europe.