城市空中机动_新交通方式的兴起（英文版）_20页_1mb

Summary of Roland Berger's Urban Air Mobility Report

Core Content

Urban Air Mobility (UAM) is emerging as a new mode of transportation that will significantly impact urban travel in the coming decades. It involves the use of flying vehicles, particularly electric vertical take-off and landing (eVTOL) drones, to transport people or goods within and between urban areas. The report highlights that UAM is poised to become a fast-growing industry, with the potential for nearly 100,000 passenger drones in service worldwide by 2050.

Main Views

• UAM as a New Industry: UAM is expected to become a mainstream mode of transportation, offering faster, more affordable, and more integrated mobility solutions compared to traditional ground-based transport.
• Technological Enablers: Advances in electric propulsion, autonomous flight systems, and 5G communication networks are driving the feasibility and scalability of UAM.
• Three Key Use Cases: UAM will encompass three main applications: air taxis, airport shuttles, and intercity flights, each with distinct operational and technological requirements.
• Infrastructure and Regulation: The success of UAM will depend on the development of suitable infrastructure (take-off/landing sites, charging facilities, communication systems) and a robust regulatory framework to ensure safety, liability, and environmental compliance.

Key Information

1. From Dream to Reality

• Market Potential: Roland Berger estimates that by 2050, nearly 100,000 passenger drones will be in operation across 98 metropolitan regions with over 2 million inhabitants.
• Urban Archetypes: Four cities (Los Angeles, Munich, São Paulo, Singapore) were used as case studies to model UAM demand and infrastructure requirements.
• Switching Rate: The switching rate to UAM services is expected to increase over time, reaching an average of 5% in 2050, with variations per use case and route.

2. What Form Will UAM Take in the Future?

• Air Taxis:

  • On-demand point-to-point flights.
  • Designed for short to medium distances (15–50 km).
  • Require a high number of landing sites for network coverage.
  • Multicopters and quadcopters are likely to be the preferred aircraft designs.

• Airport Shuttles:

  • Scheduled flights between airports and urban centers.
  • Cover longer distances (up to 100 km).
  • Require dedicated landing sites near airports and city centers.
  • Tilt-wing, hybrid, and fixed-wing vectored thrust aircraft are suitable for this use case.

• Intercity Flights:

  • Scheduled services between nearby cities.
  • Cover distances of 50–250 km.
  • Require long-range aircraft with minimal hovering time.
  • Fixed-wing vectored thrust is considered the most efficient solution.

3. The Pivotal Success Factor

• Choosing the Right Aircraft: Selecting the appropriate aircraft design is critical for the success of UAM services.
• Five Aircraft Architectures:
  • Highly Distributed Propulsion (Multicopters): Suitable for air taxis, with speeds of 80–100 km/h.
  • Quadcopters: Can carry up to 6 passengers, with speeds of 120–150 km/h.
  • Hybrid Concepts: Combine fixed and upward-facing propellers, ideal for suburban-to-urban services, with speeds of 150–200 km/h.
  • Tilt-Wing/Convertible Aircraft: Offer versatility for take-off, landing, and flight, with speeds of 180–250 km/h.
  • Fixed-Wing Vectored Thrust: Most efficient for long-distance intercity flights, with speeds of 200–300 km/h.

4. Key Success Factors

• Infrastructure Development: Essential for take-off/landing sites, charging stations, and communication systems.
• Autonomous Flight Technology: Will reduce costs and improve efficiency, though initial services may still require human pilots.
• Regulatory Framework: Must address safety, liability, emissions, and airspace management.
• Customer Experience: Seamless integration with other mobility services, such as ride-hailing and public transport, will be crucial for adoption.
• Battery and Propulsion Advances: Will enable longer flight ranges and reduce operating costs over time.

5. Timeline for Implementation

• Early 2020s: Pilot projects will begin in cities like Dubai, Singapore, Los Angeles, and Dallas.
• 2025–2030: eVTOL technology will improve, expanding range to 100–250 km and enabling more widespread use.
• After 2030: Autonomous flights will become more common, and UAM will be fully integrated into urban mobility systems, though likely to remain in the premium segment.

6. Conclusion

• Integration and Adoption: UAM will gradually integrate into existing mobility systems, starting as a premium service and evolving into a more accessible option.
• Collaboration is Key: Success will depend on close cooperation between manufacturers, infrastructure providers, regulators, and service operators.
• Customer-Centric Approach: Ensuring convenience, safety, and affordability will be essential to making UAM a widely accepted mode of transport.