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Summary of Roland Berger's Urban Air Mobility Report

Core Content

Urban air mobility (UAM) is emerging as a new mode of transportation, driven by urbanization, road congestion, and advancements in aircraft technology and electric propulsion. It aims to provide faster, more affordable, and integrated mobility solutions, particularly through electric vertical take-off and landing (eVTOL) vehicles. By 2050, it is estimated that nearly 100,000 passenger drones could be in operation worldwide, with around 100 cities offering UAM services.

Main Use Cases

UAM is expected to develop around three primary use cases, each with distinct technological and operational requirements:

1. Air Taxis

• Description: On-demand point-to-point services between landing sites within a defined area.
• Characteristics:
  • Short distances (15–50 km)
  • Fluctuating medium/high demand
  • Fastest travel times between two points
  • High network coverage
• Technology: Multicopters and quadcopters are likely to be the preferred designs due to their low downwash speeds and suitability for urban environments.

2. Airport Shuttles

• Description: Scheduled flights between airports and urban areas.
• Characteristics:
  • Longer distances than air taxis
  • Fixed routes and predictable schedules
  • Strategic placement of landing sites near airports and city centers
• Technology: Tilt-wing/convertible aircraft, hybrid concepts, and fixed-wing vectored thrust designs are suitable for this use case.

3. Intercity Flights

• Description: Scheduled services between nearby cities that are too close for regular aviation.
• Characteristics:
  • Medium to long distances (50–250 km)
  • High-speed travel with minimal infrastructure requirements
  • 4D unmanned traffic management systems
• Technology: Fixed-wing vectored thrust designs are most efficient for this use case.

Key Success Factors

1. Choosing the Right Aircraft: Different aircraft designs are suited to different use cases based on their technical capabilities (e.g., speed, stability, noise).
2. Infrastructure Development:
   • Take-off and landing sites
   • Charging facilities
   • Maintenance and communication networks
3. Regulatory Framework:
   • Safety, liability, emissions, and traffic management must be governed effectively.
4. Service Providers:
   • Robust commercial and operating models are essential for viability.
5. Customer Experience:
   • Integration with existing mobility services
   • Fast and convenient access to landing pads
   • Intelligent booking and demand forecasting systems
6. Technology Advancements:
   • Improvements in battery technology and electric propulsion
   • Autonomous flight systems
   • 5G communication for precise navigation

Market Potential and Timeline

• By 2050: Around 100,000 passenger drones in service, with 1,000 drones per city on average.
• Initial Deployment (Early 2020s): Pilot projects in cities like Dubai, Singapore, Los Angeles, and Dallas.
• 2025–2030: Rapid technological progress, with eVTOLs reaching ranges of 100–250 km and speeds of up to 250 km/h. Autonomous flights will become more common.
• After 2030: Full integration of UAM into the urban mobility landscape, with autonomous operations and expanded services to major metropolitan areas.

Conclusion

To implement UAM successfully, stakeholders must collaborate closely with manufacturers, infrastructure providers, regulators, and service operators. The key to long-term success lies in matching the right aircraft design to the specific use case, while also developing necessary infrastructure, regulatory frameworks, and customer-centric services. UAM is set to revolutionize urban transportation, offering a time-efficient, safe, and affordable alternative to traditional ground and air travel.