Passenger eVTOLs
(Air Taxis)
Passenger eVTOLs, also known as air taxis, represent the leading edge of urban air mobility. These are electrically powered aircraft with vertical takeoff and landing capability, designed to transport 2–6 passengers across cities and regions. Unlike delivery or inspection drones, passenger eVTOLs are aviation-first platforms, subject to stringent FAA, EASA, and CAAC certification processes. While many prototypes feature autonomous capabilities, most early deployments will use human pilots, with autonomy phased in over time. The goal is safe, quiet, zero-emission transport that bypasses ground congestion.
Segment Taxonomy
| Segment | Capacity | Examples |
| 2-Seat Demonstrators |
1 pilot + 1 passenger |
EHang 216, Volocopter VC200 |
| Urban Air Taxis |
2–4 passengers |
Joby Aviation, Archer Midnight, Lilium Jet |
| Regional eVTOL Aircraft |
4–6 passengers, 100+ km range |
Vertical Aerospace VX4, Wisk Aero (autonomous 4-seater) |
Air Taxi List
Spotlight: Joby Aviation
Joby Aviation is among the most advanced passenger eVTOL developers, targeting FAA certification in the late 2020s. Its 5-seat eVTOL aircraft features six tilting propellers, a projected range of 150 miles, and cruise speed of 200 mph. Joby’s business model integrates both aircraft manufacturing and fleet operation as an air taxi service in partnership with Uber and Delta Airlines.
| Spec | Value |
| Passengers |
4 + 1 pilot |
| Range |
~150 miles |
| Cruise Speed |
~200 mph |
| Propulsion |
Six tilting propellers, all-electric |
| Certification Target |
Late 2020s (FAA Part 23) |
Technology Stack
| Layer | Examples | Role |
| Airframe & Propulsion |
Distributed electric propulsion; tilt-rotor designs |
Provide vertical lift + efficient forward flight |
| Energy Systems |
High-density lithium-ion packs; thermal management |
Enable 30–60 min flights with quick turnaround charging |
| Avionics & Autonomy |
Flight control software, collision avoidance, GPS+vision nav |
Support piloted today, autonomous in future |
| Fleet Integration |
Vertiport scheduling, digital twins, remote ops centers |
Coordinate multiple eVTOLs for taxi services |
Charging & Energy Considerations
Passenger eVTOLs require megawatt-scale DC fast charging to support 10–15 minute turnaround times at vertiports. Battery swaps are explored in some designs but less favored due to safety certification complexity. Renewable-powered vertiports and smart-grid integration are emerging trends, with redundancy built into charging systems for safety-critical passenger operations.
Market Outlook
| Rank | Adoption Segment | Drivers | Constraints |
| 1 |
Urban Air Taxis |
Congestion relief; electrification synergy |
FAA/EASA certification; public acceptance |
| 2 |
Regional eVTOLs |
Short-haul connectivity; energy efficiency |
Battery density limits; vertiport infrastructure |
| 3 |
Autonomous Passenger eVTOLs |
Lower costs; pilot shortage solution |
Safety regulation; liability frameworks |