A team from Nanyang Technological University (NTU) in Singapore has completed the first phase of flight tests for an electric vertical take-off and landing aircraft.

The successful tests mark a step toward integrating electric air mobility for passengers and cargo within Singapore. By developing locally designed aircraft, the university aims to reduce reliance on foreign aviation technology while advancing autonomous flight capabilities.

The flight-test programme took place in early June 2026 [3] at a specialized flight-test centre in Germany. During these trials, the electric vertical take-off and landing (eVTOL) aircraft reached a maximum altitude of more than 90 metres [1]. The aircraft also achieved a maximum speed of over 120 kilometres per hour [2].

Engineers from NTU designed the aircraft to explore the viability of electric propulsion in urban environments. The team is using the data gathered from these German trials to refine the aircraft's stability and control systems. This phase focused on basic flight maneuvers and performance benchmarks before moving into more complex autonomous operations.

Beyond battery power, the NTU team is exploring hydrogen-fuel options for future models of the eVTOL. Hydrogen fuel cells could potentially offer longer flight durations and higher payloads than current battery technology allows, a critical factor for commercial cargo transport.

The project is part of a broader effort to establish a sustainable aviation ecosystem in Southeast Asia. The university is coordinating with aviation experts to ensure the designs meet safety standards required for urban air mobility. This research includes the development of software for autonomous navigation to minimize human error during take-off and landing.

“The aircraft reached a maximum altitude of more than 90 metres.”

The successful testing of the NTU eVTOL demonstrates Singapore's intent to lead in the urban air mobility sector. By testing in Germany, the team accessed specialized infrastructure to validate performance metrics like speed and altitude. The transition toward hydrogen-fuel research suggests a strategic move to overcome the energy-density limitations of lithium batteries, which remains the primary hurdle for the widespread adoption of electric aviation.