Advanced Air Mobility: A Catalyst for the Next Generation of Single-Aisle Aircraft?

The aerospace industry is undergoing a transformation comparable to the one that accompanied the emergence of the first jet aircraft. Around the world, new players are developing innovative air mobility solutions, exploring concepts that have seen little or no use in commercial aviation to date.

While these new mobility solutions are unlikely to replace the single-aisle aircraft that currently carry the vast majority of global air traffic, they could play a decisive role in preparing the technologies, materials and industrial methods that will shape the next generation of aircraft. The number of companies engaged in this race for innovation is considerable, each seeking to address specific or complementary needs within emerging markets.

A powerful innovation laboratory

Advanced air mobility projects provide the industry with a unique testing ground.

These new programs are simultaneously exploring several breakthrough areas:

• New aircraft architectures
• New propulsion solutions
• New development methods and certification approaches

The primary advantage of this ecosystem lies in its ability to rapidly test innovative concepts without the economic and industrial constraints associated with major commercial aircraft programs. The lessons learned can then be transferred to more ambitious applications, including future single-aisle aircraft.

Unprecedented technological competition

Unlike traditional commercial aviation, where a limited number of configurations dominate the market, advanced air mobility is characterized by a wide variety of competing solutions. VTOL aircraft, multi-rotor architectures, hybrid and fully electric propulsion systems, as well as winged and wingless configurations are all being explored simultaneously.

This diversity accelerates innovation. Each player is evaluating different trade-offs between range, weight, cost, safety, noise and energy efficiency. Such intense technological competition helps identify the most promising solutions for future aerospace platforms more quickly.

The MVP approach: Rethinking aerospace development

One of the most significant shifts concerns development methodologies.

Many advanced air mobility companies have adopted a Minimum Valuable Product (MVP) mindset, rapidly developing functional solutions that deliver value, validate performance and continuously improve through operational feedback.

This philosophy can be summed up in a simple idea: develop quickly to experiment, learn and improve. It marks a departure from the traditionally long development cycles of the aerospace industry, accelerating technology maturation while reducing risk through early validation of key technical assumptions. Daher, for example, has adopted this approach in the development of its EyePulse MALE drone demonstrator.

A profound transformation of certification approaches

Advanced air mobility is also driving changes in qualification and certification strategies.

Programs are typically structured around short-term objectives and progressive milestones. A new approach is emerging, based on incremental certification of flight capabilities. Aircraft operations are initially limited and then gradually expanded as compliance and performance are demonstrated.

A similar approach has been adopted by Daher subsidiary KVE to support the certification of eVTOL prototypes.

This evolution does not reduce safety requirements. On the contrary, public expectations are particularly high, with more demanding safety standards, lower tolerance for incidents and certification frameworks that continue to evolve as technologies mature. This model could inspire future aerospace programs by enabling a more progressive introduction of innovative technologies.

Materials at the heart of the transformation

The rise of advanced air mobility highlights the strategic role materials will play in the future of aviation.

The materials used today will likely not be the same as those powering the next generation of aircraft. Rapid performance demonstration is becoming a key success factor, and advanced mobility platforms are already serving as laboratories for new applications and functionalities.

To meet future requirements for production rates and competitiveness, the industry is moving toward more versatile materials, greater data sharing and improved recyclability, drawing inspiration from practices already established in the automotive sector.

In addition, composite structures designed from the outset for weight optimization provide a major advantage. Lighter structures improve aircraft range and operational performance.

Industrialization: The real challenge

The future of advanced air mobility will depend not only on technology, but also on the ability to manufacture aircraft at scale.

One of the main challenges lies in industrial processes. Increasing production rates will inevitably require significantly higher levels of automation. These requirements closely mirror the challenges future single-aisle programs will face, from ramping up production rates and deploying advanced automation to integrating new materials and manufacturing processes.

The experience gained through advanced air mobility could therefore help the entire aerospace industry prepare for the industrial challenges of the coming decades.

Public acceptance: A critical success factor

No technological innovation can succeed without the support of users and society.

Public acceptance is already emerging as one of the key conditions for the success of advanced air mobility. Future transportation systems will need to deliver tangible benefits in several areas:

• Sustainability
• Safety
• Accessibility and ease of use
• Reduced noise emissions

These same expectations will apply to the next generation of commercial aircraft, which will need to demonstrate measurable improvements in both environmental performance and quality of life.

Preparing tomorrow’s single-aisle aircraft today

Advanced air mobility is more than an emerging market. It is, above all, an innovation accelerator for the aerospace industry as a whole.

Intense competition, rapid experimentation, evolving certification approaches, advanced materials and highly automated industrial processes are all helping prepare for the challenges facing the next generation of single-aisle aircraft.

In this context, thermoplastic composites appear particularly promising, addressing several key challenges simultaneously: weight reduction, high-rate manufacturing, automation, recyclability and cost control. This technology is increasingly recognized as a relevant pathway for meeting the future needs of the aerospace industry.

For companies such as Daher, whose expertise spans the aerospace value chain from new-generation materials to advanced industrial processes, these new mobility programs provide a particularly valuable field of experimentation. The lessons emerging from them are helping shape thinking around future aircraft systems and the industrial models that will support them.

Conclusion

Advanced air mobility should not be viewed solely through the lens of eVTOL aircraft or the emerging markets they aim to serve. Its greatest contribution may lie elsewhere: in its ability to accelerate innovation across the entire aerospace value chain.

Today, these programs make it possible to test new architectures, materials, development methods and certification strategies in a more agile environment than traditional commercial aircraft programs. The knowledge generated through this dynamic will likely help define the single-aisle aircraft that will succeed today’s platforms in the decades ahead.

In that sense, advanced air mobility may not be the final destination of the aerospace industry, but it is certainly one of its most valuable innovation laboratories.