Honeywell Aerospace is supporting the development of advanced air mobility (AAM) through avionics, flight controls, actuation, thermal management, and satellite communications technologies designed for next-generation aircraft. Read more >>
As the industry progresses toward certification and operational deployment, these integrated systems help form the technological backbone required for electric vertical takeoff and landing (eVTOL) aircraft and other emerging aerial platforms.
In 2026, advanced air mobility is shifting from isolated demonstrations toward coordinated industry progress. Aircraft development, regulatory frameworks, and infrastructure planning are advancing in parallel, indicating that the sector is entering a more structured phase.
Over the past several years, aircraft concepts have progressed from design studies to scaled prototypes and full-scale vehicles conducting active flight tests. Multiple manufacturers are now operating within structured FAA certification programs. At least one manufacturer is expected to reach Type Inspection Authorization (TIA) this year, the stage at which FAA pilots participate directly in certification flight testing.
Regulatory momentum is also increasing. In December 2025, the U.S. Department of Transportation released the Advanced Air Mobility National Strategy, a ten-year framework coordinated across 25 federal agencies. The strategy outlines a staged approach that includes demonstration operations by 2027, expanded missions by 2030, and incremental autonomous capabilities around 2035.
The FAA’s eVTOL Integration Pilot Program (eIPP) will also designate five locations across the United States as operational testing environments. These sites will allow mature aircraft programs to demonstrate real-world missions ahead of full certification.
Rather than relying on a single breakthrough, the industry is advancing through the simultaneous maturation of regulation, certification, manufacturing capability, infrastructure, and public acceptance.
From Exemptions to Rules-Based Execution
In the early stages of advanced air mobility development, regulatory uncertainty represented one of the largest challenges. Progress often relied on one-off exemptions and waivers rather than standardized processes that could support large-scale operations.
That environment is changing. The FAA Reauthorization Act, along with federal policy initiatives and executive direction, has established funding priorities and regulatory momentum supporting AAM integration.
One of the most important developments has been the creation of the powered-lift aircraft category, designed specifically for aircraft that combine characteristics of fixed-wing airplanes and rotorcraft. Although the framework introduced new requirements for developers already pursuing certification, it established a clear pathway forward.
Programs such as Innovate28 and the eIPP are intended to move the industry toward predictable compliance processes and scalable operations.
Safety as the Foundation for Adoption
Safety remains central to the development and deployment of advanced air mobility systems. For a new category of aircraft entering shared airspace, rigorous safety standards are essential to maintaining public trust and regulatory confidence.
An early operational incident could affect the entire sector, meaning that safety performance must be consistent across manufacturers and operators.
Global regulatory alignment will also be important. Currently, the FAA and the European Union Aviation Safety Agency (EASA) maintain different certification approaches for eVTOL aircraft. EASA’s SC-VTOL framework introduces a safety objective of 10⁻⁹, one of the most demanding safety thresholds ever applied to an aircraft category.
Designing systems capable of meeting the most stringent international requirements helps reduce complexity as global regulatory harmonization develops.
Shared Airspace and Public Engagement
Advanced air mobility aircraft will ultimately operate in the same airspace as crewed aircraft, uncrewed aerial systems, cargo drones, and other aviation traffic. Safe integration will require improved situational awareness, communication, and air traffic management capabilities.
The need for modernization is already evident in existing air traffic systems, many of which rely on legacy technologies. As new aircraft categories enter the airspace, modernization efforts will need to keep pace with increasing operational complexity.
Public engagement will also play a significant role in successful deployment. Community understanding and acceptance influence infrastructure development, regulatory approvals, and operational expansion. Industry outreach efforts that engage local communities early have shown greater success than projects introduced without prior public education.
Ecosystem Readiness Beyond the Aircraft
Aircraft certification represents only one element of the AAM ecosystem. Infrastructure availability, manufacturing capacity, and operational frameworks must also develop in parallel.
Early operations may rely on existing airports and heliports before purpose-built vertiport networks become widespread. Manufacturing scale represents another critical factor. Initial industry estimates suggested approximately one billion dollars would be required to develop and certify an eVTOL aircraft, but more recent projections indicate costs closer to three billion dollars.
Beyond development, the ability to produce aircraft repeatedly and reliably at aerospace-grade quality will determine the industry’s ability to scale.
Operational applications are also expanding beyond passenger transportation. Potential missions include cargo logistics, industrial inspection, emergency response, environmental monitoring, and time-critical medical deliveries.
Honeywell Aerospace Systems for AAM Aircraft
Honeywell Aerospace develops several of the core systems required for advanced air mobility aircraft. These include avionics, flight controls, actuation systems, thermal management solutions, and satellite communications technologies.
The company can provide nose-to-tail system offerings that include nearly all major aircraft systems except the seats and fuselage. At Honeywell Aerospace’s Deer Valley Advanced Air Mobility Laboratory in Phoenix, engineers integrate and demonstrate these technologies in representative operational environments.
In addition to system development, Honeywell Aerospace contributes expertise related to certification processes and regulatory engagement, helping aircraft manufacturers navigate the complex path from development to operational deployment.
The Long-Term Outlook for AAM
Advanced air mobility has the potential to reshape how people and goods move between communities. Expanded aerial transportation networks could enable workers to travel beyond traditional commuting ranges and improve delivery access for underserved areas.
Industry projections suggest that advanced air mobility could create more than 100,000 jobs by 2040, including roles in manufacturing, operations, maintenance, and infrastructure development.
Taylor Alberstadt, Senior Director, Advanced Air Mobility Customer Accounts & Sales, Honeywell Aerospace, stated, “The way people move through the world will look fundamentally different. These are not niche outcomes for the privileged few. If this only serves the wealthy, we will never get the scale necessary to run a business. The greater good is the business case.”
As certification programs advance and ecosystem components mature, the industry’s focus is increasingly shifting from projection to implementation. The coming years will determine how effectively advanced air mobility moves from development to operational reality.
