The way people move across regions and cities is changing. Advanced air mobility, or AAM, is the use of new highly automated, electric aircraft to move passengers and goods safely by air. It covers everything from air taxis flying across a city to electric regional aircraft connecting hard-to-reach communities. You may also have heard the term urban air mobility, or UAM, which refers to the city-focused part of AAM. Advanced air mobility is the bigger umbrella that includes urban, regional, and suburban flight corridors.

AAM offers a new way to ease gridlock, reach underserved areas, and lower regional transit emissions. From Wisk’s point of view, making this ecosystem work at scale depends on one factor above all: autonomy. 

Advanced Air Mobility: Key Takeaways

• The Core Concept: Advanced air mobility (AAM) utilizes highly automated, electric aircraft to provide novel transportation options for passengers and regional logistics.

• The Umbrella Term: AAM represents the broad, overarching category encompassing urban, regional, suburban, and intercity flight operations.

• City vs. Region: Urban air mobility (UAM) is a specific, localized subset of AAM focused entirely on passenger transport within dense metropolitan environments.

• Vital Infrastructure: The network functions by integrating novel electric aircraft, ground-based vertiports, and modernized digital airspace infrastructure.

• The Path to Scaling: While other early operators may use human pilots, Wisk believes that true scalability, safety, and lower consumer costs require a self-flying model. Read more about Wisk’s philosophy on autonomous flight from day one.

What Is Advanced Air Mobility?

AAM is an aviation ecosystem that uses highly automated and electric aircraft to transport passengers and cargo across urban, suburban, and regional locations. The concept represents a safe framework developed by aerospace companies, research institutions like NASA, and global regulators. Traditional aviation requires large passenger jets and miles of asphalt runways. In contrast, AAM is engineered to operate flexibly inside compact, localized spaces. By using distributed electric propulsion and automated flight tracking, AAM expands where aircraft can safely take off and land.

AAM vs UAM: What Is the Difference?

The relationship between these terms is the most frequent point of confusion in the sector. Stated plainly, urban air mobility (UAM) is a city-focused subset that sits directly inside the larger advanced air mobility (AAM) umbrella.

Short-range passenger air taxis shuttling people from a city center to a nearby international airport fall under UAM. AAM manages the entire geographic network. This framework can include connecting adjacent regional cities and transporting essential goods to suburban nodes separated by waterways. UAM handles the localized inner-city gridlock, while AAM manages the entire regional geographic network.

What Aircraft and Infrastructure Make AAM Work?

AAM cannot function with a single vehicle type or in an operational vacuum. It requires three deeply integrated components to operate safely and predictably.

eVTOL Aircraft

The primary vehicle of AAM is the electric vertical takeoff and landing (eVTOL) aircraft. These vehicles use high-voltage battery systems and multiple independent electric propellers to lift straight up like a helicopter before transitioning to forward, wingborne flight like an airplane. This unique method allows the aircraft to bypass traditional runways while matching the cruise efficiency of fixed-wing transport. To see exactly how these vehicles operate without traditional jet fuel or heavy acoustic signatures, read our comprehensive breakdown of what is an eVTOL aircraft.

Vertiports

Because AAM aircraft do not require long runways, they land and take off from dedicated sites called vertiports. A vertiport is a specialized physical infrastructure optimized for electric flight. These nodes feature landing pads, passenger gates, ground-crew servicing areas, and high-power electrical charging systems capable of replenishing aircraft batteries safely in roughly 15 minutes. Initial operations will utilize existing infrastructure like regional heliports and general aviation runways before purpose-built vertiports scale out.

Airspace and Autonomy

The third pillar is digital infrastructure. To ensure safe operation, highly automated aircraft will operate under Automated Flight Rules (AFR) within the National Airspace System (NAS). This digital framework utilizes traffic management platforms, such as Wisk’s subsidiary SkyGrid, to integrate aeronautical and environmental data while monitoring ground infrastructure. Instead of relying entirely on voice communications between human pilots and air traffic controllers, AAM aircraft exchange high-fidelity telemetry data natively with digital air traffic management backbones.

What Benefits Does Advanced Air Mobility Provide?

AAM addresses structural, long-term strain on urban and regional infrastructure.

Easing Congestion

Urbanization is growing rapidly, with standard estimates projecting that nearly 68% of the global population will reside in urban centers by 2050. This migration creates immense gridlock, with the average U.S. driver losing dozens of hours every year stuck in traffic congestion. AAM introduces a localized transport layer that moves passengers off overburdened roadways into an open, highly managed aerial environment, turning a grueling highway commute into a fast, direct flight.

Expanding Access

Conventional transit methods like rail lines and interstate highways require physical investments that take decades to construct and can frequently isolate local neighborhoods. AAM expands point-to-point regional connectivity without requiring vast land clearing or development. This allows operators to easily connect geographically isolated locales, suburbs with limited public transit choices, and medical facilities without needing massive capital infrastructure projects.

Reducing Emissions

A traditional helicopter or regional turboprop relies on internal combustion or gas turbine propulsion fueled by fossil fuels. By transitioning city and regional passenger movements to all-electric fleets, AAM provides a path to lower the carbon footprint of daily travel. When combined with power grids drawing from renewable energy sources, AAM creates a zero-emission aviation tier for everyday short-range travel.

Who Regulates Advanced Air Mobility?

AAM operates within highly restricted commercial airspace and is subject to strict federal oversight. In the United States, the primary regulatory body is the Federal Aviation Administration (FAA), which manages risk and safety assurance through a multi-stage certification framework. AAM vehicles must obtain the exact same rigorous Type, Production, and Operating Certificates required of commercial jetliners before they can carry paying passengers.

Because AAM introduces novel systems like distributed electric power and uncrewed flight controls, regulators are working closely with industry pioneers to develop new operational standards. Wisk is directly involved in this U.S. AAM strategy, driving thought-leadership by co-developing foundational Concept of Operations (ConOps) blueprints for autonomous aircraft, alongside NASA and the FAA. This involves extensive uncrewed trial programs and joint airspace simulation initiatives at the FAA’s William J. Hughes Technical Center to safely validate how automated flight rules function alongside traditional piloted aircraft.

When Will Advanced Air Mobility Be Available?

The widespread rollout of AAM is governed strictly by certification pacing, not manufacturing speed. Commercial air taxi operations will begin when the first wave of aerospace developers fully secure FAA Type Certification.

Realistic industry timelines point to initial, localized commercial services becoming operational by the end of this decade. The initial rollouts will appear in target market hubs that have spent years prepping local regulatory frameworks, vertiport site selections, and community availability guidelines. Wisk’s entry-into-service network will deploy its Wisk Gen 6 aircraft in launch markets like the Greater Houston region, Los Angeles County, and Miami, alongside international regional rollouts in Brisbane, Australia, ahead of the 2032 Olympic Games, and cities in Japan.

FAQs

What aircraft are used in advanced air mobility?

AAM relies primarily on electric vertical takeoff and landing (eVTOL) vehicles, including both piloted and autonomous designs. It also incorporates larger electric short-takeoff aircraft for regional transit lines and automated logistics systems.

Is advanced air mobility affordable for everyone?

The long-term mission of AAM is to democratize air travel, rather than creating a premium service exclusive to wealthy demographics. The target operational pricing model aims to deliver a per-mile cost comparable to calling a ground-based premium rideshare like an Uber Black.

What happens if an electric AAM aircraft loses power?

Vehicles designed for commercial AAM feature deep mechanical redundancy to ensure they always maintain power and lift. For instance, Wisk's Gen 6 aircraft features 12 independent motors and 12 separate high-voltage batteries, allowing it to sustain the loss of multiple power components while maintaining controlled flight to a predefined emergency landing point.

Why Autonomy Is the Key to Advanced Air Mobility

An air taxi industry relying strictly on on-board commercial pilots cannot scale efficiently due to persistent pilot shortages. Transitioning the ecosystem to autonomous aircraft removes this structural operational bottleneck, allowing hundreds to thousands of flights to coordinate safely and deterministically every single day. Autonomy ensures consistent, systematic execution of safety protocols while expanding access to affordable transport across entire communities. By designing for autonomy from day one, Wisk is laying the foundation for advanced air mobility to become a scalable transit layer for everyone.

To learn more about how our neighborhood networks operate, see how we are coordinating with cities on the Wisk Communities page.