For Advanced Air Mobility (AAM) to scale, what happens on the ground will be just as important as what happens in the sky. Air taxis need dedicated places to take off, land, charge, and pick up passengers. That is where vertiports come in.

A vertiport is a site designed to support vertical takeoff and landing (VTOL) aircraft. Unlike traditional airports, which require extensive runways, vertiports are designed around vertical flight and can be integrated into urban and regional transportation networks. While they are often associated with passenger air taxis, vertiports can support a broader range of AAM applications, including medical transport and short-range logistics.

At Wisk, we view ground infrastructure as a critical part of the broader AAM ecosystem we’re working to build. Developing a safe, certified, autonomous aircraft is only one part of the equation. These aircraft will also need a reliable, highly integrated network of facilities to support landing, charging, passenger operations, and ongoing service.

So, what exactly is a vertiport? How will vertiports operate under current regulations, and how are these ground networks moving from concept to reality? Here’s what you need to know.

Vertiports: Key Takeaways

• Purpose-Built Infrastructure: Vertiports are aviation sites designed to support high-frequency vertical takeoff and landing operations. Beyond passenger air taxis, they may also support cargo transport or medical services.

• Federal Classification: Under current federal guidance, vertiports are classified as a specialized type of heliport designed to accommodate aircraft with vertical takeoff and landing capabilities.

• Core Systems: Vertiports may combine high-voltage charging infrastructure with designated areas for aircraft parking, passenger operations, and digital systems that support airspace and traffic management.

• Grid and Utility Needs: Supporting frequent aircraft operations will require access to high-capacity electrical infrastructure, particularly as operators work toward fast aircraft charging and efficient turnarounds.

• Community Integration: Vertiport locations must balance operational needs with community priorities, supporting regional connectivity while minimizing potential impacts such as noise.

• Supporting Autonomous Operation: Scaling autonomous air travel will require certified autonomous aircraft and integrated ground infrastructure that can support efficient, reliable operations. 

• Explore how Wisk works with local partners to understand how autonomous air mobility can complement existing transportation networks on our Wisk City Partners page.

What Is a Vertiport?

A vertiport is an aviation facility designed to support the takeoff, landing, charging, and ground operations of electric vertical takeoff and landing (eVTOL) aircraft. Unlike private landing pads, vertiports are intended to support frequent commercial operations and serve as an important part of the broader AAM ecosystem.

The Federal Aviation Administration (FAA) currently classifies vertiports as a specialized type of heliport, with design considerations tailored to the aircraft they support. While traditional airports require long runways for fixed-wing aircraft to take off and land, eVTOL aircraft use vertical lift, similar to helicopters, and do not require the same runway infrastructure. This allows vertiports to have a smaller footprint and creates opportunities to integrate them into a wider range of urban and regional environments.

The FAA provides vertiport design guidance that outlines criteria based in part on the dimensions and performance characteristics of the aircraft expected to use the facility. These standards address considerations such as obstacle clearance, visual markings, lighting, and structural requirements to support safe and consistent eVTOL operations.

How a Vertiport Works

Operating a vertiport requires careful coordination across aircraft takeoff and landing areas, charging infrastructure, and designated spaces for passengers or cargo. To support safe and efficient operations within a relatively compact footprint, vertiports are organized into dedicated areas that guide aircraft through each stage of arrival, ground operations, and departure.

Takeoff and Landing Areas

Vertiports include several designated areas that support safe aircraft takeoff and landing. The Final Approach and Takeoff Area (FATO) is the area where an aircraft completes the final phase of its approach or begins its departure. Within the FATO is the Touchdown and Liftoff Area (TLOF), the load-bearing surface where the aircraft physically lands and takes off.

Under FAA Engineering Brief No. 105A, a clear Safety Area must surround the FATO to provide additional space for safe operations. Vertiport designs must also account for downwash and outwash, the air movement generated by an aircraft during takeoff, landing, and hovering. Designated caution areas help protect passengers, personnel, equipment, and nearby infrastructure from these effects.

Charging and Turnaround

To support efficient operations, aircraft will generally spend only a limited amount of time in active takeoff and landing areas. After landing, an aircraft may move to a designated parking or staging area for charging, passenger boarding, routine inspections, or other ground operations.

Charging infrastructure will play an important role in supporting efficient aircraft turnarounds. Depending on the aircraft, operating model, and facility design, vertiports may require access to high-capacity electrical infrastructure and systems that safely manage significant power demands. Vertiport planners will also need to consider factors such as grid capacity, fire safety requirements, and battery thermal management when designing charging systems.

Passenger Flow and Safety

Vertiports will need to support a safe and efficient passenger experience from arrival through boarding. Depending on the facility and operating model, this may include passenger check-in, baggage handling, identity verification, waiting areas, and controlled access to aircraft boarding areas.

Clear pathways, designated safety zones, physical barriers, and visual markings can help separate passengers and ground personnel from active aircraft operations and charging equipment. As vertiport designs continue to evolve, these features will play an important role in supporting safe and efficient movement throughout the facility.

Vertiport vs Heliport vs Airport

Airports, heliports, and vertiports all support aircraft takeoff and landing, but they are designed around different aircraft types and operational needs. Their infrastructure, physical footprints, and supporting systems vary based on the aircraft and operations they are intended to accommodate.

Traditional airports primarily support fixed-wing aircraft and generally require runways, taxiways, and larger areas for aircraft operations. Heliports are designed to support the vertical takeoff and landing capabilities of helicopters, allowing them to operate without traditional runways and within a smaller footprint.

Vertiports are designed specifically to support eVTOL aircraft and the infrastructure needed for AAM operations. While vertiports share many characteristics with heliports, they may also incorporate features such as electric aircraft charging and passenger processing areas.

Where Vertiports Are Being Built

Ground infrastructure planning is moving into real-world development across municipal, regional, and international corridors. Public agencies, airport authorities, and private infrastructure operators are evaluating and building sites to integrate air taxis into local transit networks:

• State of Florida: Florida’s SunTrax is a testing hub for AAM operations and infrastructure, while the Greater Orlando Aviation Authority (GOAA) Board recently approved the development of a vertiport.

• Greater Houston Region: The Houston Airport System is evaluating vertiport locations across George Bush Intercontinental Airport, William P. Hobby Airport, and Ellington Airport to connect airport infrastructure with surrounding hubs.

• South East Queensland: Infrastructure developer Skyports Infrastructure is coordinating with local authorities across South East Queensland, Australia, to establish a commercial vertiport network ahead of regional transportation initiatives.

• Southern California: The City of Long Beach and regional economic planners have conducted infrastructure and economic studies to integrate vertiport facilities into municipal transit networks.

Why Vertiports Matter for Communities

AAM is not only an aircraft development challenge. Its long-term success will also depend on thoughtful infrastructure planning, public acceptance, and collaboration with the communities it is intended to serve. Determining where and how vertiports are developed will require balancing operational needs with local priorities.

Wisk approaches infrastructure planning with a focus on safety, accessibility, equity, and data-driven decision-making. As AAM infrastructure develops, there is an opportunity to apply lessons from the past and take a more thoughtful and inclusive approach to planning.

The location of vertiports will play an important role in determining who can access and benefit from this new form of transportation. Connecting vertiports with existing public transportation, regional travel hubs, and areas with limited transportation options could help expand access, improve regional connectivity, and support new economic opportunities.

Electric aircraft are also being designed to produce less noise than conventional helicopters. A lower noise profile could create more flexibility in where vertiports are located, but community feedback, local conditions, and potential noise impacts will remain important considerations throughout the planning process.

Explore our City Partners page to learn more about our community engagement approach, public perception research, and work with local partners.

What Vertiports Mean for Autonomous Air Taxis

Scaling autonomous air taxi networks will depend on connected ground infrastructure and digital systems that support safe, efficient coordination across aircraft, vertiports, and the broader airspace.

Wisk’s autonomous aircraft are designed to operate as part of an integrated ecosystem that includes ground-based human oversight. Digital systems can help provide information about aircraft operations, airspace conditions, weather, and vertiport availability, giving ground-based supervisors greater visibility across the network.

This coordination could support several aspects of autonomous air taxi operations:

• Coordinated Ground Operations: Connected systems could help coordinate aircraft arrivals, departures, parking, charging, and other ground activities.

• Contingency Management: Autonomous systems are designed to respond safely to changing conditions. If a landing area becomes unavailable, the aircraft would follow predefined procedures and coordinate with ground-based systems to determine an appropriate course of action.

• Automated Airspace Rules: Wisk and SkyGrid are advancing Automated Flight Rules (AFR), a proposed framework designed to enable autonomous aircraft to safely and efficiently operate alongside traditional aircraft within the existing airspace system. Learn more about AFR and its role in the future of autonomous aviation in our white paper.

By connecting autonomous aircraft with integrated vertiport infrastructure and ground-based oversight, AAM networks can support safe, consistent, and scalable operations over time.

Building the Ground Network for Everyday Flight

Advanced aircraft alone cannot create a scalable transportation network. They will also need safe, reliable, and connected infrastructure on the ground. By bringing together aircraft operations, charging infrastructure, passenger facilities, and digital systems, vertiports can help create the foundation needed to make AAM a part of everyday transportation.

At Wisk, we are developing an autonomous air taxi and the broader operational ecosystem needed to support safe, scalable flight. Explore our Autonomy page to learn more about Wisk’s approach to self-flying technology, or visit our Generation 6 aircraft page to learn more about the aircraft we are developing to make safe, everyday flight a reality.