Designing everyday flight for everyone: the principles behind the design of an air taxi experience. -Uri Tzarnotzky, Head of Product Design As Wisk develop an all-electric, autonomous, passenger-carrying air taxi, Wisk help shape the future of urban mobility by adding a vertical layer to multimodal transit that fits seamlessly into daily life. As a novel mode of transit, air taxis can't simply copy-paste solutions from airplanes, helicopters, and ride-share models. In fact, each of those modes carries negative aspects and associations Wisk aim to address. When rethinking flight from the ground up, Wisk recognized that while there is a ton of innovation around autonomous technology and electric propulsion at Wisk, the real barrier to adoption may very well be the human experience inside the cabin. To create a transportation system that serves entire communities, Wisk anchored its interior design and user experience journey in a simple, foundational ethos: inclusive and equitable mobility. Traditional air travel often introduces multi-modal friction, in the form of physical obstacles, mental workload, and countless exclusionary design choices that make flying stressful or inaccessible. In developing its Gen 6 four-seat autonomous aircraft, its Product Design team at Wisk set out to break down these long-standing barriers. How accessibility drives innovation for all. The World Health Organization estimates that 16% of the global population live with a permanent disability. In countries with aging populations, regional data shows even higher rates, such as in the U.S., where the CDC reports that 27% of adults live with a permanent disability. Add another ~15% for temporary disabilities (such as medium-term injuries or medical conditions that resolve within a few months), and then another ~15% for situational limitations (such as pushing a heavy stroller up a ramp, navigating in dark conditions, or dealing with a loud environment), and you start to see how much impact thoughtful design choices can have. Wisk operated under the proven design principle that solving for people with specialized or accessibility needs improves the experience for 100% of riders. Whether someone uses a wheelchair, travels with a service animal, manages a temporary injury, or is simply navigating a flight for the first time, designing with inclusivity at the center elevates the journey for every single passenger. Through extensive research spanning hundreds of internal and external participants across ten user studies and four physical mockups, Wisk translated observations into insights which informed a fully integrated cabin ecosystem. Human-Centered elements of the Wisk experience. Every detail inside the Gen 6 cabin is intentionally crafted to foster agency, independence, and peace of mind. 1. Seamless ingress and dignified boarding. Boarding an aircraft should be intuitive and dignified. Wisk designed a custom boarding lift that enables wheelchair users (or users with reduced mobility or other mobility aids) to board independently (or with assistance, if they so choose) in about 30 seconds. To support passengers with varying mobility needs, older adults, passengers with little or no vision, and young children, Wisk developed custom boarding steps, complete with Braille seat identification placards, tactile treads, ADA-compliant handrails, high-visibility markings, and service-dog-friendly waterfall steps with no opportunity to fall through gaps. Inside the cabin, a unique seat profile makes ingress and egress effortless. Removable seating lets a passenger's wheelchair be safely stowed inside the cabin next to them - eliminating the anxiety of cargo handling while creating an open, unobstructed space for movement and emergency egress. Traditional rotary buckles common in helicopter seating were swapped for more accessible lever buckles, common on commercial aircraft, which are more familiar to passengers and cater to users with limited dexterity. 2. Multi-Sensory communication and orientation. In an autonomous aircraft, establishing trust and clarity is paramount. The cabin utilizes a multisensory approach combining real-time visual displays, intuitive lighting, and ambient sound cues to keep passengers aware of flight status and aircraft behavior. * Tactile Navigation: Braille placards, tactile symbols, and a physical tactile map grant blind and low-vision passengers full spatial orientation and independence. Touchpoints like its dedicated call buttons are designed to be located instantly and intuitively. * Inclusive Information: Integrated Live American Sign Language (ASL) interpretation and closed captioning (CC) ensure critical flight and safety updates are accessible to deaf and hard-of-hearing passengers, while sharpening visual clarity for everyone onboard. * Ambient and Accent Lighting: Changes in aircraft mode and mission trigger lighting changes that support in-flight notifications and announcements. 3. Practical comfort for daily life. Everyday travel comes with daily gear. On top of the usual roller bag and personal item common to commercial airline travel, dedicated storage areas accommodate long and narrow items like canes, crutches, or umbrellas. Its spacious seating configuration gives service animals room to rest comfortably at their owner's feet, while onboard power and WiFi connectivity let passengers relax or stay productive during their flight. Building trust through direct research. A design philosophy is only as strong as the real-world experiences it creates. In partnership with research firm ReD Associates, Wisk conducted in-depth studies bringing together travelers with mobility, vision, hearing, and cognitive needs alongside frequent business commuters. Testing its cabin features and VR flight simulations reaffirmed its mission. When participants tested the boarding lift, stowed their mobility aids, or interacted with tactile cabin elements, their feedback highlighted the real impact of inclusive design: travel that restores dignity, autonomy, and confidence. The horizon of inclusive mobility. Redefining flight isn't just about reaching a destination faster; it's about making sure everyone can take the journey together. By embedding accessibility into its design DNA from day one, Wisk is creating a future where autonomous, quiet, and zero-emission flight belongs to everyone.

Unlocking the sky: how its latest FAA Tech Center simulation advances autonomous air mobility. To bring autonomous eVTOL aircraft to market, Wisk need digital and operational infrastructure that seamlessly integrates into the world's busiest air traffic environments. Last week, Wisk took a major step toward that reality. In close collaboration with the FAA's William J. Hughes Technical Center for Advanced Aerospace and SkyGrid, Wisk completed a high-fidelity joint airspace simulation focused on maturing autonomous eVTOL operations, centered on the complex airspace in Houston, Texas - specifically between Sugar Land Regional Airport and William P. Hobby Airport. Moving beyond concepts to real technology. This latest effort builds upon a multi-year research program initiated in 2023 between Wisk, SkyGrid, and the FAA Tech Center. What sets this collaboration apart is the end-to-end testing of advanced technologies in today's airspace that goes beyond simple evaluation of abstract concepts. By connecting Wisk's Autonomy Lab to the FAA's research laboratories in New Jersey, the team linked the autonomous Gen 6 aircraft directly to a National Airspace System (NAS) "digital twin." The integration leveraged the FAA's Target Generation Facility (TGF), a virtual ATC tower cab, and a Standard Terminal Automation Replacement System (STARS) laboratory to evaluate how autonomous aircraft interact with present-day and future air traffic control environments. SkyGrid played a vital role in enabling this integrated environment by providing essential fleet management tools for Wisk to support eVTOL aircraft decision-making and connecting lab systems to the FAA's latest "zero trust" infrastructure. This allowed SkyGrid to ensure that industry participants operated from a unified common operating picture. High-Complexity airspace in action. Simulating operations in Houston allows Wisk to stress-test its systems against real-world operational environments. Here is what made this testing so significant: * Real NAS Traffic & Weather Conditions: Wisk evaluated AAM flights alongside traffic data from a representative day in the NAS, including commercial jets, general aviation, and helicopter operations. Testing spanned both Visual Meteorological Conditions (VMC) and Instrument Meteorological Conditions (IMC) to determine how to maximize throughput while maintaining strict separation standards under Instrument Flight Rules (IFR). * Active Controller Integration: Active Houston-area NATCA air traffic controllers participated in the human-in-the-loop study. Collaborating with local controllers enabled Wisk to evaluate operations against existing procedures and explore solutions to streamline controller-to-pilot communications. * Rigorous Off-Nominal Testing: The digital sandbox provided a safe, repeatable space to test demanding edge cases. Wisk simulated missed approach procedures and sudden vertiport closures to refine how its Multi-Vehicle Supervision (MVS) tools and operational procedures handle unexpected disruptions. * Pioneering Airspace Models: Building on progress made since 2023, this initiative also contributed to creating the first Base of Aircraft Data (BADA) model tailored for eVTOL aircraft, providing physics-based operational data for future airspace modeling. Why high-fidelity simulation matters. Validation of aircraft automation and autonomy requires more than real-world flight test hours. It requires proving how these aircraft can interact and fit in with human air traffic controllers, existing traffic, and complex regulatory frameworks. Early collaboration with stakeholders like NATCA helps uncover potential procedural bottlenecks and controller workload concerns long before systems are finalized. Work at the FAA Tech Center provides the high-fidelity, ATC-in-the-loop environment Wisk needs to evaluate, refine, and mature its Concept of Operations (ConOps) and fleet management tools prior to commercial deployment. Furthermore, the insights gained directly inform future facility-operator Letters of Agreement (LOA), shape Instrument Flight Procedure (IFP) standards, and support upcoming initiatives like the eVTOL Integration Pilot Program (eIPP). By building trust, consensus, and proven technical frameworks alongside key regulators and air traffic professionals, Wisk and SkyGrid are laying the foundation for safe, scalable, and everyday autonomous flight for everyone.

Wisk announces a new vertiport in California for autonomous aircraft. Wisk broke ground on a state-of-the-art vertiport at the Hollister Municipal Airport in California that boasts an innovative deployable design Published: 29 Aug 2026, 14:16 UTC - By: Photo: Wisk A brand-new vertiport is already under construction in California, and it's meant to become one of the first public vertiports purposely designed to support both autonomous and piloted aviation operations in the US. The name behind it? Wisk, maker of the first autonomous passenger aircraft that's a candidate for the FAA (Federal Aviation Administration) certification. A new state-of-the-art vertiport is coming to the Hollister Municipal Airport in California. The location is directly connected to Wisk, which already operates its flight test facilities in Hollister. This new vertiport will be a step up in terms of flight testing, allowing Wisk to expand the development and testing of its autonomous flight technology. However, the new vertiport won't be limited to that. It's meant to support operations for other eVTOLs and even conventional helicopters, in addition to the Wisk 6th generation air taxi. Its primary role is that of a testbed for evaluating specific flight procedures and collecting real-world data. In terms of specifications, the vertiport will cover a 100 x 100-foot surface (30.4 x 30.4 meters), and will incorporate solar panels, power banks, and taxiway connectors. One of the most interesting features is that this vertiport is not only modular, but also deployable. It's meant to be literally relocated to various testing areas and environments. According to Wisk, these will also include specific future eIPP (the FAA's eVTOL Integration Pilot Program) flight test areas in Texas. In fact, real-world data collected from the test flights that will be completed at this new vertiport will contribute directly to the current regulatory and industry initiatives in the US, including the eIPP and the FAA Vertical Lift Infrastructure Advisory Circular. Another interesting feature of the future vertipad was developed by Wisk. They are transceivers installed straight on the pad specifically for improving operations in conditions of low or no visibility. The key fact here is that, even though the new vertiport is meant as a testbed, it's also an actual public airport. Therefore, it will directly act as a stepping stone for fully operational vertiports in the near future. The term vertiport is used to describe the specific infrastructure intended for eVTOL operations, which is different than conventional airports and adapted to the specific conditions of eVTOL operations (including aircraft recharging assets, for instance). Wisk, a wholly owned subsidiary of Boeing, is one of the few companies focused solely on autonomous aviation. Its technology has already reached the 6th generation aircraft, designed to operate at a cruising altitude of 2,500 feet (760 meters), at a cruising speed of 120 knots (222 kph), and with a range of up to 90 minutes (with reserves). This 6th generation aircraft boasts simplified design, meaning fewer moving parts, as well as redundancy built into every flight system, which means that every essential feature has a backup to ensure safety across all stages of the flight. Liked the article? Follow Autoevolution to see more articles from autoevolution in your Google feeds.