Image Credit: Joby Aviation
In a world that runs on data, computer simulations are among our most powerful tools for investigating any scenario. The same is true for NASA Advanced Air Mobility (AAM) researchers as they plan the future of the national airspace. Together with industry partners, these researchers are delivering the data needed to allow self-flying electric air taxis and drones to execute flight paths as easily as your phone maps your car’s route.

2 Federal Aviation Administration (FAA) data scientist Sarah Eggum, left, and FAA Unmanned Aircraft System Integration Office program manager Brad Drake analyze flight altitude data on Sept.19 in Marina, California. In the background, NASA research pilot Wayne Ringleberg and NASA project operations engineer Andrew Guion execute flight paths in Joby Aviation’s S4 simulator. Image Credit: Joby Aviation
Pilots and flight engineers with NASA’s AAM National Campaign are collaborating with Joby Aviation on a series of flight test simulations in Joby’s vehicle simulator. The reference data they gather will provide insight into how these vehicles will fly in the airspace and help develop potential departures, approaches, missed approaches, and mid-flight waypoints.
Integrating these in-flight maneuvers – which are used by aircraft to take off, land, and avoid hazards and each other – into AAM operations is one of several developmental efforts necessary to allow these vehicles to safely enter the airspace.
Four NASA research pilots have flown the Joby simulator, which includes joystick controls, avionics, and performance modeling that duplicate the feel of flying Joby’s S4 air taxi. The tests involve flying the simulator along designated route waypoints, collecting data to analyze which maneuvers are best for obstacle avoidance, route efficiency, passenger comfort, and noise.

NASA research pilots David Zahn, left, and Wayne Ringleberg at the controls of Joby Aviation’s S4 simulator entering and testing flight path data to develop navigation codes. Image Credit: Joby Aviation
The simulations also experiment with a new flight path concept the Federal Aviation Administration (FAA) calls a deproach, in which a vehicle can fly in multiple directions as it travels to and from its starting point and adapt beyond its designated flight path if it needs to respond to air restrictions.
In this way, the deproach could address the need for AAM vehicles to be able to operate flexibly at low altitudes while conserving airspace.
“You can think of a deproach as a circular traffic profile which consolidates departure, approach, and missed procedures in a way current airspace models don’t account for,” said David Zahn, a NASA pilot leading the project’s Joby simulator work. “The ability to explore this new model and help streamline the process of reaching specific vertiports is an example of the value of these simulations.”
Alongside fine-tuning this procedure, the simulation test data will establish basepoints of altitude, maneuverability, and ride quality for future tests and ultimately help identify the most successful operating practices for these vehicles.
NASA’s research pilots and engineers are also using the data to produce autopilot code and navigation information specific to air taxis for airborne navigation system databases. This code has been built in collaboration with the FAA, whose representatives were present at the tests as part of the two agencies’ broader partnership on AAM.
NASA is bringing its aeronautical expertise to this new industry, combining these simulations with other research tools like virtual airspace tabletop exercises and surrogate vehicle test flights. Data and results from these efforts will be released to the public in the form of a series of technical papers, assisting the industry in moving forward.
Laura Mitchell
Armstrong Flight Research Center
Beau Holder
Armstrong Flight Research Center
Editor: Cody Lydon
Tags: Aeronautics, Ames Research Center, Armstrong Flight Research Center, Benefits to You, Future Aircraft, Green Aviation, High-Tech Computing
…notes from SP


더 많은 스토리
SkyDrive: Unlocking Air Travel Accessibility with Compact eVTOLs
호라이즌 AAM 하이브리드 전기 카보라이트 X7 항공기, 전진 비행으로 역사적인 전환 달성
젯슨과 유로셋, eVTOL 기술과 첨단 의료 솔루션으로 응급 UAM 대응을 혁신하여 생명을 구하다
UAM eVTOL 항공 레이싱의 미래가 대담한 발걸음을 내디뎠습니다.
AAM 분야의 디자인: 프랭크 스티븐슨 디자인의 수석 디자이너, 유안 맥퍼슨이 오토플라이트의 개발에 대해 이야기합니다.
베타 버전, 유타주 전역에서 비행 시연 완료
ALEF - 플라잉 카: 도시 모빌리티의 미래 개척
신생 기업 고브, 플라잉 카 모빌리티 현실화를 위해 노력하다
젯슨 테스트는 세계 최초의 유인 eVTOL 항공 레이싱 테스트를 통해 민첩성의 한계를 시험합니다!
이브, eVTOL 개발을 위한 1억 4천만 달러 대출 확보
슈퍼널, 블레이드와 협력하여 통신사 및 네트워크 모델 탐색
독일 에어택시 제조업체 릴리움, 파산 신청 예정