Flight Trajectory Aircrafts Advanced Air Mobility Multi Rotor Flight Control Surfaces Vertical Takeoff and Landing Spacecraft Design Short Takeoff and Landing ASCENT Aviation Technology Energy Consumption
A broad range of advanced air mobility (AAM) aircraft are currently in development, each with varying community noise footprints and energy consumption depending on the specifics of their departure and arrival flight trajectories, which must be understood for effective airspace integration. This work presents a framework for analyzing AAM trajectory design, focusing on key performance characteristics, including community noise impact, energy consumption, and flight duration. The framework can be applied to diverse AAM vehicle types, as demonstrated in this work on a blown-flap short takeoff and landing vehicle, a tilt-rotor vertical takeoff and landing vehicle, and a lift-plus-cruise vertical takeoff and landing vehicle. Results of comparing various takeoff procedures for each vehicle show tradeoffs between community noise, energy consumption, and flight duration, highlighting the importance of strategic trajectory design.
Metrics
1 Record Views
Details
Title
Impact of Takeoff Trajectory Design on Performance and Noise for Advanced Air Mobility Aircraft
Creators
Victoria Gonzalez - University of California, Irvine
Seraphin Yeung - University of California, Irvine
Jacqueline Huynh - University of California, Irvine
R. John Hansman - Massachusetts Institute of Technology
Publication Details
Journal of aircraft, pp.1-16
Academic Unit
Aviation Sustainability Center (ASCENT); Noise
Number of pages
16
Grants
13-C-AJFE-MIT-112, Federal Aviation Administration (United States, Washington) - FAA
13-C-AJFE-MIT-131, Federal Aviation Administration (United States, Washington) - FAA
Grant note
Federal Aviation Administration
Office of Environment and Energy