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NASA NTRS · 20250007333

Experimental Study of Aeropropulsive Interactions for Electric Ducted Fans on a Wing

Rose Weinstein·Vincent A Spada·Benjamin M Simmons
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Abstract

The Adaptable Distributed Electric Propulsion Testbed (ADEPT)Wing was tested in the NASA Langley 12-Foot Low-Speed Tunnel to investigate electric propulsion technologies for commercial transport aircraft. The purpose of the test was to study the aeropropulsive effects across angle of attack and fan speed variations for several propulsor placements and array sizes, and to investigate how distributed electric propulsion (DEP) can be leveraged for augmented lift and vehicle control. Six electric ducted fan (EDF) array placements were tested by positioning the fans along the leading and trailing edges on the top and bottom surfaces, as well as centered on the chord line in front of and behind the wing. Each fan placement configuration was tested with an array of one, three, and five EDFs to characterize an aeropropulsive extrapolation effect, and the bare wing was tested separately to provide baseline aerodynamic measurements. The results compare the longitudinal forces and moments for each configuration by analyzing the combined aeropropulsive interaction effects, and offer valuable insight into considerations for fan placement along a wing to enable the benefits of DEP integration.

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BibTeXRIS

Rose Weinstein, Vincent A Spada, Benjamin M Simmons. 2026-03-06. Experimental Study of Aeropropulsive Interactions for Electric Ducted Fans on a Wing. https://ntrs.nasa.gov/citations/20250007333

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