Research on the design of a canard wing UAV combined with a trapezoidal main wing

This research presents the design and aerodynamic evaluation of a canard–trapezoidal wing unmanned aerial vehicle (UAV), using both computational and experimental methods. Computational fluid dynamics (CFD) simulations are conducted using ANSYS software to analyze airflow behavior, lift and drag characteristics across various flight velocities ranging from 12 to 80 m/s. The results show the presence of negative pressure regions appearing near leading edge of main wing, while on the canard, these regions appear near leading edge but near the tip of wing. Both lift and drag forces increase with velocity. To validate the simulation results, a physical prototype of the UAV was fabricated and tested under controlled conditions. The results obtained show that the design model has good aerodynamic potential, but further stability adjustments are needed to be able to fly successfully.

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Publication Details

Journal
Journal of Construction
Published
2025-09-20
DOI
https://doi.org/10.64588/jc.04.10.2025
Primary Topic
Advanced Technology in Applications
Type
article
Field-Weighted Citation Impact
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article

Research on the design of a canard wing UAV combined with a trapezoidal main wing

Nguyen Van Cuong, Assoc Prof. Dr Hoang Thi Kim Dung, Luong Hong Phong, Hoang Minh Khoi
Journal of Construction
Advanced Technology in Applications
article

Research on the design of a canard wing UAV combined with a trapezoidal main wing

Nguyen Van Cuong, Assoc Prof. Dr Hoang Thi Kim Dung, Luong Hong Phong, Hoang Minh Khoi
article en

Abstract

This research presents the design and aerodynamic evaluation of a canard–trapezoidal wing unmanned aerial vehicle (UAV), using both computational and experimental methods. Computational fluid dynamics (CFD) simulations are conducted using ANSYS software to analyze airflow behavior, lift and drag characteristics across various flight velocities ranging from 12 to 80 m/s. The results show the presence of negative pressure regions appearing near leading edge of main wing, while on the canard, these regions appear near leading edge but near the tip of wing. Both lift and drag forces increase with velocity. To validate the simulation results, a physical prototype of the UAV was fabricated and tested under controlled conditions. The results obtained show that the design model has good aerodynamic potential, but further stability adjustments are needed to be able to fly successfully.

Journal of Construction
Pomfret School (US), Hanoi University of Science and Technology (VN)
Openalex Percentile: Top 58%
Advanced Technology in Applications
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