Authors :
Solomon Ileanaju Ugbane; Chima Umeaku; Idoko Peter Idoko; Lawrence Anebi Enyejo; Comfort Idongesit Michael; Onuh Matthew Ijiga
Volume/Issue :
Volume 9 - 2024, Issue 10 - October
Google Scholar :
https://tinyurl.com/2nfc3kxv
Scribd :
https://tinyurl.com/hpmpcrz6
DOI :
https://doi.org/10.38124/ijisrt/IJISRT24OCT1820
Note : A published paper may take 4-5 working days from the publication date to appear in PlumX Metrics, Semantic Scholar, and ResearchGate.
Abstract :
The optimization of quadcopter propeller
aerodynamics is crucial for enhancing the efficiency and
stability of unmanned aerial vehicles (UAVs), especially in
their increasing applications across various sectors,
including humanitarian relief and delivery services. This
study focuses on optimizing quadcopter propeller
performance using Blade Element Theory and Glauert
Vortex Theory to analyze the aerodynamic properties and
predict thrust generation accurately. Experimental
methods, including wind tunnel testing and static thrust
measurements, were used to validate the theoretical
models. The results indicate a close correlation between
theoretical predictions and experimental data, providing
insights into improving propeller efficiency and mitigating
aerodynamic losses. By understanding the propeller
characteristics, this research contributes to the
development of advanced drone propulsion systems with
enhanced thrust, reduced drag, and better overall flight
performance. The findings also highlight the impact of
environmental factors such as turbulence and blade
geometry on quadcopter stability, pointing toward areas
for further improvement in propeller design. This paper
serves as a valuable resource for drone hobbyists,
engineers, and researchers seeking to enhance UAV
performance through optimized propeller aerodynamics.
Keywords :
Quadcopter, Propeller Aerodynamics, Blade Element Theory, Vortex Theory, UAV Optimization, Thrust Prediction, Drag Reduction, Drone Propulsion, Wind Tunnel Testing, Aerodynamic Efficiency.
References :
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The optimization of quadcopter propeller
aerodynamics is crucial for enhancing the efficiency and
stability of unmanned aerial vehicles (UAVs), especially in
their increasing applications across various sectors,
including humanitarian relief and delivery services. This
study focuses on optimizing quadcopter propeller
performance using Blade Element Theory and Glauert
Vortex Theory to analyze the aerodynamic properties and
predict thrust generation accurately. Experimental
methods, including wind tunnel testing and static thrust
measurements, were used to validate the theoretical
models. The results indicate a close correlation between
theoretical predictions and experimental data, providing
insights into improving propeller efficiency and mitigating
aerodynamic losses. By understanding the propeller
characteristics, this research contributes to the
development of advanced drone propulsion systems with
enhanced thrust, reduced drag, and better overall flight
performance. The findings also highlight the impact of
environmental factors such as turbulence and blade
geometry on quadcopter stability, pointing toward areas
for further improvement in propeller design. This paper
serves as a valuable resource for drone hobbyists,
engineers, and researchers seeking to enhance UAV
performance through optimized propeller aerodynamics.
Keywords :
Quadcopter, Propeller Aerodynamics, Blade Element Theory, Vortex Theory, UAV Optimization, Thrust Prediction, Drag Reduction, Drone Propulsion, Wind Tunnel Testing, Aerodynamic Efficiency.