Aerodynamic performance of O-ring paper plane \ Amirul Ashraf Hassan

The O-ring paper plane can be categorized as one of the Micro Air Vehicle (MAV) based on their characteristics and size, however, the aerodynamics performance of the O-ring paper plane are not fully discovered by previous researchers due to the complexity of the aerodynamics and design. Thus, the ob...

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Bibliographic Details
Main Author: Hassan, Amirul Ashraf
Format: Student Project
Language:English
Published: 2017
Subjects:
Online Access:http://ir.uitm.edu.my/id/eprint/35067/1/35067.pdf
http://ir.uitm.edu.my/id/eprint/35067/
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Summary:The O-ring paper plane can be categorized as one of the Micro Air Vehicle (MAV) based on their characteristics and size, however, the aerodynamics performance of the O-ring paper plane are not fully discovered by previous researchers due to the complexity of the aerodynamics and design. Thus, the objectives of this research are to compare the aerodynamics performance of O-ring paper plane based on the different hoop sizing and to find the effect of hoop size on the aerodynamic of O-ring paper plane. The O-ring CAD designs are initially developed by using the ANSYS- Design Modeler before the aerodynamic simulation executed based on ANSYS-CFX simulation. Three types of O-ring paper plane known as Design 1, 2 and 3 which has different hoop size for front and rear hoop are used for ANSYS-CFX simulations. The results shows that the lift coefficient (CL ) for Design 2 and Design 3 stall at 30° which is higher 4° than Design 1. The maximum lift coefficient (CLmax) results also shows that Design 3 has the better CLmaxat 0.613482 which is 6.32% and 14.22% higher than the Design 2 and Design 1, respectively. Based on the minimum drag coefficient (CDmin ) analysis, all design produce almost similar CDmin at AOA= 0°. However, at this stage, Design 3 produces the lowest CDmin at 0.015459 which is 3.5% and 1.43% lower than Design 1 and Design 2, respectively. The moment coefficient analysis shows that Design 3 produce the steepest curve slope value at ACL/ACm= -0.444 which is 5.16% and 12.12% higher than Design 2 and Design 1, respectively. This result signifies a potential in Design 3 to be more stable compared