
doi: 10.2172/921608
An exploratory effort in the application of carbon epoxy composite structural materials to a multi-axis gimbal arm design is described. An existing design in aluminum was used as a baseline for a functionally equivalent redesigned outer gimbal arm using a carbon epoxy composite material. The existing arm was analyzed using finite element techniques to characterize performance in terms of strength, stiffness, and weight. A new design was virtually prototyped. using the same tools to produce a design with similar stiffness and strength, but reduced overall weight, than the original arm. The new design was prototyped using Rapid Prototyping technology, which was subsequently used to produce molds for fabricating the carbon epoxy composite parts. The design tools, process, and results are discussed.
Performance Materials, Design, 36 Materials Science, Aluminium, Building Materials, Composite Materials, Flexibility, Materials, Synthetic Aperture Radar, Carbon
Performance Materials, Design, 36 Materials Science, Aluminium, Building Materials, Composite Materials, Flexibility, Materials, Synthetic Aperture Radar, Carbon
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