journal article·2007-11

Head Shape and Winding Angle Optimization of Composite Pressure Vessels Based on a Multi-level Strategy

A. Vafaeesefat, A. Khani

Applied Composite Materials· Volume 14· Issue 5-6
Publisher page

Abstract

This paper presents a multi-level strategy for the optimization of composite pressure vessels with nonmetallic liners. The design variables for composite vessels include the head shape, the winding angle, the layer thickness, the number of layers, and the stacking sequence. A parameter called “modified shape factor” is introduced as an objective function. This parameter takes into account the effects of the internal pressure and volume, the vessel weight, and the composite material properties. The proposed algorithm uses genetic algorithm and finite element analysis to optimize the design parameters. As a few examples, this procedure is implemented on geodesic and ellipsoidal heads. The results show that for the given vessel conditions, the geodesic head shape with helical winding angle of nine degrees has the better performance.
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Research context

OpenAlex topics: Mechanical Engineering and Vibrations Research · Engineering Applied Research · Engineering Structural Analysis Methods

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References (11)

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