堆叠顺序对用于 CNG 储存的玻璃/环氧 IV 型复合材料外包装压力容器爆破压力的影响

IF 3 2区 工程技术 Q2 ENGINEERING, MECHANICAL
Lucas L. Agne , José Humberto S. Almeida Jr , Sandro C. Amico , Maikson L.P. Tonatto
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引用次数: 0

摘要

通过使用更轻、性能更高的结构来减少对环境的影响,是压缩天然气(CNG)储存压力容器从金属向复合材料转变的驱动力。这项研究的重点是通过优化复合材料包覆层的堆叠顺序,提高 IV 型复合材料包覆压力容器 (COPV) 的内部压力强度。为揭示对称效应,开发了参数有限元 (FE) 模型。在这些模型中,转折区的厚度增加和纤维角度变化都得到了精确模拟。随后,以爆破强度最大化为目标函数对堆叠顺序进行了优化。参数建模表明,将 COPV 表示为轴对称连续体可降低 5400 倍的计算成本,同时得出的结果可与全三维连续体模型相媲美。为验证数值预测结果,进行了爆破试验,两者之间的压力差为 12.6%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Impact of stacking sequence on burst pressure in glass/epoxy Type IV composite overwrapped pressure vessels for CNG storage

The shift from metallic to composite pressure vessels for storing compressed natural gas (CNG) is driven by the goal of reducing environmental impact by using lighter higher-performing structures. This work focuses on enhancing the internal pressure strength of a type IV composite overwrapped pressure vessel (COPV) by optimising the stacking sequence of the overwrapping composite layers. Parametric finite element (FE) models are developed to reveal symmetry effects. In these models, both the thickness build-up and fibre angle variation at the turnaround zones are accurately modelled. Subsequently, the stacking sequence is optimised with the objective function of maximising burst strength. The parametric modelling demonstrates that representing the COPV as an axisymmetric continuum reduces computational costs in 5400× while yielding results comparable to full 3D continuum models. Experimental burst tests are carried out to validate the numerical predictions, and the difference in pressure between them is 12.6 %.

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来源期刊
CiteScore
5.30
自引率
13.30%
发文量
208
审稿时长
17 months
期刊介绍: Pressure vessel engineering technology is of importance in many branches of industry. This journal publishes the latest research results and related information on all its associated aspects, with particular emphasis on the structural integrity assessment, maintenance and life extension of pressurised process engineering plants. The anticipated coverage of the International Journal of Pressure Vessels and Piping ranges from simple mass-produced pressure vessels to large custom-built vessels and tanks. Pressure vessels technology is a developing field, and contributions on the following topics will therefore be welcome: • Pressure vessel engineering • Structural integrity assessment • Design methods • Codes and standards • Fabrication and welding • Materials properties requirements • Inspection and quality management • Maintenance and life extension • Ageing and environmental effects • Life management Of particular importance are papers covering aspects of significant practical application which could lead to major improvements in economy, reliability and useful life. While most accepted papers represent the results of original applied research, critical reviews of topical interest by world-leading experts will also appear from time to time. International Journal of Pressure Vessels and Piping is indispensable reading for engineering professionals involved in the energy, petrochemicals, process plant, transport, aerospace and related industries; for manufacturers of pressure vessels and ancillary equipment; and for academics pursuing research in these areas.
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