玄武岩纤维缠绕复合管在外载荷作用下的失效机理研究

IF 1 4区 工程技术 Q4 ENGINEERING, MECHANICAL Journal of Pressure Vessel Technology-Transactions of the Asme Pub Date : 2023-08-11 DOI:10.1115/1.4063166
Jie Zhang, Rui Yang, Haoming Sun, D. Xiang
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引用次数: 0

摘要

非金属复合管是输送氢气最有效的方式之一。玄武岩纤维材料可用于氢气管道,建立了复合材料管道在平板和球形压头载荷下的模拟模型,研究了结构参数对管道力学性能和失效模式的影响。结果表明,在球形压头载荷作用下,基体是复合材料管中最薄弱的部分,各纤维层的失效面积随缠绕角度的变化而变化。极限载荷随径厚比的增大而减小,随纤维缠绕角度与轴向的偏差而增大,压痕深度随径厚比增大而增大。在板载作用下,复合管的最终变形受纤维缠绕角度和径厚比的影响。复合材料管道的薄弱部分由于纤维缠绕角度而发生变化,但失效区域从塑性线区域开始。复合材料管道在板载作用下的极限载荷和总吸收能量与缠绕角度成正比,与径厚比成反比。
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Investigate On Failure Mechanism of Basalt Filament Wound Composite Pipe Under External Loads
Non metallic composite pipes are one of the most effective ways to transport hydrogen. Basalt fiber materials can be used on hydrogen pipes, simulation models of composite pipe under plate and spherical indenter loads were established to study the effects of structure parameters on the pipe's mechanical behavior and failure modes. The results show that the matrix is the weakest part of the composite pipe under spherical indenter load, the failure areas of each fiber layer change for winding angle. The ultimate load decreases with the increasing of diameter-thickness ratio, and that increases with a deviation of the fiber winding angle from the axial direction, the indent depth increases with the increasing of diameter-thickness ratio. Under plate load, the final deformation of composite pipe is affected by the fiber winding angle and diameter-thickness ratio. The weak part of composite pipe changes due to the fiber winding angle, but the failure areas start from the plastic line area. The ultimate load and total absorbed energy of composite pipes under plate load is proportional to the winding angle and inversely proportional to the diameter-thickness ratio.
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来源期刊
CiteScore
2.10
自引率
10.00%
发文量
77
审稿时长
4.2 months
期刊介绍: The Journal of Pressure Vessel Technology is the premier publication for the highest-quality research and interpretive reports on the design, analysis, materials, fabrication, construction, inspection, operation, and failure prevention of pressure vessels, piping, pipelines, power and heating boilers, heat exchangers, reaction vessels, pumps, valves, and other pressure and temperature-bearing components, as well as the nondestructive evaluation of critical components in mechanical engineering applications. Not only does the Journal cover all topics dealing with the design and analysis of pressure vessels, piping, and components, but it also contains discussions of their related codes and standards. Applicable pressure technology areas of interest include: Dynamic and seismic analysis; Equipment qualification; Fabrication; Welding processes and integrity; Operation of vessels and piping; Fatigue and fracture prediction; Finite and boundary element methods; Fluid-structure interaction; High pressure engineering; Elevated temperature analysis and design; Inelastic analysis; Life extension; Lifeline earthquake engineering; PVP materials and their property databases; NDE; safety and reliability; Verification and qualification of software.
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