A Study of the Strength of ASME Section X FRP Flanges

Sofiane Bouzid, A. Bouzid, A. Ngo
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Abstract

The development of Fiber Reinforced Plastic (FRP) composite pressure vessels and pipping has greatly advanced in the past decades in the residential and industrial sectors to combat corrosion and chemical attacks. FRP composite flanges are known for their anisotropic behavior. In the ASME code section X, FRP composite flanges are treated using an analytical approach derived from that of metallic flanges in addition to the fact that the geometries are made to fit them as much as possible and not designed independently. This is known to have caused structural flaws for certain FRP flange classes and sizes. Using a recently developed anisotropic FRP flange approach, it is proposed to identify the most critical flanges by analyzing the flange parameters such as flange ring rotation and stresses in their different parts; flange ring, hub and shell subjected to pressure loading. The study on the strength of flanges described in ASME section X RD-620.1 table, will reveal the most critical size and class flanges and their highly stressed locations. To conduct such a study, the selected flange material is an E glass/Vinyl Ester laminate composite. The study shows that FRP flanges of class 25 and 50 are most vulnerable and should be less loaded.
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ASME X截面玻璃钢法兰强度研究
在过去的几十年里,纤维增强塑料(FRP)复合压力容器和管道的发展在住宅和工业领域取得了很大的进步,以抵抗腐蚀和化学侵蚀。玻璃钢复合法兰以其各向异性特性而闻名。在美国机械工程师协会(ASME)规范第X节中,玻璃钢复合材料法兰采用源自金属法兰的分析方法进行处理,此外,几何形状要尽可能地与金属法兰相适应,而不是单独设计。已知这导致了某些FRP法兰等级和尺寸的结构缺陷。采用近年来发展起来的各向异性玻璃钢法兰方法,通过分析法兰环旋转和各部位应力等参数,识别出最关键的法兰;法兰环、轮毂和壳体承受压力载荷。对ASME X RD-620.1表中描述的法兰强度的研究将揭示最关键的尺寸和等级的法兰及其高应力位置。为了进行这样的研究,选择的法兰材料是E玻璃/乙烯基酯层压复合材料。研究表明,25级和50级FRP法兰最脆弱,应减小载荷。
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