长丝缠绕高压高温复合管的制造

Mohammed Abdalla Ayoub Mohammed, Mohamed Talballa Elsheikh
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摘要

本文研究了16根e -玻璃纤维复合材料管的缠绕工艺。在加工前,对纤维进行了e -玻璃纤维和碳纤维的拉伸强度测试。采用热重分析(TG)和差示扫描量热法(DSC)对9个聚合物基质实验室标度进行了分析。采用静水压试验对14根损伤管进行了破裂压力测试,测量了缠绕工艺、基体材料和缠绕角度模式的性能。当树脂EPN 1338和E44,固化剂DJ651时,(±45)6、90模式的破裂压力最佳,为11.3 MPa。最后两根管子进行高温试验,第一根管子用85g黑粉,第二根管子用250g黑粉,第一根和第二根管子分别产生约1.38 MPa和5.23 MPa的压力。即使黑粉量增加3倍,第二管的屈服压力也增加了约3.8倍,而第一管和第二管的复合管外部温度分别为48°C和71°C,只增加了约一半。
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Manufacturing of High-Pressure Temperature Composite Tube using Filament Winding
In this study, a winding process for sixteen E-fiberglass composite tube was made. Before the processing, fiber had been tested for tensile strength for E-fiberglass and carbon fiber. Nine polymer matrix laboratory scale were made and analyzed using thermal gravimetric analysis (TG), and differential scanning calorimetry (DSC). Fourteen wounded tubes were tested for burst pressure using hydrostatic test, to measure the performance winding process, matrix material, and winding angle patterns. The pattern (±45)6, 90, with resins EPN 1338 and E44, with curing agent DJ651 gives the best burst pressure, which was 11.3 MPa. The two last tubes were tested for high temperature using 85g black powder for the first tube, and 250g for the second one, producing pressure about 1.38 MPa, and 5.23 MPa for the first and the second tube respectively. Even with increasing black powder amount three times, the yielding pressure increased about 3.8 times in the second tube, while the composite tube outer temperature for the first and the second one was 48°C, and 71°C respectively, which just increased about one-half times.
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