纺织品在高喷射压力下的面外饱和渗透性和变形测量

IF 1.8 Q3 ENGINEERING, MANUFACTURING
Bjoern Willenbacher, D. May, P. Mitschang
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引用次数: 0

摘要

面外浸渍和高注射压力是减少液体复合成型工艺周期的关键策略。这两种策略的结合为汽车零部件的大批量生产提供了一种有前途的方法。在这种情况下,提出了一种新的测试系统,该系统可以在高达200 bar的注射压力水平下对纺织品的饱和面外流体流动进行反应表征。对于任何给定的工程纺织品,可以测量初始纤维体积含量、层数和注入压力的不同组合所产生的面外渗透性和总水动力压实。在常规无卷曲织物上进行的初步测试表明,压力水平高达95 bar时,压实引起的面外渗透率下降,而压力水平在95至170 bar之间时,渗透率保持不变。换句话说,在95 bar以上,压力的进一步增加直接带来了流量的增加。识别这些加工窗口对于工艺设计非常有价值。图形抽象
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Saturated out-of-plane permeability and deformation metrology of textiles at high levels of injection pressure
Abstract Out-of-plane impregnation and high levels of injection pressure are key strategies for cycle time reduction in Liquid Composite Molding processes. The combination of these two strategies provides a promising approach for large volume production of automotive components. In this context, a novel test system is presented, which allows the textile reaction characterization to saturated out-of-plane fluid flow at injection pressure levels of up to 200 bar. For any given engineering textile, the resulting out-of-plane permeability and total hydrodynamic compaction can be measured for different combinations of initial fiber volume content, number of layers and injection pressure. Initial tests on a conventional non-crimp fabric show a compaction-induced out-of-plane permeability decrease for pressure levels up to 95 bar, while for pressure levels between 95 and 170 bar the permeability remains constant. In other words above 95 bar, a further increase in pressure directly pays off in terms of increased flow rate. The identification of such processing windows can be very valuable for process design. Graphical Abstract
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CiteScore
4.00
自引率
0.00%
发文量
11
审稿时长
16 weeks
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