ANALYZE ON VARIATION COMPOSITION OF COMPOSITE POLYMER FOAM POLYURETHANE REINFORCED BY BAGASSE WASTE DUE TO STATIC COMPRESSIVE LOADING

Aidi Sutikno, Taufan Arif Adlie, Zainal Arif
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Abstract

At this time, the discovery in the field of composites continues to grow. Using foamed polymer composites reinforced with natural fibers continues to be researched and developed to obtain alternative materials to replace metals. Composite materials have unique characteristics and are lighter in weight. Natural fibers from bagasse fiber can function as reinforcement in polymer composites. This study aimed to obtain the effect of variations in bagasse fiber on composite polymer foam materials due to compressive strength loads. This polymer composite material was made by varying bagasse fiber with a mesh fiber size of 300, 400, and 500. Three variations of the constituent materials were measured based on the density ratio of the materials. The constituent materials consist of resin, polyurethane, and fiber, respectively are: label A = (85%, 15%, 0%); label B = (84%, 15%, 1%); Label C = (83%,15%, 2%); and label D = (82%, 15%, 3%). Specimens, for each composition, are three specimens. The technique for making specimens uses the method of pouring into molds concerning ASTM D-638. The testing machine for compressive strength of this polymer composite material using the Tensilon RTF-1350 tool. From the data obtained from the results of the maximum compressive strength test occurs in the fiber size of the specimen labeled D (500 Mesh) with a compressive stress of 5.674 MPa and a strain of 0.186 mm/mm. From these data, it can be concluded that the smaller the size of the bagasse fiber, the better the tensile strength of the polymer foam composite material.
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甘蔗渣增强复合聚合物泡沫聚氨酯在静压缩载荷作用下的组分变化分析
此时,在复合材料领域的发现不断增长。利用天然纤维增强的泡沫聚合物复合材料不断被研究和开发,以获得替代金属的替代材料。复合材料具有独特的特性,重量更轻。甘蔗渣纤维中提取的天然纤维可作为高分子复合材料的增强材料。本研究旨在了解甘蔗渣纤维含量的变化对复合聚合物泡沫材料抗压强度载荷的影响。这种聚合物复合材料是由不同的甘蔗渣纤维制成的,网状纤维的尺寸为300、400和500。根据材料的密度比,测量了组成材料的三种变化。组成材料为树脂、聚氨酯、纤维,标签A = (85%, 15%, 0%);标签B = (84%, 15%, 1%);标签C = (83%,15%, 2%);标签D =(82%, 15%, 3%)。每种成分的标本为三个标本。制作样品的技术采用ASTM D-638规定的浇筑模具的方法。使用Tensilon RTF-1350工具测试这种聚合物复合材料的抗压强度。从最大抗压强度试验结果得到的数据来看,发生在纤维尺寸为D(500目)的试样中,其抗压应力为5.674 MPa,应变为0.186 mm/mm。从这些数据可以得出结论,蔗渣纤维的粒径越小,聚合物泡沫复合材料的抗拉强度越好。
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