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Flammability and acoustic absorption of alumina foam/tri-functional epoxy resin composites manufactured by the infiltration process

机译:渗透法制备的氧化铝泡沫/三官能环氧树脂复合材料的易燃性和吸声性

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Ceramic-polymer composites with an interpenetrating network structure have a lot of advantages, which can be achieved by connecting two quite different phases. Infiltration of liquid epoxy resin into the cellular alumina matrix is the most suitable way of producing this type of materials and offers an opportunity for a precise and simple fabrication method of ceramic-based interpenetrating composites. Alumina foams manufactured by "gel-casting" method were infiltrated by new tri-functional epoxy resin (triglycidylized para-aminophenol) designed for special aircraft applications. Combination of this new epoxy resin with high-porous alumina foams causes higher compressive strength and better flammability of ceramic/polymer composite than either individual component. Additionally, alumina/epoxy composites with partial pores filling ratio showed satisfactory acoustic absorption characteristics. Development of this type of composites is a result of need to research new, lightweight materials with increased mechanical strength, non-inflammable and another functional features, e.g. noise reduction ability, design for the aerospace industry. Therefore, presented paper investigates flammability, acoustic absorption and mechanical properties of resulted composites. (C) 2016 Elsevier Ltd. All rights reserved.
机译:具有互穿网络结构的陶瓷-聚合物复合材料具有许多优点,可以通过连接两个完全不同的相来实现。液态环氧树脂渗透到多孔氧化铝基体中是生产此类材料的最合适方法,并且为陶瓷基互穿复合材料的精确和简单制造方法提供了机会。通过“凝胶浇铸”法生产的氧化铝泡沫被设计用于特殊飞机应用的新型三功能环氧树脂(三缩水甘油化的对氨基苯酚)渗透。这种新的环氧树脂与高孔氧化铝泡沫的组合比任何一种单独的组分都具有更高的压缩强度和更好的陶瓷/聚合物复合材料的可燃性。另外,具有部分孔填充率的氧化铝/环氧树脂复合材料表现出令人满意的吸声特性。开发这种复合材料的原因是需要研究新型的轻质材料,这些材料具有更高的机械强度,不燃性和其他功能特性,例如阻燃性。降噪能力强,为航空航天业设计。因此,本文研究了所得复合材料的可燃性,吸声性和机械性能。 (C)2016 Elsevier Ltd.保留所有权利。

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