A platform for research: civil engineering, architecture and urbanism
Sound absorption brick based on perlite loaded graphene and preparation method of sound absorption brick
The invention belongs to the field of sound absorption materials for buildings, and relates to a sound absorption brick based on perlite loaded graphene and a preparation method of the sound absorption brick. The sound absorption brick based on perlite-loaded graphene is mainly prepared from the following raw materials in parts by weight: 30-50 parts of a perlite-loaded graphene composite porous material, and 50-70 parts of an adhesive. According to the sound absorption brick based on perlite loaded graphene, perlite is a porous material of a macroporous structure, multiple layers of graphene are synthesized on the surface of perlite through a chemical vapor deposition method, a composite porous material of a porous structure with the adjustable multi-scale gradient is constructed, the composite porous material and the adhesive are compounded to prepare the sound absorption brick, the porosity can be effectively improved, and the specific surface area of the perlite is enabled to be larger. By combining the unique surface characteristics of graphene, the sound absorption effect is remarkably improved, and the sound absorption material is widely applied to the field of building sound absorption materials and effectively improves the space absorption effect.
本发明属于建筑用吸声材料领域,涉及一种基于珍珠岩负载石墨烯的吸声砖及其制备方法。所述基于珍珠岩负载石墨烯的吸声砖,主要由以下重量份数的原料制备而成:珍珠岩负载石墨烯复合多孔材料30~50份;胶粘剂50~70份。本发明提出一种基于珍珠岩负载石墨烯的吸声砖,珍珠岩为大孔结构的多孔材料,在其表面采用化学气相沉积法合成多层石墨烯,构筑多尺度梯度可调的孔结构的复合多孔材料,与胶粘剂复配制备成吸声砖,可以有效提高孔隙度,使珍珠岩比表面积更大;结合石墨烯独特的表面特性,显著提高吸声效果,广泛应用于建筑吸声材料领域,有效提高空间吸效果。
Sound absorption brick based on perlite loaded graphene and preparation method of sound absorption brick
The invention belongs to the field of sound absorption materials for buildings, and relates to a sound absorption brick based on perlite loaded graphene and a preparation method of the sound absorption brick. The sound absorption brick based on perlite-loaded graphene is mainly prepared from the following raw materials in parts by weight: 30-50 parts of a perlite-loaded graphene composite porous material, and 50-70 parts of an adhesive. According to the sound absorption brick based on perlite loaded graphene, perlite is a porous material of a macroporous structure, multiple layers of graphene are synthesized on the surface of perlite through a chemical vapor deposition method, a composite porous material of a porous structure with the adjustable multi-scale gradient is constructed, the composite porous material and the adhesive are compounded to prepare the sound absorption brick, the porosity can be effectively improved, and the specific surface area of the perlite is enabled to be larger. By combining the unique surface characteristics of graphene, the sound absorption effect is remarkably improved, and the sound absorption material is widely applied to the field of building sound absorption materials and effectively improves the space absorption effect.
本发明属于建筑用吸声材料领域,涉及一种基于珍珠岩负载石墨烯的吸声砖及其制备方法。所述基于珍珠岩负载石墨烯的吸声砖,主要由以下重量份数的原料制备而成:珍珠岩负载石墨烯复合多孔材料30~50份;胶粘剂50~70份。本发明提出一种基于珍珠岩负载石墨烯的吸声砖,珍珠岩为大孔结构的多孔材料,在其表面采用化学气相沉积法合成多层石墨烯,构筑多尺度梯度可调的孔结构的复合多孔材料,与胶粘剂复配制备成吸声砖,可以有效提高孔隙度,使珍珠岩比表面积更大;结合石墨烯独特的表面特性,显著提高吸声效果,广泛应用于建筑吸声材料领域,有效提高空间吸效果。
Sound absorption brick based on perlite loaded graphene and preparation method of sound absorption brick
一种基于珍珠岩负载石墨烯的吸声砖及其制备方法
YIN YIMIN (author) / YAN YING (author) / ZHANG HUIPING (author)
2021-04-09
Patent
Electronic Resource
Chinese
Novel structural sound-absorption brick, special mold and preparation method
European Patent Office | 2015
|Sound absorption brick with novel structure, special mould and preparation method
European Patent Office | 2015
|Building porous brick with efficient sound absorption function and preparation method thereof
European Patent Office | 2020
|Taylor & Francis Verlag | 1977
|Low-water-absorption modified waste brick, preparation method thereof and sound insulation mortar
European Patent Office | 2021
|