首页> 外国专利> Bionic composite materials, where the materials are constructed from resilient connective tissue fibers with genetic methodology and/or organic-technological methods and from biological coupling molecules such as laminin and fibronectin

Bionic composite materials, where the materials are constructed from resilient connective tissue fibers with genetic methodology and/or organic-technological methods and from biological coupling molecules such as laminin and fibronectin

机译:仿生复合材料,其中的材料由具有遗传学方法和/或有机技术方法的弹性结缔组织纤维以及由层粘连蛋白和纤连蛋白等生物偶联分子构成

摘要

The bionic composite materials, is claimed, where the materials are: constructed, with genetic methodology and/or organic-technological methods, from resilient connective tissue fibers (fibrillin-microfibrils, elastin, oxytalan fibrils and analogous fibrils and fiber structures of a resilient system of an extracellular matrix of connective tissues) and biological coupling molecules such as laminin and fibronectin; and compensated and/or dissipated to conduct electrical loads along the fiber structures and the coupling molecules and/or over the fiber- or fiber structures of the materials. The bionic composite materials, is claimed, where the materials are: constructed, with genetic methodology and/or organic-technological methods, from resilient connective tissue fibers (fibrillin-microfibrils, elastin, oxytalan fibrils and analogous fibrils and fiber structures of a resilient system of an extracellular matrix of connective tissues) and biological coupling molecules such as laminin and fibronectin; and compensated and/or dissipated to conduct electrical loads along the fiber structures and the coupling molecules and/or over the fiber- or fiber structures of the bionic materials. The materials have a biotechnological exploitation of a biodigital bioelectric signal generation and signal transmission along the designated native supramolecular protein structures. The coupling molecules have semiconductive properties, and the bionic material is stored within a resilient fibrillar network by an electrical charge. The materials are obtained form resilient microfibril-fabrics, fibers, complex elastic fibers or other structures from the genetic material of vertebrates, resilient fibrils, fibrillin-rich microfibrils and elastic fibers of the extracellular matrix of body tissues of animal species of other animal classes such as animal species of arthropods, insects and drosophila with inclusion of resilin, fibrillin-rich microfibrils in nano-fibril level and/or polyps and jellyfish with the fibrillin rich microfibrils. The materials have a desired temperature of 37[deg] C and a smaller moisture content. The materials are obtained, with the genetic methodology, from cellular and tissue samples of battle-fresh warm blooded animals for slaughter of agriculture. The complex of resilient fiber structures is obtained from central elastin core and surrounds the resilient microfibrils, where the defined resilient and electrical characteristics are incorporated with the specific coupling molecules. The electrical loads are conducted and/or derived by the bionic material and are capacitively stored in a defined manner. The electric conductivity of the bionic material is larger than an ionic conductivity of the bionic material. Catalyst in an aqueous solution having characteristic properties is obtained by a humid or aqueous environment or an electrolyte solution, where an interstitial tissue is represented by a body tissue. The bionic composite materials are manufactured in connection with collagen or other polymer materials. The biopolymers are changed with technical and biotechnological methods with additional synthetic steps to optimize biophysical, biochemical and material-technical properties and to adapt other concrete applications. The materials are insertable as biogenous nanoelectronic signal lead structure in the conceptual of DNA-computer, and the structures of the resilient fibrillar fibers and microfibrils are used together with other intracellular signal line simulating native, biotechnologically manufactured protein structures with usable organic-electronic properties.
机译:要求保护该仿生复合材料,其中该材料是:用遗传学方法和/或有机技术方法,由弹性结缔组织纤维(原纤细蛋白原纤,弹性蛋白,羟talan原纤和类似原纤以及弹性系统的纤维结构)制成结缔组织的细胞外基质)和诸如层粘连蛋白和纤连蛋白的生物偶联分子;并被补偿和/或耗散以沿着纤维结构和耦合分子和/或在材料的纤维或纤维结构上传导电负载。要求保护该仿生复合材料,其中该材料是:用遗传学方法和/或有机技术方法,由弹性结缔组织纤维(原纤细蛋白原纤,弹性蛋白,羟talan原纤和类似原纤以及弹性系统的纤维结构)制成结缔组织的细胞外基质)和诸如层粘连蛋白和纤连蛋白的生物偶联分子;并被补偿和/或耗散以沿着纤维结构和耦合分子和/或在仿生材料的纤维或纤维结构上传导电负载。该材料具有生物数字生物电信号产生和沿指定的天然超分子蛋白质结构的信号传输的生物技术开发。偶联分子具有半导体性质,仿生材料通过电荷存储在弹性原纤维网络中。这些材料是从脊椎动物的遗传物质,弹性原纤维,富含原纤维的微纤维和其他动物类别动物物种的身体组织的细胞外基质的弹性纤维中获得的,是从弹性微纤维织物,纤维,复杂的弹性纤维或其他结构中获得的。作为节肢动物,昆虫和果蝇的动物物种,其中包括弹性蛋白,纳米原纤维水平的富含原纤维蛋白的微纤维和/或含有富含原纤维蛋白的微纤维的息肉和水母。该材料具有37℃的期望温度和较小的水分含量。这些材料是通过遗传学方法从用于屠杀农业的鲜鲜温血动物的细胞和组织样本中获得的。弹性纤维结构复合物是从中央弹性纤维芯获得的,并围绕弹性微原纤维,其中定义的弹性和电学特性与特定的偶联分子结合在一起。电负载由仿生材料传导和/或导出,并以定义的方式电容性存储。仿生材料的电导率大于仿生材料的离子电导率。具有特征特性的水溶液中的催化剂是通过湿润或水性环境或电解质溶液获得的,其中组织组织以身体组织为代表。仿生复合材料是与胶原蛋白或其他聚合物材料一起制造的。通过技术和生物技术方法以及其他合成步骤来改变生物聚合物,以优化生物物理,生化和材料技术特性并适应其他具体应用。该材料可作为DNA计算机概念中的生物纳米电子信号导线结构插入,并且弹性纤维状纤维和微纤维的结构与其他细胞内信号线一起使用,这些信号线模拟具有可利用的有机电子特性的天然生物技术制造的蛋白质结构。

著录项

  • 公开/公告号DE102011109548A1

    专利类型

  • 公开/公告日2013-03-28

    原文格式PDF

  • 申请/专利权人 REGLING GUENTER;

    申请/专利号DE201110109548

  • 发明设计人 ANTRAG AUF NICHTNENNUNG;

    申请日2011-08-04

  • 分类号C07K14/00;

  • 国家 DE

  • 入库时间 2022-08-21 16:22:10

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