This project is to study the new technology of sol-gel molecular imprinting with phase separating polymer-immobilized templates in order to overcome the difficulty in molecular imprinting of biomacromolecules and find its application in mimetic molecular recognition of proteins and nucleic acids. A molecular imprinting technique of biomacromolecules has been preliminarily established with a reversed-phase micellar system to prepare a sol-gel molecule-imprinted, inorganic-organic hybrid SiO2 materials. Meanwhile, the "artificial-antibody" nanoparticles prepared with this technique were also applied to the biomimetic fluorescence immunoassay of human IgG. Although a low specificity of recognition is gained in the result due to the nonspecific adsorption of this kind of materials, this research provides a valuable way for the molecular imprinting of biomacromolecules and, therefore, is still important in academic significance.
研究相分离载体溶胶-凝胶分子印记(MIG)新技术,突破生物大分子分子印记的难题,制备新型的MIG材料并考察其理化性质;结合新型荧光探针技术,建立目标分子的高特异性仿生肿邮侗鹩胗饧觳庑路椒ǎ谎芯縈IG模拟酶的分析应用;探索MIG材料在仿生传感器方面的τ谩8醚芯吭谏蒲А⒒肪晨蒲У攘煊蛴兄匾蒲б庖搴陀τ眉壑怠
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数据更新时间:2023-05-31
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