手性纳米结构材料构建及其生物学应用

Construction of chiral nanostructured materials and the biological applications

  • 摘要: 综述了手性纳米结构材料的构建方法及其在生物学应用中的最新进展。首先,介绍了手性纳米结构材料的基本概念及其分类,包括无机手性纳米材料和手性超分子组装体。随后,详细阐述了手性纳米结构材料的多种构建策略,如表面辅助自组装、自组装与手性传递、湿化学法、手性配体修饰及手性掺杂等,并讨论了这些策略在调控手性纳米结构形态和性质方面的优势与局限。在生物学应用方面,重点讨论了手性纳米结构材料在生物医药(药物合成与递送、疾病诊断与治疗)、组织工程(干细胞分化调控和组织修复与再生)和生物催化等领域的应用实例。此外,手性纳米结构材料在手性识别和纳米反应器等领域也表现出独特的应用前景。最后提出了手性纳米材料在生物学应用中面临的挑战,如手性纳米结构的稳定性、生物相容性以及大规模制备等。针对这些问题,提出了未来研究方向和发展趋势。

     

    Abstract: The construction methods of chiral nanostructured materials and their latest progress in biological applications was reviewed. Firstly, the basic concepts and classification of chiral nanostructured materials were introduced, including inorganic chiral nanomaterials and chiral supramolecular assemblies. Subsequently, various construction strategies of chiral nanostructured materials were elaborated in details, such as surface-assisted self-assembly, self-assembly with chiral transfer, wet chemical method, chiral ligand modification, and chiral doping. The advantages and limitations of these strategies in regulating the morphology and properties of chiral nanostructures were discussed. In terms of biological applications, the application examples of chiral nanostructured materials in the fields of biomedicine (drug synthesis and delivery, disease diagnosis and treatment), tissue engineering (stem cell differentiation regulation, tissue repair and regeneration) and biocatalysis were mainly discussed. In addition, the chiral nanostructured materials also showed unique application prospects in the fields of chiral recognition, nanoreactors, etc. Finally, the challenges faced by chiral nanomaterials in biological applications were presented, such as the stability of chiral nanostructures, biocompatibility, and large-scale preparation. In response to these issues, the future research directions and development trends were proposed.

     

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