Departament d'Enginyeria Química, EEBE, Universitat Politècnica de Catalunya, C/Eduard Maristany, 10-14, Ed. I2, 08019, Barcelona, Spain.
Soft Matter. 2019 Apr 7;15(13):2722-2736. doi: 10.1039/c8sm02513d. Epub 2019 Mar 14.
Molecular sensing, water purification and desalination, drug delivery, and DNA sequencing are some striking applications of biomimetic hybrid membranes. These devices take advantage of biomolecules, which have gained excellence in their specificity and efficiency during billions of years, and of artificial materials that load the purified biological molecules and provide technological properties, such as robustness, scalability, and suitable nanofeatures to confine the biomolecules. Recent methodological advances allow more precise control of polymer membranes that support the biomacromolecules, and are expected to improve the design of the next generation of membranes as well as their applicability. In the first section of this review we explain the biological relevance of membranes, membrane proteins, and the classification used for the latter. After this, we critically analyse the different approaches employed for the production of highly selective hybrid membranes, focusing on novel materials made of self-assembled block copolymers and nanostructured polymers. Finally, a summary of the advantages and disadvantages of the different methodologies is presented and the main characteristics of biomimetic hybrid membranes are highlighted.
仿生杂化膜在分子传感、水净化和除盐、药物输送和 DNA 测序等方面有一些显著的应用。这些设备利用了生物分子,它们在数十亿年的时间里获得了卓越的特异性和效率,以及人工材料,这些材料可以负载纯化的生物分子,并提供技术特性,如坚固性、可扩展性和合适的纳米特征来限制生物分子。最近的方法学进展允许对支持生物大分子的聚合物膜进行更精确的控制,并有望改善下一代膜的设计及其适用性。在本综述的第一部分,我们解释了膜、膜蛋白的生物学相关性,以及后者的分类。在此之后,我们批判性地分析了用于生产高选择性杂化膜的不同方法,重点是由自组装嵌段共聚物和纳米结构聚合物制成的新型材料。最后,总结了不同方法的优缺点,并强调了仿生杂化膜的主要特点。