Department of Chemistry, University of Basel, Klingelbergstrasse 80, CH-4056 Basel, Switzerland.
Nanomedicine (Lond). 2013 Mar;8(3):425-47. doi: 10.2217/nnm.13.11.
The field of nanoscience is expected to make significant contributions to contemporary medicine by providing unique solutions to critical problems. These solutions require the design of hybrid materials/systems with new properties and functionalities. This review focuses on spherical polymer nanocompartments (capsules and vesicles) and describes their potential in a wide variety of medical applications that range from passive drug carriers to active nanoreactors to artificial organelles. Here, we place emphasis on the complex requirements that a polymer assembly must fulfill for consideration in the medical domain. In terms of stability and chemical diversity, synthetic polymer compartments are superior to currently marketed liposomes, thereby supporting their modification for targeting approaches, stimuli-responsiveness, and multifunctionality. The authors present the latest concepts and examples based on the encapsulation/entrapment of biomolecules (e.g., enzymes and proteins) for the development of active nanosystems for application in the medical domain.
纳米科学领域有望通过为关键问题提供独特的解决方案,为当代医学做出重大贡献。这些解决方案需要设计具有新性能和功能的混合材料/系统。本综述重点介绍了球形聚合物纳米隔室(胶囊和囊泡),并描述了它们在从被动药物载体到主动纳米反应器再到人工细胞器等广泛的医学应用中的潜力。在这里,我们强调了聚合物组装体在医疗领域中必须满足的复杂要求。在稳定性和化学多样性方面,合成聚合物隔室优于目前市场上的脂质体,从而支持对其进行修饰以实现靶向方法、对刺激的响应性和多功能性。作者根据生物分子(例如酶和蛋白质)的包封/包埋提出了最新的概念和实例,用于开发应用于医学领域的主动纳米系统。