Department of Chemistry, University of Basel, Basel, Switzerland.
National Centre of Competence in Research-Molecular Systems Engineering, Basel, Switzerland.
Expert Opin Drug Deliv. 2024 Sep;21(9):1395-1413. doi: 10.1080/17425247.2024.2403476. Epub 2024 Sep 27.
Rapid excretion of drug derivatives often results in short drug half-lives, necessitating frequent administrations. Catalytic compartments, also known as nano- and microreactors, offer a solution by providing confined environments for production of therapeutic agents. Inspired by natural compartments, polymer-based catalytic compartments have been developed to improve reaction efficiency and enable site-specific therapeutic applications.
Polymer-based compartments provide stability, permeability control, and responsiveness to stimuli, making them ideal for generating localized compounds/signals. These sophisticated systems, engineered to carry active compounds and enable selective molecular release, represent a significant advancement in pharmaceutical research. They mimic cellular functions, creating controlled catalytic environments for bio-relevant processes. This review explores the latest advancements in synthetic catalytic compartments, focusing on design approaches, building blocks, active molecules, and key bio-applications.
Catalytic compartments hold transformative potential in precision medicine by improving therapeutic outcomes through precise, on-site production of therapeutic agents. While promising, challenges like scalable manufacturing, biodegradability, and regulatory hurdles must be addressed to realize their full potential. Addressing these will be crucial for their successful application in healthcare.
药物衍生物的快速排泄往往导致药物半衰期较短,需要频繁给药。催化隔间,也称为纳米和微反应器,通过为治疗剂的生产提供封闭的环境来提供解决方案。受自然隔间的启发,已经开发出基于聚合物的催化隔间,以提高反应效率并实现靶向治疗应用。
基于聚合物的隔间提供了稳定性、渗透性控制和对刺激的响应性,使其成为生成局部化合物/信号的理想选择。这些复杂的系统旨在携带活性化合物并实现选择性分子释放,是药物研究的重大进展。它们模拟细胞功能,为生物相关过程创造受控的催化环境。本综述探讨了合成催化隔间的最新进展,重点介绍了设计方法、构建模块、活性分子和关键的生物应用。
催化隔间通过精确、现场生产治疗剂来提高治疗效果,在精准医学中具有变革性的潜力。虽然前景广阔,但必须解决可扩展性制造、生物降解性和监管障碍等挑战,才能充分发挥其潜力。解决这些问题对于它们在医疗保健中的成功应用至关重要。