Innovative Center for Flexible Devices (iFLEX), School of Materials Science and Engineering, Nanyang Technological University, 50 Nanyang Avenue, Singapore 639798, Singapore.
Chem Soc Rev. 2018 Sep 17;47(18):6917-6929. doi: 10.1039/c8cs00128f.
The emergence of drug-resistant microbes has become a threat to global health, and microbial infections severely limit the use of healthcare materials. To achieve efficient antimicrobial therapy, supramolecular hydrogels demonstrate unprecedented advantages in medical applications due to the tunable and reversible nature of their supramolecular interactions and the capability of hydrogels to incorporate various therapeutic agents. Herein, antimicrobial hydrogels are categorized according to their inherent antimicrobial properties or based on their roles in encapsulating antimicrobial materials. Moreover, strategies to further enhance the antimicrobial efficacy of hydrogels are highlighted, such as the incorporation of antifouling agents or the enabling of response towards physiological cues. We envision that supramolecular hydrogels, in combination with modern medical technology and devices, will contribute to the development of efficient and safe systems for antimicrobial therapy.
耐药微生物的出现已经对全球健康构成威胁,微生物感染严重限制了医疗材料的使用。为了实现高效的抗菌治疗,超分子水凝胶在医学应用中展现出了前所未有的优势,这是因为其超分子相互作用具有可调节和可恢复的特性,并且水凝胶能够结合各种治疗剂。本文根据其内在的抗菌特性或基于其封装抗菌材料的作用,对抗菌水凝胶进行了分类。此外,还强调了进一步提高水凝胶抗菌效果的策略,例如加入防污剂或实现对生理信号的响应。我们设想,超分子水凝胶与现代医疗技术和设备相结合,将有助于开发高效和安全的抗菌治疗系统。