Peng Tingting, Chen Yangyan, Luan Xuanyu, Hu Wanshan, Wu Wentao, Guo Bing, Lu Chao, Wu Chuanbin, Pan Xin
State Key Laboratory of Bioactive Molecules and Druggability Assessment/ International Cooperative Laboratory of Traditional Chinese Medicine Modernization and Innovative Drug Development of Ministry of Education (MOE) of China/College of Pharmacy, Jinan University, Guangzhou 511436, China.
School of Pharmaceutical Sciences, Sun Yat-sen University, Guangzhou 510006, China.
Bioact Mater. 2024 Nov 26;45:274-300. doi: 10.1016/j.bioactmat.2024.11.027. eCollection 2025 Mar.
Skin infections caused by microbes such as bacteria, fungi, and viruses often lead to aberrant skin functions and appearance, eventually evolving into a significant risk to human health. Among different drug administration paradigms for skin infections, microneedles (MNs) have demonstrated superiority mainly because of their merits in enhancing drug delivery efficiency and reducing microbial resistance. Also, integrating biosensing functionality to MNs offers point-of-care wearable medical devices for analyzing specific pathogens, disease status, and drug pharmacokinetics, thus providing personalized therapy for skin infections. Herein, we do a timely update on the development of MN technology in skin infection management, with a special focus on how to devise MNs for personalized antimicrobial therapy. Notably, the advantages of state-of-the-art MNs for treating skin infections are pointed out, which include hijacking sequential drug transport barriers to enhance drug delivery efficiency and delivering various therapeutics (, antibiotics, antimicrobial peptides, photosensitizers, metals, sonosensitizers, nanoenzyme, living bacteria, poly ionic liquid, and nanomoter). In addition, the nanoenzyme-based multimodal antimicrobial therapy is highlighted in addressing intractable infectious wounds. Furthermore, the MN-based biosensors used to identify pathogen types, track disease status, and quantify antibiotic concentrations are summarized. The limitations of antimicrobial MNs toward clinical translation are offered regarding large-scale production, quality control, and policy guidance. Finally, the future development of biosensing MNs with easy-to-use and intelligent properties and MN-based wearable drug delivery for home-based therapy are prospected. We hope this review will provide valuable guidance for future development in MN-mediated topical treatment of skin infections.
由细菌、真菌和病毒等微生物引起的皮肤感染通常会导致皮肤功能和外观异常,最终对人类健康构成重大风险。在治疗皮肤感染的不同给药方式中,微针(MNs)已显示出优势,主要是因为它们在提高药物递送效率和降低微生物耐药性方面的优点。此外,将生物传感功能集成到微针中可提供即时检测的可穿戴医疗设备,用于分析特定病原体、疾病状态和药物药代动力学,从而为皮肤感染提供个性化治疗。在此,我们及时更新了微针技术在皮肤感染管理方面的进展,特别关注如何设计用于个性化抗菌治疗的微针。值得注意的是,指出了最先进的微针在治疗皮肤感染方面的优势,包括突破连续的药物转运屏障以提高药物递送效率,以及递送各种治疗剂(如抗生素、抗菌肽、光敏剂、金属、声敏剂、纳米酶、活细菌、聚离子液体和纳米马达)。此外,基于纳米酶的多模式抗菌疗法在治疗难治性感染伤口方面得到了强调。此外,还总结了用于识别病原体类型、跟踪疾病状态和量化抗生素浓度的基于微针的生物传感器。针对抗菌微针在临床转化方面的局限性,从大规模生产、质量控制和政策指导等方面进行了阐述。最后,展望了具有易用性和智能特性的生物传感微针以及基于微针的可穿戴药物递送用于家庭治疗的未来发展。我们希望这篇综述将为微针介导的皮肤感染局部治疗的未来发展提供有价值的指导。