Huang Jie, Fu Qiang, Shao Xingang, Li Yuanzhe
College of Polymer Science and Engineering, Sichuan University, Chengdu, China.
Hebei University of Engineering, Shijiazhuang, China.
Front Microbiol. 2025 Jul 23;16:1558035. doi: 10.3389/fmicb.2025.1558035. eCollection 2025.
Biofilm formation on medical surfaces poses significant challenges, leading to compromised device functionality and an increased risk of infections. Addressing this issue requires effective strategies that balance efficacy with safety. This mini-review examines the application of ultrasound as a promising approach for biofilm control in medical contexts. Drawing from recent studies, it explores the mechanisms by which ultrasound disrupts biofilms, highlighting its ability to break down extracellular polymeric matrices and enhance the efficacy of antimicrobials. The review also discusses practical considerations, including ultrasound parameter optimization, biocompatibility, and integration with other anti-biofilm strategies. While ultrasound has demonstrated potential in disrupting biofilms, further research is essential to refine these approaches, improve treatment outcomes, and ensure compatibility with medical applications. By advancing our understanding and application of ultrasonic techniques, this field holds promise for improving patient safety and enhancing medical device longevity.
医疗表面上生物膜的形成带来了重大挑战,导致设备功能受损以及感染风险增加。解决这一问题需要有效的策略,在有效性和安全性之间取得平衡。本综述探讨了超声作为一种在医疗环境中控制生物膜的有前景方法的应用。借鉴近期研究,探讨了超声破坏生物膜的机制,强调其分解细胞外聚合物基质和增强抗菌剂疗效的能力。综述还讨论了实际考虑因素,包括超声参数优化、生物相容性以及与其他抗生物膜策略的整合。虽然超声在破坏生物膜方面已显示出潜力,但进一步研究对于完善这些方法、改善治疗效果以及确保与医疗应用的兼容性至关重要。通过增进我们对超声技术的理解和应用,该领域有望提高患者安全性并延长医疗设备使用寿命。