Shang Siyuan, Zheng Fuyuan, Tan Wen, Xing Zhengyi, Chen Siyu, Peng Fuli, Lv Xiang, Wang Duan, Zhu Xiangdong, Wu Jiagang, Zhou Zongke, Zhang Xingdong, Yang Xiao
National Engineering Research Center for Biomaterials, Sichuan University, Chengdu, 610064, China.
Sports Medicine Center, West China Hospital, Sichuan University, Chengdu, 610065, China.
Adv Sci (Weinh). 2025 Mar;12(10):e2413105. doi: 10.1002/advs.202413105. Epub 2025 Jan 31.
Bacterial infection has become the most dangerous factor in tissue repair, which strongly affects the tissue regeneration efficiency and wellness of patients. Piezoelectric materials exhibit the outstanding advantage of producing electrons without external power supply. The ability of electron enrichment and reactive oxygen species generation through noninvasive stimulations enables piezoelectric materials the potential applications of antibacterial. Many studies have proved the feasibility of piezoelectric materials as a functional addition in antibacterial biomaterial. In fact, numerous piezoelectric materials with ingenious designs are reported to be effective in antibacterial processes. This review summarizes the antibacterial mechanisms of piezoelectric, illuminating their potential in combating bacteria. Recent advancement in the design and construction of piezoelectric biomaterial including defect engineering, heterojunction, synergy with metal and the composite scaffold configuration are thoroughly reviewed. Moreover, the applications and therapeutic effects of piezoelectric materials in common tissues with antibacterial requirements are introduced, such as orthopedics, dental, and wound healing. Finally, the development prospects and points deserving further exploration are listed. This review is expected to provide valuable insight into the relationship between antibacterial processes and piezoelectric materials, further inspiring constructive development in this emerging scientific discipline.
细菌感染已成为组织修复中最危险的因素,严重影响组织再生效率和患者健康。压电材料具有无需外部电源即可产生电子的突出优势。通过无创刺激实现电子富集和活性氧生成的能力,使压电材料具有抗菌的潜在应用价值。许多研究已证明压电材料作为抗菌生物材料功能添加剂的可行性。事实上,据报道,众多设计巧妙的压电材料在抗菌过程中是有效的。本综述总结了压电材料的抗菌机制,阐明了它们在对抗细菌方面的潜力。对压电生物材料设计与构建的最新进展进行了全面综述,包括缺陷工程、异质结、与金属的协同作用以及复合支架结构。此外,还介绍了压电材料在骨科、牙科和伤口愈合等有抗菌需求的常见组织中的应用及治疗效果。最后,列出了发展前景和值得进一步探索的要点。本综述有望为抗菌过程与压电材料之间的关系提供有价值的见解,进一步推动这一新兴科学领域的建设性发展。