Wang Yuanyuan, Liu Lei, Hou Shuai
Institute of Advanced Materials, School of Materials Science and Engineering, Jiangsu University, Zhenjiang, China.
Front Microbiol. 2025 Apr 11;16:1576511. doi: 10.3389/fmicb.2025.1576511. eCollection 2025.
Desiccation can diminish the viability of beneficial bacteria by over 90%, threatening their effectiveness in agricultural productivity and probiotic applications. Bacterial surface engineering, already proven to combat acidic environments and oxidative damage, offers promising avenues for mitigating desiccation stress. This explores and adapts these approaches-spanning bioinspired coatings, encapsulation methods, and nanotechnology-to significantly improve bacterial survival under dehydration. By slowing water loss, preserving membrane integrity, and minimizing oxidative damage, surface engineering paves the way for scalable and effective strategies to bolster bacterial resilience in demanding environments.
干燥可使有益细菌的活力降低90%以上,威胁到它们在农业生产力和益生菌应用中的有效性。细菌表面工程已被证明可对抗酸性环境和氧化损伤,为减轻干燥胁迫提供了有前景的途径。本文探索并采用了这些方法——包括仿生涂层、封装方法和纳米技术——以显著提高细菌在脱水条件下的存活率。通过减缓水分流失、保持膜完整性以及将氧化损伤降至最低,表面工程为在苛刻环境中增强细菌恢复力的可扩展且有效的策略铺平了道路。