Can polymeric nanofibers effectively preserve and deliver live therapeutic bacteria?

IF 5.4 2区 医学 Q1 BIOPHYSICS Colloids and Surfaces B: Biointerfaces Pub Date : 2024-10-21 DOI:10.1016/j.colsurfb.2024.114329
Nina Katarina Grilc, Julijana Kristl, Špela Zupančič
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Abstract

Probiotics and live therapeutic bacteria (LTB), their strictly regulated therapeutic counterpart, are increasingly important in treating and preventing biofilm-related diseases. This necessitates new approaches to (i) preserve bacterial viability during manufacturing and storage and (ii) incorporate LTB into delivery systems for enhanced therapeutic efficacy. This review explores advances in probiotic and LTB product development, focusing on preservation, protection, and improved delivery. Preservation of bacteria can be achieved by drying methods that decelerate metabolism. These methods introduce stresses affecting viability which can be mitigated with suitable excipients like polymeric or low molecular weight stabilizers. The review emphasizes the incorporation of LTB into polymer-based nanofibers via electrospinning, enabling simultaneous drying, encapsulation, and delivery system production. Optimization of bacterial survival during electrospinning and storage is discussed, as well as controlled LTB release achievable through formulation design using gel-forming, gastroprotective, mucoadhesive, and pH-responsive polymers. Evaluation of the presence of the actual therapeutic strains, bacterial viability and activity by CFU enumeration or alternative analytical techniques is presented as a key aspect of developing effective and safe formulations with LTB. This review offers insights into designing delivery systems, especially polymeric nanofibers, for preservation and delivery of LTB, guiding readers in developing innovative biotherapeutic delivery systems.

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聚合物纳米纤维能否有效保存和输送活的治疗性细菌?
益生菌和活治疗菌(LTB)是受到严格监管的治疗用细菌,在治疗和预防与生物膜相关的疾病方面越来越重要。这就需要采用新的方法:(i) 在生产和储存过程中保持细菌的活力;(ii) 将治疗用活菌纳入给药系统以增强疗效。本综述探讨了益生菌和低温冻干杆菌产品开发的进展,重点是保存、保护和改进给药。细菌的保存可通过减缓新陈代谢的干燥方法来实现。这些方法会带来影响存活率的应力,而合适的辅料(如聚合物或低分子量稳定剂)可以减轻这些应力。这篇综述强调了通过电纺丝将 LTB 加入聚合物基纳米纤维,从而实现同时干燥、封装和生产给药系统。文章讨论了电纺丝和储存过程中细菌存活率的优化问题,以及通过使用凝胶形成型、胃保护型、粘液黏附型和 pH 值响应型聚合物进行配方设计来控制 LTB 释放的问题。通过 CFU计数或其他分析技术对实际治疗菌株的存在、细菌活力和活性进行评估,是开发有效、安全的 LTB 制剂的关键环节。这篇综述深入探讨了如何设计递送系统,特别是用于保存和递送 LTB 的聚合物纳米纤维,为读者开发创新的生物治疗递送系统提供了指导。
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来源期刊
Colloids and Surfaces B: Biointerfaces
Colloids and Surfaces B: Biointerfaces 生物-材料科学:生物材料
CiteScore
11.10
自引率
3.40%
发文量
730
审稿时长
42 days
期刊介绍: Colloids and Surfaces B: Biointerfaces is an international journal devoted to fundamental and applied research on colloid and interfacial phenomena in relation to systems of biological origin, having particular relevance to the medical, pharmaceutical, biotechnological, food and cosmetic fields. Submissions that: (1) deal solely with biological phenomena and do not describe the physico-chemical or colloid-chemical background and/or mechanism of the phenomena, and (2) deal solely with colloid/interfacial phenomena and do not have appropriate biological content or relevance, are outside the scope of the journal and will not be considered for publication. The journal publishes regular research papers, reviews, short communications and invited perspective articles, called BioInterface Perspectives. The BioInterface Perspective provide researchers the opportunity to review their own work, as well as provide insight into the work of others that inspired and influenced the author. Regular articles should have a maximum total length of 6,000 words. In addition, a (combined) maximum of 8 normal-sized figures and/or tables is allowed (so for instance 3 tables and 5 figures). For multiple-panel figures each set of two panels equates to one figure. Short communications should not exceed half of the above. It is required to give on the article cover page a short statistical summary of the article listing the total number of words and tables/figures.
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