加强和启动基于噬菌体的疗法。

Bacteriophage Pub Date : 2014-12-15 eCollection Date: 2014-01-01 DOI:10.4161/21597073.2014.961869
Philip Serwer, Elena T Wright, Juan T Chang, Xiangan Liu
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引用次数: 0

摘要

药物开发通常是对致病细胞进行系统、长期管理的主要战略基础。然而,当需要对病原细胞的变化,尤其是产生抗药性的变化做出反应时,药物开发的速度和灵活性就会受到限制。噬菌体的复制速度快、多样性高,当致病细胞的抗药性或其他方面发生变化时,噬菌体可能有助于提高反应速度和反应灵活性。我们介绍了以下策略和一些经验细节:(1) 在细菌感染的噬菌体疗法中利用现代分子生物学和生物物理学获得这些优势;(2) 开始使用基于噬菌体外壳的给药载体(DDVs),其程序有可能克服抗药性和目前使用 DDVs 治疗肿瘤时的其他限制。关于噬菌体疗法的讨论包括:(a) 历史考量;(b) 若要扩大噬菌体疗法的使用范围,临床试验似乎需要做出的改变;(c) 新型噬菌体的最新研究成果及其在扩大噬菌体疗法能力方面的潜在用途;(d) 一项包含理论和实践的扩大噬菌体疗法应用的战略纲要。关于 DDVs 的讨论首先回顾了目前有关 DDVs 的工作,包括脂质体和病毒 DDVs 方面的工作。讨论最后详细介绍了受渗透性限制的噬菌体外壳作为 DDV 的潜在用途。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Enhancing and initiating phage-based therapies.

Drug development has typically been a primary foundation of strategy for systematic, long-range management of pathogenic cells. However, drug development is limited in speed and flexibility when response is needed to changes in pathogenic cells, especially changes that produce drug-resistance. The high replication speed and high diversity of phages are potentially useful for increasing both response speed and response flexibility when changes occur in either drug resistance or other aspects of pathogenic cells. We present strategy, with some empirical details, for (1) using modern molecular biology and biophysics to access these advantages during the phage therapy of bacterial infections, and (2) initiating use of phage capsid-based drug delivery vehicles (DDVs) with procedures that potentially overcome both drug resistance and other present limitations in the use of DDVs for the therapy of neoplasms. The discussion of phage therapy includes (a) historical considerations, (b) changes that appear to be needed in clinical tests if use of phage therapy is to be expanded, (c) recent work on novel phages and its potential use for expanding the capabilities of phage therapy and (d) an outline for a strategy that encompasses both theory and practice for expanding the applications of phage therapy. The discussion of DDVs starts by reviewing current work on DDVs, including work on both liposomal and viral DDVs. The discussion concludes with some details of the potential use of permeability constrained phage capsids as DDVs.

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