真菌群体感应分子作为治疗慢性伤口的潜在药物及其递送。

Ilker S Bayer
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摘要

慢性不愈合伤口已成为一个重大的全球卫生保健挑战。生物膜引起的伤口感染已得到广泛认可。尽管对生物膜的形成有了深入的了解,但现有的诊断伤口生物膜的方法仍然相当不理想。真菌产生的感应环境的化学信号,被称为群体感应(QS)分子,有望引起不愈合伤口防腐的革命。覆盖范围:生物膜使慢性伤口对治疗产生抗性,并通过诱导慢性炎症阻碍组织修复。QS是一种生化信号通路,涉及某些分泌分子,即苯乙醇、吲哚和倍半萜醇,如果在伤口治疗中适当应用和释放,可以显著减少和消除细菌生物膜。专家意见:QS分子(QSMs)具有抑制微生物生物膜形成的特性,并与普通抗菌剂表现出协同作用。它们可以破坏由耐药微生物形成的生物膜。了解qsm在不同给药系统中的应用及其释放动力学的当前机制和进展将对新药设计和给药至关重要。在进入临床试验之前,探索药物与QS分子的共同递送,以及评估它们对慢性伤口愈合的影响仍然没有解决。
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Fungal quorum sensing molecules as potential drugs in the treatment of chronic wounds and their delivery.

Introduction: Chronic non-healing wounds have emerged as a significant global healthcare challenge. Biofilm induced wound infections has been widely acknowledged. Despite the advanced understanding of biofilm formation, the existing approaches for diagnosing biofilms in wounds remain considerably suboptimal. Chemical signals produced by fungi to sense their environment, known as quorum sensing (QS) molecules are anticipated to cause revolution in non-healing wound antisepsis.

Areas covered: Biofilms render chronic wounds resistant to treatment and impede tissue repair by inducing chronic inflammation. QS is a biochemical signaling pathway that involves certain secreted molecules, namely phenylethanoids, indolyl, and sesquiterpene alcohols that can significantly minimize and obliterate bacterial biofilms if properly applied and released in wound treatments.

Expert opinion: QS molecules (QSMs) possess inhibitory properties that obstruct the formation of microbial biofilms and exhibit synergism with common antimicrobials. They can disrupt biofilms formed by drug-resistant microorganisms. The understanding of the current mechanisms and advancements in the utilization of QSMs within diverse drug delivery systems, and their release dynamics will be crucial in new drug design and delivery. Exploration of co-delivery of drugs alongside QS molecules, and assessing their impact on healing of chronic wounds before moving to clinical trials remain unaddressed.

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