Current Challenges in the Discovery of Novel Antibacterials from Microbial Natural Products

药物发现 利用 抗生素 生物技术 业务 人类健康 生化工程 生物 计算机科学 工程类 医学 生物信息学 微生物学 计算机安全 环境卫生
作者
Olga Genilloud
出处
期刊:Recent Patents on Anti-infective Drug Discovery [Bentham Science]
卷期号:7 (3): 189-204 被引量:21
标识
DOI:10.2174/157489112803521968
摘要

Microbial natural products have been for decades one of the most successful sources of drugs to treat infectious diseases. The high occurrence of resistances to all major classes of known antibiotics represents today a new challenge and new classes of antibacterial compounds are urgently needed to respond to this unmet clinical need. While natural products discovery programs have been gradually abandoned by big pharma, smaller biotechnology companies and other research organizations are taking the lead in the discovery of novel antibacterials. A survey of recent patents has shown that in spite of the efforts, few novel compounds are being developed that can overcome most of the emerging multi-resistant and pan-resistant pathogens. In order to respond to the current challenges of discovering novel antibiotics, new approaches are required to be developed to further exploit the microbial resources and their biosynthetic potential as an untapped source of novel metabolites. Strategies to mine microbial collections for orphan biosynthetic pathways and novel species thought to be uncultivable, are emerging as a need within antibacterial drug discovery programs, in combination with high throughput screening and chemical dereplication of novel compounds. Different innovative methods that are being developed to respond to the new challenges that are faced today by drug discovery programs will ensure the evolution of these strategies into a completely new framework that will address the renovated interest in the discovery of novel classes of antibiotics. Keywords: Antibiotic, fermentation, microbial diversity, microbial natural products, multiresistance, patents, NATURAL PRODUCTS, Macrolides, Thiazolylpeptides, peptide deformylase

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