Diversity and taxonomic distribution of bacterial biosynthetic gene clusters predicted to produce compounds with therapeutically relevant bioactivities.
Diversity and taxonomic distribution of bacterial biosynthetic gene clusters predicted to produce compounds with therapeutically relevant bioactivities.
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DOI:
10.1093/jimb/kuad024
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发表时间:
2023-02-17
影响因子:
3.4
通讯作者:
中科院分区:
文献类型:
--
作者:
Bacteria have long been a source of natural products with diverse bioactivities that have been developed into therapeutics to treat human disease. Historically, researchers have focused on a few taxa of bacteria, mainly Streptomyces and other actinomycetes. This strategy was initially highly successful and resulted in the golden era of antibiotic discovery. The golden era ended when the most common antibiotics from Streptomyces had been discovered. Rediscovery of known compounds has plagued natural product discovery ever since. Recently, there has been increasing interest in identifying other taxa that produce bioactive natural products. Several bioinformatics studies have identified promising taxa with high biosynthetic capacity. However, these studies do not address the question of whether any of the products produced by these taxa are likely to have activities that will make them useful as human therapeutics. We address this gap by applying a recently developed machine learning tool that predicts natural product activity from biosynthetic gene cluster (BGC) sequences to determine which taxa are likely to produce compounds that are not only novel but also bioactive. This machine learning tool is trained on a dataset of BGC-natural product activity pairs and relies on counts of different protein domains and resistance genes in the BGC to make its predictions. We find that rare and understudied actinomycetes are the most promising sources for novel active compounds. There are also several taxa outside of actinomycetes that are likely to produce novel active compounds. We also find that most strains of Streptomyces likely produce both characterized and uncharacterized bioactive natural products. The results of this study provide guidelines to increase the efficiency of future bioprospecting efforts. This paper combines several bioinformatics workflows to identify which genera of bacteria are most likely to produce novel natural products with useful bioactivities such as antibacterial, antitumor, or antifungal activity. Multiple bioinformatics methods are combined to identify the most promising bacterial taxa for genome mining—those that contain many BGCs that are likely to be novel and produce active natural products.
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影响因子:
9.2
作者:
Kautsar SA;van der Hooft JJJ;de Ridder D;Medema MH
通讯作者:
Medema MH
影响因子:
3.4
作者:
Jensen, Paul R.;Chavarria, Krystle L.;Fenical, William;Moore, Bradley S.;Ziemert, Nadine
通讯作者:
Ziemert, Nadine
影响因子:
5.1
作者:
Braesel J;Crnkovic CM;Kunstman KJ;Green SJ;Maienschein-Cline M;Orjala J;Murphy BT;Eustáquio AS
通讯作者:
Eustáquio AS
影响因子:
5.4
作者:
Kim S;Le TC;Han SA;Hillman PF;Hong A;Hwang S;Du YE;Kim H;Oh DC;Cha SS;Lee J;Nam SJ;Fenical W
通讯作者:
Fenical W
影响因子:
5.1
作者:
Bradshaw, J;Butina, D;Sidebottom, PJ
通讯作者:
Sidebottom, PJ