Metabolomic Analysis of The Chemical Diversity of South Africa Leaf Litter Fungal Species Using an Epigenetic Culture-Based Approach

Microbial natural products are an invaluable resource for the biotechnological industry. Genome mining studies have highlighted the huge biosynthetic potential of fungi, which is underexploited by standard fermentation conditions. Epigenetic effectors and/or cultivation-based approaches have success...

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Main Authors: Rachel Serrano, Víctor González-Menéndez, Germán Martínez, Clara Toro, Jesús Martín, Olga Genilloud,  José R. Tormo
Format: Article
Language:English
Published: MDPI AG 2021-07-01
Series:Molecules
Subjects:
Online Access:https://www.mdpi.com/1420-3049/26/14/4262
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spelling doaj-38cee50508334549adfde7beac49db432021-07-23T13:56:37ZengMDPI AGMolecules1420-30492021-07-01264262426210.3390/molecules26144262Metabolomic Analysis of The Chemical Diversity of South Africa Leaf Litter Fungal Species Using an Epigenetic Culture-Based ApproachRachel Serrano0Víctor González-Menéndez1Germán Martínez2Clara Toro3Jesús Martín4Olga Genilloud5 José R. Tormo6Fundación MEDINA, Av. Conocimiento 34, Health Sciences Technology Park, 18016 Granada, SpainFundación MEDINA, Av. Conocimiento 34, Health Sciences Technology Park, 18016 Granada, SpainFundación MEDINA, Av. Conocimiento 34, Health Sciences Technology Park, 18016 Granada, SpainFundación MEDINA, Av. Conocimiento 34, Health Sciences Technology Park, 18016 Granada, SpainFundación MEDINA, Av. Conocimiento 34, Health Sciences Technology Park, 18016 Granada, SpainFundación MEDINA, Av. Conocimiento 34, Health Sciences Technology Park, 18016 Granada, SpainFundación MEDINA, Av. Conocimiento 34, Health Sciences Technology Park, 18016 Granada, SpainMicrobial natural products are an invaluable resource for the biotechnological industry. Genome mining studies have highlighted the huge biosynthetic potential of fungi, which is underexploited by standard fermentation conditions. Epigenetic effectors and/or cultivation-based approaches have successfully been applied to activate cryptic biosynthetic pathways in order to produce the chemical diversity suggested in available fungal genomes. The addition of Suberoylanilide Hydroxamic Acid to fermentation processes was evaluated to assess its effect on the metabolomic diversity of a taxonomically diverse fungal population. Here, metabolomic methodologies were implemented to identify changes in secondary metabolite profiles to determine the best fermentation conditions. The results confirmed previously described effects of the epigenetic modifier on the metabolism of a population of 232 wide diverse South Africa fungal strains cultured in different fermentation media where the induction of differential metabolites was observed. Furthermore, one solid-state fermentation (BRFT medium), two classic successful liquid fermentation media (LSFM and YES) and two new liquid media formulations (MCKX and SMK-II) were compared to identify the most productive conditions for the different populations of taxonomic subgroups.https://www.mdpi.com/1420-3049/26/14/4262fungal fermentationsepigenetic modifiermetabolomicchemical diversity
collection DOAJ
language English
format Article
sources DOAJ
author Rachel Serrano
Víctor González-Menéndez
Germán Martínez
Clara Toro
Jesús Martín
Olga Genilloud
 José R. Tormo
spellingShingle Rachel Serrano
Víctor González-Menéndez
Germán Martínez
Clara Toro
Jesús Martín
Olga Genilloud
 José R. Tormo
Metabolomic Analysis of The Chemical Diversity of South Africa Leaf Litter Fungal Species Using an Epigenetic Culture-Based Approach
Molecules
fungal fermentations
epigenetic modifier
metabolomic
chemical diversity
author_facet Rachel Serrano
Víctor González-Menéndez
Germán Martínez
Clara Toro
Jesús Martín
Olga Genilloud
 José R. Tormo
author_sort Rachel Serrano
title Metabolomic Analysis of The Chemical Diversity of South Africa Leaf Litter Fungal Species Using an Epigenetic Culture-Based Approach
title_short Metabolomic Analysis of The Chemical Diversity of South Africa Leaf Litter Fungal Species Using an Epigenetic Culture-Based Approach
title_full Metabolomic Analysis of The Chemical Diversity of South Africa Leaf Litter Fungal Species Using an Epigenetic Culture-Based Approach
title_fullStr Metabolomic Analysis of The Chemical Diversity of South Africa Leaf Litter Fungal Species Using an Epigenetic Culture-Based Approach
title_full_unstemmed Metabolomic Analysis of The Chemical Diversity of South Africa Leaf Litter Fungal Species Using an Epigenetic Culture-Based Approach
title_sort metabolomic analysis of the chemical diversity of south africa leaf litter fungal species using an epigenetic culture-based approach
publisher MDPI AG
series Molecules
issn 1420-3049
publishDate 2021-07-01
description Microbial natural products are an invaluable resource for the biotechnological industry. Genome mining studies have highlighted the huge biosynthetic potential of fungi, which is underexploited by standard fermentation conditions. Epigenetic effectors and/or cultivation-based approaches have successfully been applied to activate cryptic biosynthetic pathways in order to produce the chemical diversity suggested in available fungal genomes. The addition of Suberoylanilide Hydroxamic Acid to fermentation processes was evaluated to assess its effect on the metabolomic diversity of a taxonomically diverse fungal population. Here, metabolomic methodologies were implemented to identify changes in secondary metabolite profiles to determine the best fermentation conditions. The results confirmed previously described effects of the epigenetic modifier on the metabolism of a population of 232 wide diverse South Africa fungal strains cultured in different fermentation media where the induction of differential metabolites was observed. Furthermore, one solid-state fermentation (BRFT medium), two classic successful liquid fermentation media (LSFM and YES) and two new liquid media formulations (MCKX and SMK-II) were compared to identify the most productive conditions for the different populations of taxonomic subgroups.
topic fungal fermentations
epigenetic modifier
metabolomic
chemical diversity
url https://www.mdpi.com/1420-3049/26/14/4262
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