Cargando…

An Initial Proteomic Analysis of Biogas-Related Metabolism of Euryarchaeota Consortia in Sediments from the Santiago River, México

In this paper, sediments from the Santiago River were characterized to look for an alternative source of inoculum for biogas production. A proteomic analysis of methane-processing archaea present in these sediments was carried out. The Euryarchaeota superkingdom of archaea is responsible for methane...

Descripción completa

Detalles Bibliográficos
Autores principales: Barrera-Rojas, Jesús, Gurubel-Tun, Kelly Joel, Ríos-Castro, Emmanuel, López-Méndez, María Cristina, Sulbarán-Rangel, Belkis
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2023
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10384328/
https://www.ncbi.nlm.nih.gov/pubmed/37512813
http://dx.doi.org/10.3390/microorganisms11071640
_version_ 1785081130457759744
author Barrera-Rojas, Jesús
Gurubel-Tun, Kelly Joel
Ríos-Castro, Emmanuel
López-Méndez, María Cristina
Sulbarán-Rangel, Belkis
author_facet Barrera-Rojas, Jesús
Gurubel-Tun, Kelly Joel
Ríos-Castro, Emmanuel
López-Méndez, María Cristina
Sulbarán-Rangel, Belkis
author_sort Barrera-Rojas, Jesús
collection PubMed
description In this paper, sediments from the Santiago River were characterized to look for an alternative source of inoculum for biogas production. A proteomic analysis of methane-processing archaea present in these sediments was carried out. The Euryarchaeota superkingdom of archaea is responsible for methane production and methane assimilation in the environment. The Santiago River is a major river in México with great pollution and exceeded recovery capacity. Its sediments could contain nutrients and the anaerobic conditions for optimal growth of Euryarchaeota consortia. Batch bioreactor experiments were performed, and a proteomic analysis was conducted with current database information. The maximum biogas production was 266 NmL·L(−1)·g VS(−1), with 33.34% of methane, and for proteomics, 3206 proteins were detected from 303 species of 69 genera. Most of them are metabolically versatile members of the genera Methanosarcina and Methanosarcinales, both with 934 and 260 proteins, respectively. These results showed a diverse euryarcheotic species with high potential to methane production. Although related proteins were found and could be feeding this metabolism through the methanol and acetyl-CoA pathways, the quality obtained from the biogas suggests that this metabolism is not the main one in carbon use, possibly the sum of several conditions including growth conditions and the pollution present in these sediments
format Online
Article
Text
id pubmed-10384328
institution National Center for Biotechnology Information
language English
publishDate 2023
publisher MDPI
record_format MEDLINE/PubMed
spelling pubmed-103843282023-07-30 An Initial Proteomic Analysis of Biogas-Related Metabolism of Euryarchaeota Consortia in Sediments from the Santiago River, México Barrera-Rojas, Jesús Gurubel-Tun, Kelly Joel Ríos-Castro, Emmanuel López-Méndez, María Cristina Sulbarán-Rangel, Belkis Microorganisms Article In this paper, sediments from the Santiago River were characterized to look for an alternative source of inoculum for biogas production. A proteomic analysis of methane-processing archaea present in these sediments was carried out. The Euryarchaeota superkingdom of archaea is responsible for methane production and methane assimilation in the environment. The Santiago River is a major river in México with great pollution and exceeded recovery capacity. Its sediments could contain nutrients and the anaerobic conditions for optimal growth of Euryarchaeota consortia. Batch bioreactor experiments were performed, and a proteomic analysis was conducted with current database information. The maximum biogas production was 266 NmL·L(−1)·g VS(−1), with 33.34% of methane, and for proteomics, 3206 proteins were detected from 303 species of 69 genera. Most of them are metabolically versatile members of the genera Methanosarcina and Methanosarcinales, both with 934 and 260 proteins, respectively. These results showed a diverse euryarcheotic species with high potential to methane production. Although related proteins were found and could be feeding this metabolism through the methanol and acetyl-CoA pathways, the quality obtained from the biogas suggests that this metabolism is not the main one in carbon use, possibly the sum of several conditions including growth conditions and the pollution present in these sediments MDPI 2023-06-23 /pmc/articles/PMC10384328/ /pubmed/37512813 http://dx.doi.org/10.3390/microorganisms11071640 Text en © 2023 by the authors. https://creativecommons.org/licenses/by/4.0/Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (https://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Barrera-Rojas, Jesús
Gurubel-Tun, Kelly Joel
Ríos-Castro, Emmanuel
López-Méndez, María Cristina
Sulbarán-Rangel, Belkis
An Initial Proteomic Analysis of Biogas-Related Metabolism of Euryarchaeota Consortia in Sediments from the Santiago River, México
title An Initial Proteomic Analysis of Biogas-Related Metabolism of Euryarchaeota Consortia in Sediments from the Santiago River, México
title_full An Initial Proteomic Analysis of Biogas-Related Metabolism of Euryarchaeota Consortia in Sediments from the Santiago River, México
title_fullStr An Initial Proteomic Analysis of Biogas-Related Metabolism of Euryarchaeota Consortia in Sediments from the Santiago River, México
title_full_unstemmed An Initial Proteomic Analysis of Biogas-Related Metabolism of Euryarchaeota Consortia in Sediments from the Santiago River, México
title_short An Initial Proteomic Analysis of Biogas-Related Metabolism of Euryarchaeota Consortia in Sediments from the Santiago River, México
title_sort initial proteomic analysis of biogas-related metabolism of euryarchaeota consortia in sediments from the santiago river, méxico
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10384328/
https://www.ncbi.nlm.nih.gov/pubmed/37512813
http://dx.doi.org/10.3390/microorganisms11071640
work_keys_str_mv AT barrerarojasjesus aninitialproteomicanalysisofbiogasrelatedmetabolismofeuryarchaeotaconsortiainsedimentsfromthesantiagorivermexico
AT gurubeltunkellyjoel aninitialproteomicanalysisofbiogasrelatedmetabolismofeuryarchaeotaconsortiainsedimentsfromthesantiagorivermexico
AT rioscastroemmanuel aninitialproteomicanalysisofbiogasrelatedmetabolismofeuryarchaeotaconsortiainsedimentsfromthesantiagorivermexico
AT lopezmendezmariacristina aninitialproteomicanalysisofbiogasrelatedmetabolismofeuryarchaeotaconsortiainsedimentsfromthesantiagorivermexico
AT sulbaranrangelbelkis aninitialproteomicanalysisofbiogasrelatedmetabolismofeuryarchaeotaconsortiainsedimentsfromthesantiagorivermexico
AT barrerarojasjesus initialproteomicanalysisofbiogasrelatedmetabolismofeuryarchaeotaconsortiainsedimentsfromthesantiagorivermexico
AT gurubeltunkellyjoel initialproteomicanalysisofbiogasrelatedmetabolismofeuryarchaeotaconsortiainsedimentsfromthesantiagorivermexico
AT rioscastroemmanuel initialproteomicanalysisofbiogasrelatedmetabolismofeuryarchaeotaconsortiainsedimentsfromthesantiagorivermexico
AT lopezmendezmariacristina initialproteomicanalysisofbiogasrelatedmetabolismofeuryarchaeotaconsortiainsedimentsfromthesantiagorivermexico
AT sulbaranrangelbelkis initialproteomicanalysisofbiogasrelatedmetabolismofeuryarchaeotaconsortiainsedimentsfromthesantiagorivermexico