Novel complete methanogenic pathways in longitudinal genomic study of monogastric age-associated archaea

Abstract Background Archaea perform critical roles in the microbiome system, including utilizing hydrogen to allow for enhanced microbiome member growth and influencing overall host health. With the majority of microbiome research focusing on bacteria, the functions of archaea are largely still unde...

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Published in:Animal Microbiome
Main Authors: Brandi Feehan, Qinghong Ran, Victoria Dorman, Kourtney Rumback, Sophia Pogranichniy, Kaitlyn Ward, Robert Goodband, Megan C. Niederwerder, Sonny T. M. Lee
Format: Article
Language:English
Published: BMC 2023-07-01
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Online Access:https://doi.org/10.1186/s42523-023-00256-6
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author Brandi Feehan
Qinghong Ran
Victoria Dorman
Kourtney Rumback
Sophia Pogranichniy
Kaitlyn Ward
Robert Goodband
Megan C. Niederwerder
Sonny T. M. Lee
author_facet Brandi Feehan
Qinghong Ran
Victoria Dorman
Kourtney Rumback
Sophia Pogranichniy
Kaitlyn Ward
Robert Goodband
Megan C. Niederwerder
Sonny T. M. Lee
author_sort Brandi Feehan
collection DOAJ
container_title Animal Microbiome
description Abstract Background Archaea perform critical roles in the microbiome system, including utilizing hydrogen to allow for enhanced microbiome member growth and influencing overall host health. With the majority of microbiome research focusing on bacteria, the functions of archaea are largely still under investigation. Understanding methanogenic functions during the host lifetime will add to the limited knowledge on archaeal influence on gut and host health. In our study, we determined lifelong archaea dynamics, including detection and methanogenic functions, while assessing global, temporal and host distribution of our novel archaeal metagenome-assembled genomes (MAGs). We followed 7 monogastric swine throughout their life, from birth to adult (1–156 days of age), and collected feces at 22 time points. The samples underwent gDNA extraction, Illumina sequencing, bioinformatic quality and assembly processes, MAG taxonomic assignment and functional annotation. MAGs were utilized in downstream phylogenetic analysis for global, temporal and host distribution in addition to methanogenic functional potential determination. Results We generated 1130 non-redundant MAGs, representing 588 unique taxa at the species level, with 8 classified as methanogenic archaea. The taxonomic classifications were as follows: orders Methanomassiliicoccales (5) and Methanobacteriales (3); genera UBA71 (3), Methanomethylophilus (1), MX-02 (1), and Methanobrevibacter (3). We recovered the first US swine Methanobrevibacter UBA71 sp006954425 and Methanobrevibacter gottschalkii MAGs. The Methanobacteriales MAGs were identified primarily during the young, preweaned host whereas Methanomassiliicoccales primarily in the adult host. Moreover, we identified our methanogens in metagenomic sequences from Chinese swine, US adult humans, Mexican adult humans, Swedish adult humans, and paleontological humans, indicating that methanogens span different hosts, geography and time. We determined complete metabolic pathways for all three methanogenic pathways: hydrogenotrophic, methylotrophic, and acetoclastic. This study provided the first evidence of acetoclastic methanogenesis in archaea of monogastric hosts which indicated a previously unknown capability for acetate utilization in methanogenesis for monogastric methanogens. Overall, we hypothesized that the age-associated detection patterns were due to differential substrate availability via the host diet and microbial metabolism, and that these methanogenic functions are likely crucial to methanogens across hosts. This study provided a comprehensive, genome-centric investigation of monogastric-associated methanogens which will further improve our understanding of microbiome development and functions.
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spelling doaj-art-29ab02f8317543d3be09a4f91c180c392025-08-19T23:25:11ZengBMCAnimal Microbiome2524-46712023-07-015111810.1186/s42523-023-00256-6Novel complete methanogenic pathways in longitudinal genomic study of monogastric age-associated archaeaBrandi Feehan0Qinghong Ran1Victoria Dorman2Kourtney Rumback3Sophia Pogranichniy4Kaitlyn Ward5Robert Goodband6Megan C. Niederwerder7Sonny T. M. Lee8Division of Biology, College of Arts and Sciences, Kansas State UniversityDivision of Biology, College of Arts and Sciences, Kansas State UniversityDivision of Biology, College of Arts and Sciences, Kansas State UniversityDivision of Biology, College of Arts and Sciences, Kansas State UniversityDivision of Biology, College of Arts and Sciences, Kansas State UniversityDivision of Biology, College of Arts and Sciences, Kansas State UniversityDepartment of Animal Sciences and Industry, College of Agriculture, Kansas State UniversitySwine Health Information CenterDivision of Biology, College of Arts and Sciences, Kansas State UniversityAbstract Background Archaea perform critical roles in the microbiome system, including utilizing hydrogen to allow for enhanced microbiome member growth and influencing overall host health. With the majority of microbiome research focusing on bacteria, the functions of archaea are largely still under investigation. Understanding methanogenic functions during the host lifetime will add to the limited knowledge on archaeal influence on gut and host health. In our study, we determined lifelong archaea dynamics, including detection and methanogenic functions, while assessing global, temporal and host distribution of our novel archaeal metagenome-assembled genomes (MAGs). We followed 7 monogastric swine throughout their life, from birth to adult (1–156 days of age), and collected feces at 22 time points. The samples underwent gDNA extraction, Illumina sequencing, bioinformatic quality and assembly processes, MAG taxonomic assignment and functional annotation. MAGs were utilized in downstream phylogenetic analysis for global, temporal and host distribution in addition to methanogenic functional potential determination. Results We generated 1130 non-redundant MAGs, representing 588 unique taxa at the species level, with 8 classified as methanogenic archaea. The taxonomic classifications were as follows: orders Methanomassiliicoccales (5) and Methanobacteriales (3); genera UBA71 (3), Methanomethylophilus (1), MX-02 (1), and Methanobrevibacter (3). We recovered the first US swine Methanobrevibacter UBA71 sp006954425 and Methanobrevibacter gottschalkii MAGs. The Methanobacteriales MAGs were identified primarily during the young, preweaned host whereas Methanomassiliicoccales primarily in the adult host. Moreover, we identified our methanogens in metagenomic sequences from Chinese swine, US adult humans, Mexican adult humans, Swedish adult humans, and paleontological humans, indicating that methanogens span different hosts, geography and time. We determined complete metabolic pathways for all three methanogenic pathways: hydrogenotrophic, methylotrophic, and acetoclastic. This study provided the first evidence of acetoclastic methanogenesis in archaea of monogastric hosts which indicated a previously unknown capability for acetate utilization in methanogenesis for monogastric methanogens. Overall, we hypothesized that the age-associated detection patterns were due to differential substrate availability via the host diet and microbial metabolism, and that these methanogenic functions are likely crucial to methanogens across hosts. This study provided a comprehensive, genome-centric investigation of monogastric-associated methanogens which will further improve our understanding of microbiome development and functions.https://doi.org/10.1186/s42523-023-00256-6ArchaeaMethanogenesisMicrobiomeSwineMonogastric
spellingShingle Brandi Feehan
Qinghong Ran
Victoria Dorman
Kourtney Rumback
Sophia Pogranichniy
Kaitlyn Ward
Robert Goodband
Megan C. Niederwerder
Sonny T. M. Lee
Novel complete methanogenic pathways in longitudinal genomic study of monogastric age-associated archaea
Archaea
Methanogenesis
Microbiome
Swine
Monogastric
title Novel complete methanogenic pathways in longitudinal genomic study of monogastric age-associated archaea
title_full Novel complete methanogenic pathways in longitudinal genomic study of monogastric age-associated archaea
title_fullStr Novel complete methanogenic pathways in longitudinal genomic study of monogastric age-associated archaea
title_full_unstemmed Novel complete methanogenic pathways in longitudinal genomic study of monogastric age-associated archaea
title_short Novel complete methanogenic pathways in longitudinal genomic study of monogastric age-associated archaea
title_sort novel complete methanogenic pathways in longitudinal genomic study of monogastric age associated archaea
topic Archaea
Methanogenesis
Microbiome
Swine
Monogastric
url https://doi.org/10.1186/s42523-023-00256-6
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