A novel system to culture human intestinal organoids under physiological oxygen content to study microbial-host interaction.

Mechanistic investigation of host-microbe interactions in the human gut are hindered by difficulty of co-culturing microbes with intestinal epithelial cells. On one hand the gut bacteria are a mix of facultative, aerotolerant or obligate anaerobes, while the intestinal epithelium requires oxygen for...

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Main Authors: Tatiana Y Fofanova, Umesh C Karandikar, Jennifer M Auchtung, Reid L Wilson, Antonio J Valentin, Robert A Britton, K Jane Grande-Allen, Mary K Estes, Kristi Hoffman, Sashirekha Ramani, Christopher J Stewart, Joseph F Petrosino
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2024-01-01
Series:PLoS ONE
Online Access:https://doi.org/10.1371/journal.pone.0300666
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author Tatiana Y Fofanova
Umesh C Karandikar
Jennifer M Auchtung
Reid L Wilson
Antonio J Valentin
Robert A Britton
K Jane Grande-Allen
Mary K Estes
Kristi Hoffman
Sashirekha Ramani
Christopher J Stewart
Joseph F Petrosino
author_facet Tatiana Y Fofanova
Umesh C Karandikar
Jennifer M Auchtung
Reid L Wilson
Antonio J Valentin
Robert A Britton
K Jane Grande-Allen
Mary K Estes
Kristi Hoffman
Sashirekha Ramani
Christopher J Stewart
Joseph F Petrosino
author_sort Tatiana Y Fofanova
collection DOAJ
description Mechanistic investigation of host-microbe interactions in the human gut are hindered by difficulty of co-culturing microbes with intestinal epithelial cells. On one hand the gut bacteria are a mix of facultative, aerotolerant or obligate anaerobes, while the intestinal epithelium requires oxygen for growth and function. Thus, a coculture system that can recreate these contrasting oxygen requirements is critical step towards our understanding microbial-host interactions in the human gut. Here, we demonstrate Intestinal Organoid Physoxic Coculture (IOPC) system, a simple and cost-effective method for coculturing anaerobic intestinal bacteria with human intestinal organoids (HIOs). Using commensal anaerobes with varying degrees of oxygen tolerance, such as nano-aerobe Bacteroides thetaiotaomicron and strict anaerobe Blautia sp., we demonstrate that IOPC can successfully support 24-48 hours HIO-microbe coculture. The IOPC recapitulates the contrasting oxygen conditions across the intestinal epithelium seen in vivo. The IOPC cultured HIOs showed increased barrier integrity, and induced expression of immunomodulatory genes. A transcriptomic analysis suggests that HIOs from different donors show differences in the magnitude of their response to coculture with anaerobic bacteria. Thus, the IOPC system provides a robust coculture setup for investigating host-microbe interactions in complex, patient-derived intestinal tissues, that can facilitate the study of mechanisms underlying the role of the microbiome in health and disease.
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spelling doaj-art-390d9f33524946f68a4b66b3442bcb4d2025-08-20T03:51:29ZengPublic Library of Science (PLoS)PLoS ONE1932-62032024-01-01197e030066610.1371/journal.pone.0300666A novel system to culture human intestinal organoids under physiological oxygen content to study microbial-host interaction.Tatiana Y FofanovaUmesh C KarandikarJennifer M AuchtungReid L WilsonAntonio J ValentinRobert A BrittonK Jane Grande-AllenMary K EstesKristi HoffmanSashirekha RamaniChristopher J StewartJoseph F PetrosinoMechanistic investigation of host-microbe interactions in the human gut are hindered by difficulty of co-culturing microbes with intestinal epithelial cells. On one hand the gut bacteria are a mix of facultative, aerotolerant or obligate anaerobes, while the intestinal epithelium requires oxygen for growth and function. Thus, a coculture system that can recreate these contrasting oxygen requirements is critical step towards our understanding microbial-host interactions in the human gut. Here, we demonstrate Intestinal Organoid Physoxic Coculture (IOPC) system, a simple and cost-effective method for coculturing anaerobic intestinal bacteria with human intestinal organoids (HIOs). Using commensal anaerobes with varying degrees of oxygen tolerance, such as nano-aerobe Bacteroides thetaiotaomicron and strict anaerobe Blautia sp., we demonstrate that IOPC can successfully support 24-48 hours HIO-microbe coculture. The IOPC recapitulates the contrasting oxygen conditions across the intestinal epithelium seen in vivo. The IOPC cultured HIOs showed increased barrier integrity, and induced expression of immunomodulatory genes. A transcriptomic analysis suggests that HIOs from different donors show differences in the magnitude of their response to coculture with anaerobic bacteria. Thus, the IOPC system provides a robust coculture setup for investigating host-microbe interactions in complex, patient-derived intestinal tissues, that can facilitate the study of mechanisms underlying the role of the microbiome in health and disease.https://doi.org/10.1371/journal.pone.0300666
spellingShingle Tatiana Y Fofanova
Umesh C Karandikar
Jennifer M Auchtung
Reid L Wilson
Antonio J Valentin
Robert A Britton
K Jane Grande-Allen
Mary K Estes
Kristi Hoffman
Sashirekha Ramani
Christopher J Stewart
Joseph F Petrosino
A novel system to culture human intestinal organoids under physiological oxygen content to study microbial-host interaction.
PLoS ONE
title A novel system to culture human intestinal organoids under physiological oxygen content to study microbial-host interaction.
title_full A novel system to culture human intestinal organoids under physiological oxygen content to study microbial-host interaction.
title_fullStr A novel system to culture human intestinal organoids under physiological oxygen content to study microbial-host interaction.
title_full_unstemmed A novel system to culture human intestinal organoids under physiological oxygen content to study microbial-host interaction.
title_short A novel system to culture human intestinal organoids under physiological oxygen content to study microbial-host interaction.
title_sort novel system to culture human intestinal organoids under physiological oxygen content to study microbial host interaction
url https://doi.org/10.1371/journal.pone.0300666
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