Gut microbiome communication with bone marrow regulates susceptibility to amebiasis
Gut microbiome communication with bone marrow regulates susceptibility to amebiasis
The microbiome provides resistance to infection. However, the underlying mechanisms are poorly understood. We demonstrate that colonization with the intestinal bacterium Clostridium scindens protects from Entamoeba histolytica colitis via innate immunity. Introduction of C. scindens into the gut microbiota epigenetically altered and expanded bone marrow granulocyte-monocyte progenitors (GMPs) and resulted in increased intestinal neutrophils with subsequent challenge with E. histolytica. Introduction of C. scindens alone was sufficient to expand GMPs in gnotobiotic mice. Adoptive transfer of bone marrow from C. scindens–colonized mice into naive mice protected against amebic colitis and increased intestinal neutrophils. Children without E. histolytica diarrhea also had a higher abundance of Lachnoclostridia. Lachnoclostridia C. scindens can metabolize the bile salt cholate, so we measured deoxycholate and discovered that it was increased in the sera of C. scindens–colonized specific pathogen–free and gnotobiotic mice, as well as in children protected from amebiasis. Administration of deoxycholate alone increased GMPs and provided protection from amebiasis. We elucidated a mechanism by which C. scindens and the microbially metabolized bile salt deoxycholic acid alter hematopoietic precursors and provide innate protection from later infection with E. histolytica.
4019-4024
Burgess, Stacey L.
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Leslie, Jhansi L.
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Uddin, Md Jashim
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Oakland, David Noah
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Gilchrist, Carol A.
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Moreau, G. Brett
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Watanabe, Koji
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Saleh, Mahmoud M.
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Simpson, Morgan
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Thompson, Brandon A.
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Auble, David T.
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Turner, Stephen D.
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Giallourou, Natasa
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Swann, Jonathan
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Pu, Zhen
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Ma, Jennie Z.
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Haque, Rashidul
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Petri, William A.
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3 August 2020
Burgess, Stacey L.
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Leslie, Jhansi L.
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Uddin, Md Jashim
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Oakland, David Noah
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Gilchrist, Carol A.
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Moreau, G. Brett
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Watanabe, Koji
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Saleh, Mahmoud M.
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Simpson, Morgan
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Thompson, Brandon A.
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Auble, David T.
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Turner, Stephen D.
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Giallourou, Natasa
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Swann, Jonathan
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Pu, Zhen
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Ma, Jennie Z.
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Haque, Rashidul
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Petri, William A.
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Burgess, Stacey L., Leslie, Jhansi L., Uddin, Md Jashim, Oakland, David Noah, Gilchrist, Carol A., Moreau, G. Brett, Watanabe, Koji, Saleh, Mahmoud M., Simpson, Morgan, Thompson, Brandon A., Auble, David T., Turner, Stephen D., Giallourou, Natasa, Swann, Jonathan, Pu, Zhen, Ma, Jennie Z., Haque, Rashidul and Petri, William A.
(2020)
Gut microbiome communication with bone marrow regulates susceptibility to amebiasis.
Journal of Clinical Investigation, 140 (8), .
(doi:10.1172/JCI133605).
Abstract
The microbiome provides resistance to infection. However, the underlying mechanisms are poorly understood. We demonstrate that colonization with the intestinal bacterium Clostridium scindens protects from Entamoeba histolytica colitis via innate immunity. Introduction of C. scindens into the gut microbiota epigenetically altered and expanded bone marrow granulocyte-monocyte progenitors (GMPs) and resulted in increased intestinal neutrophils with subsequent challenge with E. histolytica. Introduction of C. scindens alone was sufficient to expand GMPs in gnotobiotic mice. Adoptive transfer of bone marrow from C. scindens–colonized mice into naive mice protected against amebic colitis and increased intestinal neutrophils. Children without E. histolytica diarrhea also had a higher abundance of Lachnoclostridia. Lachnoclostridia C. scindens can metabolize the bile salt cholate, so we measured deoxycholate and discovered that it was increased in the sera of C. scindens–colonized specific pathogen–free and gnotobiotic mice, as well as in children protected from amebiasis. Administration of deoxycholate alone increased GMPs and provided protection from amebiasis. We elucidated a mechanism by which C. scindens and the microbially metabolized bile salt deoxycholic acid alter hematopoietic precursors and provide innate protection from later infection with E. histolytica.
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e-pub ahead of print date: 5 May 2020
Published date: 3 August 2020
Additional Information:
Funding Information:
We thank Tuhinur Arju, and Mamun Kabir at icddr,b. At the University of Virginia, we thank Jeremy Gatesman, Homer Ransdell, Alice Kenney and Sanford Feldman at the Center for Comparative Medicine, Michael Solga, Claude Chew, and Joanne Lannigan at the Flow Cytometry Core facility, AhnThu Nguyen at the Biology Department Genomics Core, Katia Sol-Church and Alyson Pro-rock at the Genome Analysis and Technology Core, and Todd Fox at the Metabolomics Core; and EpiGentek for technical support. We thank Emery H. Bresnick at UW-Madison for helpful scientific discussions. This work was supported by NIH National Institute of Allergy and Infectious Diseases (NIAID) grants R01 AI-26649 and R01 AI043596 (to WAP), by T 32 5T32AI007046 from the Bill and Melinda Gates Foundation, by Robert and Elizabeth Henske, and by NIAID grants R21 AI130700 and R01 AI146257 (to SLB).
Publisher Copyright:
Copyright: © 2020 Burgess et al.
Identifiers
Local EPrints ID: 440762
URI: http://eprints.soton.ac.uk/id/eprint/440762
ISSN: 0021-9738
PURE UUID: c5ec8ddf-fb11-42cb-8865-8a90c9809c62
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Date deposited: 15 May 2020 16:56
Last modified: 06 Jun 2024 02:07
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Contributors
Author:
Stacey L. Burgess
Author:
Jhansi L. Leslie
Author:
Md Jashim Uddin
Author:
David Noah Oakland
Author:
Carol A. Gilchrist
Author:
G. Brett Moreau
Author:
Koji Watanabe
Author:
Mahmoud M. Saleh
Author:
Morgan Simpson
Author:
Brandon A. Thompson
Author:
David T. Auble
Author:
Stephen D. Turner
Author:
Natasa Giallourou
Author:
Zhen Pu
Author:
Jennie Z. Ma
Author:
Rashidul Haque
Author:
William A. Petri
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