Bcl6 controls meningeal Th17–B cell interaction in murine neuroinflammation

Ectopic lymphoid tissue containing B cells forms in the meninges at late stages of human multiple sclerosis (MS) and when neuroinflammation is induced by interleukin (IL)-17 producing T helper (Th17) cells in rodents. B cell differentiation and the subsequent release of class-switched immunoglobulin...

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Published inProceedings of the National Academy of Sciences Vol. 118; no. 36; pp. 1 - 10
Main Authors Hartlehnert, Maike, Börsch, Anna-Lena, Li, Xiaolin, Burmeister, Miriam, Gerwien, Hanna, Schafflick, David, Heming, Michael, Lu, I-Na, Narayanan, Venu, Strecker, Jan-Kolja, Kolz, Anna, Peters, Anneli, Wu, Gregory F., Wiendl, Heinz, Sorokin, Lydia, Horste, Gerd Meyer zu
Format Journal Article
LanguageEnglish
Published United States National Academy of Sciences 07.09.2021
Proceedings of the National Academy of Sciences
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ISSN0027-8424
1091-6490
1091-6490
DOI10.1073/pnas.2023174118

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Abstract Ectopic lymphoid tissue containing B cells forms in the meninges at late stages of human multiple sclerosis (MS) and when neuroinflammation is induced by interleukin (IL)-17 producing T helper (Th17) cells in rodents. B cell differentiation and the subsequent release of class-switched immunoglobulins have been speculated to occur in the meninges, but the exact cellular composition and underlying mechanisms of meningeal-dominated inflammation remain unknown. Here, we performed in-depth characterization of meningeal versus parenchymal Th17-induced rodent neuroinflammation. The most pronounced cellular and transcriptional differences between these compartments was the localization of B cells exhibiting a follicular phenotype exclusively to the meninges. Correspondingly, meningeal but not parenchymal Th17 cells acquired a B cell–supporting phenotype and resided in close contact with B cells. This preferential B cell tropism for the meninges and the formation of meningeal ectopic lymphoid tissue was partially dependent on the expression of the transcription factor Bcl6 in Th17 cells that is required in other T cell lineages to induce isotype class switching in B cells. A function of Bcl6 in Th17 cells was only detected in vivo and was reflected by the induction of B cell–supporting cytokines, the appearance of follicular B cells in the meninges, and of immunoglobulin class switching in the cerebrospinal fluid. We thus identify the induction of a B cell–supporting meningeal microenvironment by Bcl6 in Th17 cells as a mechanism controlling compartment specificity in neuroinflammation.
AbstractList The meninges protect the central nervous system but also host lymphocytes in neuroinflammation. In human multiple sclerosis, preferentially B cells accumulate in the meninges. By generating a compartment-specific transcriptional map of meningeal versus parenchymal leukocytes in experimental neuroinflammation, we found a follicular phenotype of meningeal B cells and a corresponding follicular helper-like phenotype in meningeal Th17 cells. The meninges thus instructed a site-specific local phenotype to proinflammatory autoreactive T cells. We identified the transcription factor Bcl6 in Th17 cells to promote interactions with meningeal B cells, isotype-switching, and B cell-supporting chemokines. This may describe a mechanism controlling meningeal autoimmunity and helps understanding how the meninges, as a recently recognized immunologically active site, contribute to autoimmune tissue damage in multiple sclerosis. Ectopic lymphoid tissue containing B cells forms in the meninges at late stages of human multiple sclerosis (MS) and when neuroinflammation is induced by interleukin (IL)-17 producing T helper (Th17) cells in rodents. B cell differentiation and the subsequent release of class-switched immunoglobulins have been speculated to occur in the meninges, but the exact cellular composition and underlying mechanisms of meningeal-dominated inflammation remain unknown. Here, we performed in-depth characterization of meningeal versus parenchymal Th17-induced rodent neuroinflammation. The most pronounced cellular and transcriptional differences between these compartments was the localization of B cells exhibiting a follicular phenotype exclusively to the meninges. Correspondingly, meningeal but not parenchymal Th17 cells acquired a B cell–supporting phenotype and resided in close contact with B cells. This preferential B cell tropism for the meninges and the formation of meningeal ectopic lymphoid tissue was partially dependent on the expression of the transcription factor Bcl6 in Th17 cells that is required in other T cell lineages to induce isotype class switching in B cells. A function of Bcl6 in Th17 cells was only detected in vivo and was reflected by the induction of B cell–supporting cytokines, the appearance of follicular B cells in the meninges, and of immunoglobulin class switching in the cerebrospinal fluid. We thus identify the induction of a B cell–supporting meningeal microenvironment by Bcl6 in Th17 cells as a mechanism controlling compartment specificity in neuroinflammation.
Ectopic lymphoid tissue containing B cells forms in the meninges at late stages of human multiple sclerosis (MS) and when neuroinflammation is induced by interleukin (IL)-17 producing T helper (Th17) cells in rodents. B cell differentiation and the subsequent release of class-switched immunoglobulins have been speculated to occur in the meninges, but the exact cellular composition and underlying mechanisms of meningeal-dominated inflammation remain unknown. Here, we performed in-depth characterization of meningeal versus parenchymal Th17-induced rodent neuroinflammation. The most pronounced cellular and transcriptional differences between these compartments was the localization of B cells exhibiting a follicular phenotype exclusively to the meninges. Correspondingly, meningeal but not parenchymal Th17 cells acquired a B cell-supporting phenotype and resided in close contact with B cells. This preferential B cell tropism for the meninges and the formation of meningeal ectopic lymphoid tissue was partially dependent on the expression of the transcription factor Bcl6 in Th17 cells that is required in other T cell lineages to induce isotype class switching in B cells. A function of Bcl6 in Th17 cells was only detected in vivo and was reflected by the induction of B cell-supporting cytokines, the appearance of follicular B cells in the meninges, and of immunoglobulin class switching in the cerebrospinal fluid. We thus identify the induction of a B cell-supporting meningeal microenvironment by Bcl6 in Th17 cells as a mechanism controlling compartment specificity in neuroinflammation.Ectopic lymphoid tissue containing B cells forms in the meninges at late stages of human multiple sclerosis (MS) and when neuroinflammation is induced by interleukin (IL)-17 producing T helper (Th17) cells in rodents. B cell differentiation and the subsequent release of class-switched immunoglobulins have been speculated to occur in the meninges, but the exact cellular composition and underlying mechanisms of meningeal-dominated inflammation remain unknown. Here, we performed in-depth characterization of meningeal versus parenchymal Th17-induced rodent neuroinflammation. The most pronounced cellular and transcriptional differences between these compartments was the localization of B cells exhibiting a follicular phenotype exclusively to the meninges. Correspondingly, meningeal but not parenchymal Th17 cells acquired a B cell-supporting phenotype and resided in close contact with B cells. This preferential B cell tropism for the meninges and the formation of meningeal ectopic lymphoid tissue was partially dependent on the expression of the transcription factor Bcl6 in Th17 cells that is required in other T cell lineages to induce isotype class switching in B cells. A function of Bcl6 in Th17 cells was only detected in vivo and was reflected by the induction of B cell-supporting cytokines, the appearance of follicular B cells in the meninges, and of immunoglobulin class switching in the cerebrospinal fluid. We thus identify the induction of a B cell-supporting meningeal microenvironment by Bcl6 in Th17 cells as a mechanism controlling compartment specificity in neuroinflammation.
Ectopic lymphoid tissue containing B cells forms in the meninges at late stages of human multiple sclerosis (MS) and when neuroinflammation is induced by interleukin (IL)-17 producing T helper (Th17) cells in rodents. B cell differentiation and the subsequent release of class-switched immunoglobulins have been speculated to occur in the meninges, but the exact cellular composition and underlying mechanisms of meningeal-dominated inflammation remain unknown. Here, we performed in-depth characterization of meningeal versus parenchymal Th17-induced rodent neuroinflammation. The most pronounced cellular and transcriptional differences between these compartments was the localization of B cells exhibiting a follicular phenotype exclusively to the meninges. Correspondingly, meningeal but not parenchymal Th17 cells acquired a B cell-supporting phenotype and resided in close contact with B cells. This preferential B cell tropism for the meninges and the formation of meningeal ectopic lymphoid tissue was partially dependent on the expression of the transcription factor Bcl6 in Th17 cells that is required in other T cell lineages to induce isotype class switching in B cells. A function of Bcl6 in Th17 cells was only detected in vivo and was reflected by the induction of B cell-supporting cytokines, the appearance of follicular B cells in the meninges, and of immunoglobulin class switching in the cerebrospinal fluid. We thus identify the induction of a B cell-supporting meningeal microenvironment by Bcl6 in Th17 cells as a mechanism controlling compartment specificity in neuroinflammation.
Author Hartlehnert, Maike
Heming, Michael
Li, Xiaolin
Peters, Anneli
Wu, Gregory F.
Strecker, Jan-Kolja
Horste, Gerd Meyer zu
Burmeister, Miriam
Sorokin, Lydia
Gerwien, Hanna
Lu, I-Na
Kolz, Anna
Narayanan, Venu
Wiendl, Heinz
Börsch, Anna-Lena
Schafflick, David
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Keywords single-cell RNA-seq
CNS meninges
ectopic lymphoid tissue
Bcl6
Th17
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1M. Hartlehnert, A.-L.B., and X.L contributed equally to this work.
Author contributions: A.P., H.W., and G.M.z.H. designed research; M. Hartlehnert, A.-L.B., X.L., M.B., H.G., D.S., V.N., and A.K. performed research; J.-K.S., G.F.W., and L.S. contributed new reagents/analytic tools; M. Hartlehnert, A.-L.B., X.L., M. Heming, and I.-N.L. analyzed data; and M. Hartlehnert, L.S., and G.M.z.H. wrote the paper.
Edited by Lawrence Steinman, Stanford University School of Medicine, Stanford, CA, and approved July 27, 2021 (received for review November 24, 2020)
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Snippet Ectopic lymphoid tissue containing B cells forms in the meninges at late stages of human multiple sclerosis (MS) and when neuroinflammation is induced by...
The meninges protect the central nervous system but also host lymphocytes in neuroinflammation. In human multiple sclerosis, preferentially B cells accumulate...
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SubjectTerms Animals
B-Lymphocytes
B-Lymphocytes - immunology
Bcl-6 protein
Biological Sciences
Cell Communication
Cell differentiation
Cerebrospinal fluid
Class switching
Cytokines
Cytokines - metabolism
Differentiation (biology)
Encephalomyelitis, Autoimmune, Experimental
Encephalomyelitis, Autoimmune, Experimental - metabolism
Female
Germinal Center
Germinal Center - immunology
Helper cells
Immunoglobulins
Inflammation
Inflammation - metabolism
Interleukins
Localization
Lymphocyte Activation
Lymphocytes
Lymphocytes B
Lymphocytes T
Lymphoid tissue
Male
Meninges
Meninges - immunology
Meninges - metabolism
Mice
Mice, Inbred C57BL
Microenvironments
Multiple Sclerosis
Multiple Sclerosis - metabolism
Neuroinflammatory Diseases
Neuroinflammatory Diseases - immunology
Neuroinflammatory Diseases - metabolism
Neuroinflammatory Diseases - physiopathology
Parenchymal Tissue
Parenchymal Tissue - immunology
Parenchymal Tissue - metabolism
Phenotypes
Proto-Oncogene Proteins c-bcl-6
Proto-Oncogene Proteins c-bcl-6 - metabolism
Proto-Oncogene Proteins c-bcl-6 - physiology
Rodents
Switching
Th17 Cells
Th17 Cells - immunology
Th17 Cells - metabolism
Th17 Cells - physiology
Tropism
Title Bcl6 controls meningeal Th17–B cell interaction in murine neuroinflammation
URI https://www.jstor.org/stable/27075434
https://cir.nii.ac.jp/crid/1873679867448531072
https://www.ncbi.nlm.nih.gov/pubmed/34479995
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https://pubmed.ncbi.nlm.nih.gov/PMC8433502
Volume 118
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