CD28 co-stimulation is dispensable for the steady state homeostasis of intestinal regulatory T cells
Abstract It is well-established that CD28 co-stimulation is required for the development and the proliferation of thymus-derived regulatory T cells (tTregs). Meanwhile, the role of CD28 co-stimulation in the homeostasis of peripherally derived Tregs (pTregs) remains unclear. To clarify this issue, w...
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Published in | International immunology Vol. 30; no. 4; pp. 171 - 180 |
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Main Authors | , , , , , , |
Format | Journal Article |
Language | English |
Published |
UK
Oxford University Press
03.04.2018
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Subjects | |
Online Access | Get full text |
ISSN | 0953-8178 1460-2377 1460-2377 |
DOI | 10.1093/intimm/dxy013 |
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Abstract | Abstract
It is well-established that CD28 co-stimulation is required for the development and the proliferation of thymus-derived regulatory T cells (tTregs). Meanwhile, the role of CD28 co-stimulation in the homeostasis of peripherally derived Tregs (pTregs) remains unclear. To clarify this issue, we analyzed Tregs in small and large intestines (SI and LI), the principle sites of pTreg development. Interestingly, and different from in the thymus, Tregs were abundant in the intestines of CD28−/− mice, and most of them were phenotypically pTregs. We showed that CD28−/− naive T cells differentiated into pTregs in the LI after oral exposure to antigens and that CD28−/− pTregs in the LI had the same highly proliferative activity as CD28+/− cells. CD28−/− pTregs acquired these Treg-specific features at transcriptional and epigenetics levels. On the other hand, some immune suppressive molecules were down-regulated in CD28−/− pTregs. Correspondingly, the suppressive activity of CD28−/− pTregs was weaker than CD28+/+ cells. These results indicate that the homeostasis of pTregs in the intestines is maintained even in the absence of CD28, whereas CD28 is required for the maximal suppressive activity of intestinal pTregs.
Lack of CD28 does not affect gut pTreg numbers but weakens their suppressive function |
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AbstractList | Abstract
It is well-established that CD28 co-stimulation is required for the development and the proliferation of thymus-derived regulatory T cells (tTregs). Meanwhile, the role of CD28 co-stimulation in the homeostasis of peripherally derived Tregs (pTregs) remains unclear. To clarify this issue, we analyzed Tregs in small and large intestines (SI and LI), the principle sites of pTreg development. Interestingly, and different from in the thymus, Tregs were abundant in the intestines of CD28−/− mice, and most of them were phenotypically pTregs. We showed that CD28−/− naive T cells differentiated into pTregs in the LI after oral exposure to antigens and that CD28−/− pTregs in the LI had the same highly proliferative activity as CD28+/− cells. CD28−/− pTregs acquired these Treg-specific features at transcriptional and epigenetics levels. On the other hand, some immune suppressive molecules were down-regulated in CD28−/− pTregs. Correspondingly, the suppressive activity of CD28−/− pTregs was weaker than CD28+/+ cells. These results indicate that the homeostasis of pTregs in the intestines is maintained even in the absence of CD28, whereas CD28 is required for the maximal suppressive activity of intestinal pTregs.
Lack of CD28 does not affect gut pTreg numbers but weakens their suppressive function It is well-established that CD28 co-stimulation is required for the development and the proliferation of thymus-derived regulatory T cells (tTregs). Meanwhile, the role of CD28 co-stimulation in the homeostasis of peripherally derived Tregs (pTregs) remains unclear. To clarify this issue, we analyzed Tregs in small and large intestines (SI and LI), the principle sites of pTreg development. Interestingly, and different from in the thymus, Tregs were abundant in the intestines of CD28-/- mice, and most of them were phenotypically pTregs. We showed that CD28-/- naive T cells differentiated into pTregs in the LI after oral exposure to antigens and that CD28-/- pTregs in the LI had the same highly proliferative activity as CD28+/- cells. CD28-/- pTregs acquired these Treg-specific features at transcriptional and epigenetics levels. On the other hand, some immune suppressive molecules were down-regulated in CD28-/- pTregs. Correspondingly, the suppressive activity of CD28-/- pTregs was weaker than CD28+/+ cells. These results indicate that the homeostasis of pTregs in the intestines is maintained even in the absence of CD28, whereas CD28 is required for the maximal suppressive activity of intestinal pTregs. It is well-established that CD28 co-stimulation is required for the development and the proliferation of thymus-derived regulatory T cells (tTregs). Meanwhile, the role of CD28 co-stimulation in the homeostasis of peripherally derived Tregs (pTregs) remains unclear. To clarify this issue, we analyzed Tregs in small and large intestines (SI and LI), the principle sites of pTreg development. Interestingly, and different from in the thymus, Tregs were abundant in the intestines of CD28−/− mice, and most of them were phenotypically pTregs. We showed that CD28−/− naive T cells differentiated into pTregs in the LI after oral exposure to antigens and that CD28−/− pTregs in the LI had the same highly proliferative activity as CD28+/− cells. CD28−/− pTregs acquired these Treg-specific features at transcriptional and epigenetics levels. On the other hand, some immune suppressive molecules were down-regulated in CD28−/− pTregs. Correspondingly, the suppressive activity of CD28−/− pTregs was weaker than CD28+/+ cells. These results indicate that the homeostasis of pTregs in the intestines is maintained even in the absence of CD28, whereas CD28 is required for the maximal suppressive activity of intestinal pTregs. It is well-established that CD28 co-stimulation is required for the development and the proliferation of thymus-derived regulatory T cells (tTregs). Meanwhile, the role of CD28 co-stimulation in the homeostasis of peripherally derived Tregs (pTregs) remains unclear. To clarify this issue, we analyzed Tregs in small and large intestines (SI and LI), the principle sites of pTreg development. Interestingly, and different from in the thymus, Tregs were abundant in the intestines of CD28-/- mice, and most of them were phenotypically pTregs. We showed that CD28-/- naive T cells differentiated into pTregs in the LI after oral exposure to antigens and that CD28-/- pTregs in the LI had the same highly proliferative activity as CD28+/- cells. CD28-/- pTregs acquired these Treg-specific features at transcriptional and epigenetics levels. On the other hand, some immune suppressive molecules were down-regulated in CD28-/- pTregs. Correspondingly, the suppressive activity of CD28-/- pTregs was weaker than CD28+/+ cells. These results indicate that the homeostasis of pTregs in the intestines is maintained even in the absence of CD28, whereas CD28 is required for the maximal suppressive activity of intestinal pTregs.It is well-established that CD28 co-stimulation is required for the development and the proliferation of thymus-derived regulatory T cells (tTregs). Meanwhile, the role of CD28 co-stimulation in the homeostasis of peripherally derived Tregs (pTregs) remains unclear. To clarify this issue, we analyzed Tregs in small and large intestines (SI and LI), the principle sites of pTreg development. Interestingly, and different from in the thymus, Tregs were abundant in the intestines of CD28-/- mice, and most of them were phenotypically pTregs. We showed that CD28-/- naive T cells differentiated into pTregs in the LI after oral exposure to antigens and that CD28-/- pTregs in the LI had the same highly proliferative activity as CD28+/- cells. CD28-/- pTregs acquired these Treg-specific features at transcriptional and epigenetics levels. On the other hand, some immune suppressive molecules were down-regulated in CD28-/- pTregs. Correspondingly, the suppressive activity of CD28-/- pTregs was weaker than CD28+/+ cells. These results indicate that the homeostasis of pTregs in the intestines is maintained even in the absence of CD28, whereas CD28 is required for the maximal suppressive activity of intestinal pTregs. |
Author | Watanabe, Shiho Tabata, Yuki Akieda, Yuki Abe, Ryo Wakamatsu, Ei Ogawa, Shuhei Omori, Hiroki |
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BackLink | https://www.ncbi.nlm.nih.gov/pubmed/29425339$$D View this record in MEDLINE/PubMed |
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CitedBy_id | crossref_primary_10_1007_s11427_022_2212_5 crossref_primary_10_1016_j_bbrc_2018_07_021 crossref_primary_10_1016_j_molimm_2018_05_021 crossref_primary_10_1073_pnas_1922600117 crossref_primary_10_3389_fimmu_2022_861607 crossref_primary_10_1016_j_celrep_2024_114655 crossref_primary_10_3389_fimmu_2020_02104 crossref_primary_10_3389_fimmu_2023_1243204 |
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It is well-established that CD28 co-stimulation is required for the development and the proliferation of thymus-derived regulatory T cells (tTregs).... It is well-established that CD28 co-stimulation is required for the development and the proliferation of thymus-derived regulatory T cells (tTregs). Meanwhile,... |
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SubjectTerms | Animals CD28 Antigens - genetics CD28 Antigens - immunology CD28 Antigens - metabolism Cell Differentiation - immunology Cell Proliferation DNA Methylation Homeostasis Immunomodulation Intestinal Mucosa - immunology Intestinal Mucosa - metabolism Intraepithelial Lymphocytes - immunology Intraepithelial Lymphocytes - metabolism Mice Mice, Knockout Mice, Transgenic T-Lymphocytes, Regulatory - immunology T-Lymphocytes, Regulatory - metabolism |
Title | CD28 co-stimulation is dispensable for the steady state homeostasis of intestinal regulatory T cells |
URI | https://www.ncbi.nlm.nih.gov/pubmed/29425339 https://www.proquest.com/docview/2001067141 |
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