The survival of memory CD4+ T cells within the gut lamina propria requires OX40 and CD30 signals. 2009

David R Withers, and Elin Jaensson, and Fabrina Gaspal, and Fiona M McConnell, and Bertus Eksteen, and Graham Anderson, and William W Agace, and Peter J L Lane
Medical Research Council Centre for Immune Regulation, Institute for Biomedical Research, Medical School, University of Birmingham, Birmingham, United Kingdom.

Although CD4(+) memory T cells reside within secondary lymphoid tissue, the major reservoir of these cells is in the lamina propria of the intestine. In this study, we demonstrate that, in the absence of signals through both OX40 and CD30, CD4(+) T cells are comprehensively depleted from the lamina propria. Deficiency in either CD30 or OX40 alone reduced CD4(+) T cell numbers, however, in mice deficient in both OX40 and CD30, CD4(+) T cell loss was greatly exacerbated. This loss of CD4(+) T cells was not due to a homing defect because CD30 x OX40-deficient OTII cells were not impaired in their ability to express CCR9 and alpha(4)beta(7) or traffic to the small intestine. There was also no difference in the priming of wild-type (WT) and CD30 x OX40-deficient OTII cells in the mesenteric lymph node after oral immunization. However, following oral immunization, CD30 x OX40-deficient OTII cells trafficked to the lamina propria but failed to persist compared with WT OTII cells. This was not due to reduced levels of Bcl-2 or Bcl-XL, because expression of these was comparable between WT and double knockout OTII cells. Collectively, these data demonstrate that signals through CD30 and OX40 are required for the survival of CD4(+) T cells within the small intestine lamina propria.

UI MeSH Term Description Entries
D007413 Intestinal Mucosa Lining of the INTESTINES, consisting of an inner EPITHELIUM, a middle LAMINA PROPRIA, and an outer MUSCULARIS MUCOSAE. In the SMALL INTESTINE, the mucosa is characterized by a series of folds and abundance of absorptive cells (ENTEROCYTES) with MICROVILLI. Intestinal Epithelium,Intestinal Glands,Epithelium, Intestinal,Gland, Intestinal,Glands, Intestinal,Intestinal Gland,Mucosa, Intestinal
D007421 Intestine, Small The portion of the GASTROINTESTINAL TRACT between the PYLORUS of the STOMACH and the ILEOCECAL VALVE of the LARGE INTESTINE. It is divisible into three portions: the DUODENUM, the JEJUNUM, and the ILEUM. Small Intestine,Intestines, Small,Small Intestines
D008198 Lymph Nodes They are oval or bean shaped bodies (1 - 30 mm in diameter) located along the lymphatic system. Lymph Node,Node, Lymph,Nodes, Lymph
D008810 Mice, Inbred C57BL One of the first INBRED MOUSE STRAINS to be sequenced. This strain is commonly used as genetic background for transgenic mouse models. Refractory to many tumors, this strain is also preferred model for studying role of genetic variations in development of diseases. Mice, C57BL,Mouse, C57BL,Mouse, Inbred C57BL,C57BL Mice,C57BL Mice, Inbred,C57BL Mouse,C57BL Mouse, Inbred,Inbred C57BL Mice,Inbred C57BL Mouse
D002470 Cell Survival The span of viability of a cell characterized by the capacity to perform certain functions such as metabolism, growth, reproduction, some form of responsiveness, and adaptability. Cell Viability,Cell Viabilities,Survival, Cell,Viabilities, Cell,Viability, Cell
D000818 Animals Unicellular or multicellular, heterotrophic organisms, that have sensation and the power of voluntary movement. Under the older five kingdom paradigm, Animalia was one of the kingdoms. Under the modern three domain model, Animalia represents one of the many groups in the domain EUKARYOTA. Animal,Metazoa,Animalia
D013154 Spleen An encapsulated lymphatic organ through which venous blood filters.
D015398 Signal Transduction The intracellular transfer of information (biological activation/inhibition) through a signal pathway. In each signal transduction system, an activation/inhibition signal from a biologically active molecule (hormone, neurotransmitter) is mediated via the coupling of a receptor/enzyme to a second messenger system or to an ion channel. Signal transduction plays an important role in activating cellular functions, cell differentiation, and cell proliferation. Examples of signal transduction systems are the GAMMA-AMINOBUTYRIC ACID-postsynaptic receptor-calcium ion channel system, the receptor-mediated T-cell activation pathway, and the receptor-mediated activation of phospholipases. Those coupled to membrane depolarization or intracellular release of calcium include the receptor-mediated activation of cytotoxic functions in granulocytes and the synaptic potentiation of protein kinase activation. Some signal transduction pathways may be part of larger signal transduction pathways; for example, protein kinase activation is part of the platelet activation signal pathway. Cell Signaling,Receptor-Mediated Signal Transduction,Signal Pathways,Receptor Mediated Signal Transduction,Signal Transduction Pathways,Signal Transduction Systems,Pathway, Signal,Pathway, Signal Transduction,Pathways, Signal,Pathways, Signal Transduction,Receptor-Mediated Signal Transductions,Signal Pathway,Signal Transduction Pathway,Signal Transduction System,Signal Transduction, Receptor-Mediated,Signal Transductions,Signal Transductions, Receptor-Mediated,System, Signal Transduction,Systems, Signal Transduction,Transduction, Signal,Transductions, Signal
D015496 CD4-Positive T-Lymphocytes A critical subpopulation of T-lymphocytes involved in the induction of most immunological functions. The HIV virus has selective tropism for the T4 cell which expresses the CD4 phenotypic marker, a receptor for HIV. In fact, the key element in the profound immunosuppression seen in HIV infection is the depletion of this subset of T-lymphocytes. T4 Cells,T4 Lymphocytes,CD4-Positive Lymphocytes,CD4 Positive T Lymphocytes,CD4-Positive Lymphocyte,CD4-Positive T-Lymphocyte,Lymphocyte, CD4-Positive,Lymphocytes, CD4-Positive,T-Lymphocyte, CD4-Positive,T-Lymphocytes, CD4-Positive,T4 Cell,T4 Lymphocyte
D017730 Ki-1 Antigen A member of the tumor necrosis factor receptor superfamily that may play a role in the regulation of NF-KAPPA B and APOPTOSIS. It is found on activated T-LYMPHOCYTES; B-LYMPHOCYTES; NEUTROPHILS; EOSINOPHILS; MAST CELLS and NK CELLS. Overexpression of the Ki-1 antigen in hematopoietic malignancies make it clinically useful as a biological tumor marker. Signaling of the receptor occurs through its association with TNF RECEPTOR-ASSOCIATED FACTORS. Antigens, CD30,Antigens, Ki-1,Ber-H2 Antigens,CD30 Antigens,Ki-1 Antigens,Tumor Necrosis Factor Receptor Superfamily, Member 8,Ber-H2 Antigen,CD30 Antigen,TNFRSF8 Receptor,Antigen, Ber-H2,Antigen, CD30,Antigen, Ki-1,Antigens, Ber-H2,Antigens, Ki 1,Ber H2 Antigen,Ber H2 Antigens,Ki 1 Antigen,Ki 1 Antigens,Receptor, TNFRSF8

Related Publications

David R Withers, and Elin Jaensson, and Fabrina Gaspal, and Fiona M McConnell, and Bertus Eksteen, and Graham Anderson, and William W Agace, and Peter J L Lane
April 2005, Nature,
David R Withers, and Elin Jaensson, and Fabrina Gaspal, and Fiona M McConnell, and Bertus Eksteen, and Graham Anderson, and William W Agace, and Peter J L Lane
April 2005, Journal of immunology (Baltimore, Md. : 1950),
David R Withers, and Elin Jaensson, and Fabrina Gaspal, and Fiona M McConnell, and Bertus Eksteen, and Graham Anderson, and William W Agace, and Peter J L Lane
February 2011, Immunity,
David R Withers, and Elin Jaensson, and Fabrina Gaspal, and Fiona M McConnell, and Bertus Eksteen, and Graham Anderson, and William W Agace, and Peter J L Lane
November 2011, Immunological reviews,
David R Withers, and Elin Jaensson, and Fabrina Gaspal, and Fiona M McConnell, and Bertus Eksteen, and Graham Anderson, and William W Agace, and Peter J L Lane
January 1998, Chemical immunology,
David R Withers, and Elin Jaensson, and Fabrina Gaspal, and Fiona M McConnell, and Bertus Eksteen, and Graham Anderson, and William W Agace, and Peter J L Lane
December 2011, Gastroenterology,
David R Withers, and Elin Jaensson, and Fabrina Gaspal, and Fiona M McConnell, and Bertus Eksteen, and Graham Anderson, and William W Agace, and Peter J L Lane
August 2009, European journal of immunology,
David R Withers, and Elin Jaensson, and Fabrina Gaspal, and Fiona M McConnell, and Bertus Eksteen, and Graham Anderson, and William W Agace, and Peter J L Lane
October 2007, Journal of immunology (Baltimore, Md. : 1950),
David R Withers, and Elin Jaensson, and Fabrina Gaspal, and Fiona M McConnell, and Bertus Eksteen, and Graham Anderson, and William W Agace, and Peter J L Lane
December 1996, European journal of immunology,
David R Withers, and Elin Jaensson, and Fabrina Gaspal, and Fiona M McConnell, and Bertus Eksteen, and Graham Anderson, and William W Agace, and Peter J L Lane
March 2008, International immunology,
Copied contents to your clipboard!