Ligand-dependent regulation of T cell development and activation
Cite this article as: Germain, R.N. Immunol Res (2003) 27: 277. doi:10.1385/IR:27:2-3:277 Abstract
+ and CD8 +T lymphocytes develop in the thymus from precursors with diverse clonally distributed receptors, possessing binding sites with negligible, intermediate, or high affinity for self-peptide: major histocompatibility complex (MHC) ligands. Positive-and negative-selection processes acting on this precursor pool yield a peripheral T cell population comprised of cells with receptors (TCR) capable of self-peptide: MHC ligand recognition, but largely depleted of those able to mediate overt self-responsiveness. The Lymphocyte Biology Section of the Laboratory of Immunology studies how self-ligand recognition guides T cell development in the thymus and influences the functionality of naive and activated T cells in the periphery. It also seeks to define the molecular basis for the discrimination between self-ligands and foreign antigens that controls T cell activation to effector function. Finally, it uses a combination of conventional cellular immunological methods, biochemical and biophysical studies, and advanced imaging techniques to visualize, quantitate, and model the various steps in the development of primary and memory T cell immune responses. Key Words T lymphocyte T cell receptor MHC molecule Antigen Thymus CD4 CD8 Signaling Vaccines Autoimmunity Tolerance References
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