Specificity of human T cell clones reactive to immunodominant epitopes of myelin basic protein. 1991

Y K Chou, and P Henderikx, and M Vainiene, and R Whitham, and D Bourdette, and C H Chou, and G Hashim, and H Offner, and A A Vandenbark
Department of Neuroimmunology Research, Veterans Affairs Medical Center, Portland, OR 97201.

Several recently discovered lines of evidence support the involvement of myelin basic protein (BP)-specific T cells in multiple sclerosis (MS). To identify potentially relevant immunodominant T cell epitopes, human BP (Hu-BP)-reactive T cell lines were selected from MS and normal donors and tested for reactivity to cleavage fragments and synthetic peptides of Hu-BP. The MS T cell lines responded to more Hu-BP epitopes than did normal lines, showing biased recognition of the N terminal half of the molecule, and one region in the C terminal half, suggesting increased sensitization to BP. The MS lines also differed from normal lines in their decreased percentage of CD8+ T cells. One hundred nine T cell clones isolated from these lines confirmed the reactivity pattern of the lines but did not reflect the mixed phenotype, since all but three clones tested were CD4+. T cell clones from HLA-DR2 homozygous donors responded to a variety of epitopes, indicating that this molecule was permissive in its ability to restrict T cell responses. Other epitopes, including the immunodominant 149-170 sequence, were restricted by several different major histocompatibility complex (MHC) molecules from both MS and normal donors. T cell receptor (TCR) V gene products could be identified on six of 38 clones tested using monoclonal antibodies. From one HLA-DR2 homozygous donor, four of eight clones utilized V beta 5.2 in response to different BP epitopes, providing initial support for the preferential use of a limited set of V region genes in the human response to BP. Preferential TCR V gene use in MS patients would provide the rationale to regulate selectively BP-reactive T cells through immunity directed at the TCR and thus test for the first time the hypothesis that BP-reactive T cells play a critical role in the pathogenesis of MS.

UI MeSH Term Description Entries
D008297 Male Males
D008875 Middle Aged An adult aged 45 - 64 years. Middle Age
D009103 Multiple Sclerosis An autoimmune disorder mainly affecting young adults and characterized by destruction of myelin in the central nervous system. Pathologic findings include multiple sharply demarcated areas of demyelination throughout the white matter of the central nervous system. Clinical manifestations include visual loss, extra-ocular movement disorders, paresthesias, loss of sensation, weakness, dysarthria, spasticity, ataxia, and bladder dysfunction. The usual pattern is one of recurrent attacks followed by partial recovery (see MULTIPLE SCLEROSIS, RELAPSING-REMITTING), but acute fulminating and chronic progressive forms (see MULTIPLE SCLEROSIS, CHRONIC PROGRESSIVE) also occur. (Adams et al., Principles of Neurology, 6th ed, p903) MS (Multiple Sclerosis),Multiple Sclerosis, Acute Fulminating,Sclerosis, Disseminated,Disseminated Sclerosis,Sclerosis, Multiple
D011948 Receptors, Antigen, T-Cell Molecules on the surface of T-lymphocytes that recognize and combine with antigens. The receptors are non-covalently associated with a complex of several polypeptides collectively called CD3 antigens (CD3 COMPLEX). Recognition of foreign antigen and the major histocompatibility complex is accomplished by a single heterodimeric antigen-receptor structure, composed of either alpha-beta (RECEPTORS, ANTIGEN, T-CELL, ALPHA-BETA) or gamma-delta (RECEPTORS, ANTIGEN, T-CELL, GAMMA-DELTA) chains. Antigen Receptors, T-Cell,T-Cell Receptors,Receptors, T-Cell Antigen,T-Cell Antigen Receptor,T-Cell Receptor,Antigen Receptor, T-Cell,Antigen Receptors, T Cell,Receptor, T-Cell,Receptor, T-Cell Antigen,Receptors, T Cell Antigen,Receptors, T-Cell,T Cell Antigen Receptor,T Cell Receptor,T Cell Receptors,T-Cell Antigen Receptors
D012016 Reference Values The range or frequency distribution of a measurement in a population (of organisms, organs or things) that has not been selected for the presence of disease or abnormality. Normal Range,Normal Values,Reference Ranges,Normal Ranges,Normal Value,Range, Normal,Range, Reference,Ranges, Normal,Ranges, Reference,Reference Range,Reference Value,Value, Normal,Value, Reference,Values, Normal,Values, Reference
D002999 Clone Cells A group of genetically identical cells all descended from a single common ancestral cell by mitosis in eukaryotes or by binary fission in prokaryotes. Clone cells also include populations of recombinant DNA molecules all carrying the same inserted sequence. (From King & Stansfield, Dictionary of Genetics, 4th ed) Clones,Cell, Clone,Cells, Clone,Clone,Clone Cell
D004676 Myelin Basic Protein An abundant cytosolic protein that plays a critical role in the structure of multilamellar myelin. Myelin basic protein binds to the cytosolic sides of myelin cell membranes and causes a tight adhesion between opposing cell membranes. Golli-MBP1 Protein,Golli-MBP2 Protein,HOG5 Protein,HOG7 Protein,MBP1 Protein,MBP2 Protein,MBP3 Protein,MBP4 Protein,Myelin Basic Protein, 17.2 kDa Isoform,Myelin Basic Protein, 18.5 kDa Isoform,Myelin Basic Protein, 20.2 kDa Isoform,Myelin Basic Protein, 21.5 kDa Isoform,Myelin Basic Protein, Isoform 1,Myelin Basic Protein, Isoform 2,Myelin Basic Protein, Isoform 3,Myelin Basic Protein, Isoform 4,Myelin Basic Protein, Isoform 5,Myelin Basic Protein, Isoform 6,Myelin Basic Protein, Isoform 7,Golli MBP1 Protein,Golli MBP2 Protein
D005260 Female Females
D005796 Genes A category of nucleic acid sequences that function as units of heredity and which code for the basic instructions for the development, reproduction, and maintenance of organisms. Cistron,Gene,Genetic Materials,Cistrons,Genetic Material,Material, Genetic,Materials, Genetic
D006801 Humans Members of the species Homo sapiens. Homo sapiens,Man (Taxonomy),Human,Man, Modern,Modern Man

Related Publications

Y K Chou, and P Henderikx, and M Vainiene, and R Whitham, and D Bourdette, and C H Chou, and G Hashim, and H Offner, and A A Vandenbark
May 1988, Neurology,
Y K Chou, and P Henderikx, and M Vainiene, and R Whitham, and D Bourdette, and C H Chou, and G Hashim, and H Offner, and A A Vandenbark
July 1995, Annals of the New York Academy of Sciences,
Y K Chou, and P Henderikx, and M Vainiene, and R Whitham, and D Bourdette, and C H Chou, and G Hashim, and H Offner, and A A Vandenbark
September 1996, Journal of neuroscience research,
Y K Chou, and P Henderikx, and M Vainiene, and R Whitham, and D Bourdette, and C H Chou, and G Hashim, and H Offner, and A A Vandenbark
January 1988, Annals of the New York Academy of Sciences,
Y K Chou, and P Henderikx, and M Vainiene, and R Whitham, and D Bourdette, and C H Chou, and G Hashim, and H Offner, and A A Vandenbark
May 1990, Science (New York, N.Y.),
Y K Chou, and P Henderikx, and M Vainiene, and R Whitham, and D Bourdette, and C H Chou, and G Hashim, and H Offner, and A A Vandenbark
June 2012, Journal of neuroinflammation,
Y K Chou, and P Henderikx, and M Vainiene, and R Whitham, and D Bourdette, and C H Chou, and G Hashim, and H Offner, and A A Vandenbark
May 1997, Biochemical Society transactions,
Y K Chou, and P Henderikx, and M Vainiene, and R Whitham, and D Bourdette, and C H Chou, and G Hashim, and H Offner, and A A Vandenbark
February 1989, Journal of neuroscience research,
Y K Chou, and P Henderikx, and M Vainiene, and R Whitham, and D Bourdette, and C H Chou, and G Hashim, and H Offner, and A A Vandenbark
February 1994, Journal of neuroimmunology,
Y K Chou, and P Henderikx, and M Vainiene, and R Whitham, and D Bourdette, and C H Chou, and G Hashim, and H Offner, and A A Vandenbark
January 1994, The Journal of experimental medicine,
Copied contents to your clipboard!