Sequence and Structural Analyses Reveal Distinct and Highly Diverse Human CD8+ TCR Repertoires to Immunodominant Viral Antigens

A diverse T cell receptor (TCR) repertoire is essential for controlling viral infections. However, information about TCR repertoires to defined viral antigens is limited. We performed a comprehensive analysis of CD8+ TCR repertoires for two dominant viral epitopes: pp65495–503 (NLV) of cytomegalovir...

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Published inCell reports (Cambridge) Vol. 19; no. 3; pp. 569 - 583
Main Authors Chen, Guobing, Yang, Xinbo, Ko, Annette, Sun, Xiaoping, Gao, Mingming, Zhang, Yongqing, Shi, Alvin, Mariuzza, Roy A., Weng, Nan-ping
Format Journal Article
LanguageEnglish
Published United States Elsevier Inc 18.04.2017
Elsevier
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Abstract A diverse T cell receptor (TCR) repertoire is essential for controlling viral infections. However, information about TCR repertoires to defined viral antigens is limited. We performed a comprehensive analysis of CD8+ TCR repertoires for two dominant viral epitopes: pp65495–503 (NLV) of cytomegalovirus and M158–66 (GIL) of influenza A virus. The highly individualized repertoires (87–5,533 α or β clonotypes per subject) comprised thousands of unique TCRα and TCRβ sequences and dozens of distinct complementary determining region (CDR)3α and CDR3β motifs. However, diversity is effectively restricted by preferential V-J combinations, CDR3 lengths, and CDR3α/CDR3β pairings. Structures of two GIL-specific TCRs bound to GIL–HLA-A2 provided a potential explanation for the lower diversity of GIL-specific versus NLV-specific repertoires. These anti-viral TCRs occupied up to 3.4% of the CD8+ TCRβ repertoire, ensuring broad T cell responses to single epitopes. Our portrait of two anti-viral TCR repertoires may inform the development of predictors of immune protection. [Display omitted] •Characterized human CD8+ TCR repertoires for CMV-NLV and IAV-GIL viral epitopes•Highly diverse repertoires comprised 87–5,533 distinct clonotypes per subject•Repertoires were individualized, but public clonotypes were favored for expansion•Structural basis for lower diversity of GIL- versus NLV-specific TCR repertoires CD8+ T cells are essential for controlling viral infections. Chen et al. analyzed human TCR repertoires specific for two viral epitopes. Repertoire diversity was much greater than previously appreciated for both public and private TCRs. Such diversity assures protection from virus escape and the provision of T cell functional heterogeneity.
AbstractList A diverse T cell receptor (TCR) repertoire is essential for controlling viral infections. However, information about TCR repertoires to defined viral antigens is limited. We performed a comprehensive analysis of CD8 + TCR repertoires for two dominant viral epitopes: pp65 495–503 (NLV) of cytomegalovirus and M1 58–66 (GIL) of influenza A virus. The highly individualized repertoires (87–5,533 α or β clonotypes per subject) comprised thousands of unique TCRα and TCRβ sequences and dozens of distinct complementary determining region (CDR)3α and CDR3β motifs. However, diversity is effectively restricted by preferential V-J combinations, CDR3 lengths, and CDR3α/CDR3β pairings. Structures of two GIL-specific TCRs bound to GIL–HLA-A2 provided a potential explanation for the lower diversity of GIL-specific versus NLV-specific repertoires. These anti-viral TCRs occupied up to 3.4% of the CD8 + TCRβ repertoire, ensuring broad T cell responses to single epitopes. Our portrait of two anti-viral TCR repertoires may inform the development of predictors of immune protection. CD8 + T cells are essential for controlling viral infections. Chen et al. analyzed human TCR repertoires specific for two viral epitopes. Repertoire diversity was much greater than previously appreciated for both public and private TCRs. Such diversity assures protection from virus escape and the provision of T cell functional heterogeneity.
A diverse T cell receptor (TCR) repertoire is essential for controlling viral infections. However, information about TCR repertoires to defined viral antigens is limited. We performed a comprehensive analysis of CD8+ TCR repertoires for two dominant viral epitopes: pp65495–503 (NLV) of cytomegalovirus and M158–66 (GIL) of influenza A virus. The highly individualized repertoires (87–5,533 α or β clonotypes per subject) comprised thousands of unique TCRα and TCRβ sequences and dozens of distinct complementary determining region (CDR)3α and CDR3β motifs. However, diversity is effectively restricted by preferential V-J combinations, CDR3 lengths, and CDR3α/CDR3β pairings. Structures of two GIL-specific TCRs bound to GIL–HLA-A2 provided a potential explanation for the lower diversity of GIL-specific versus NLV-specific repertoires. These anti-viral TCRs occupied up to 3.4% of the CD8+ TCRβ repertoire, ensuring broad T cell responses to single epitopes. Our portrait of two anti-viral TCR repertoires may inform the development of predictors of immune protection. : CD8+ T cells are essential for controlling viral infections. Chen et al. analyzed human TCR repertoires specific for two viral epitopes. Repertoire diversity was much greater than previously appreciated for both public and private TCRs. Such diversity assures protection from virus escape and the provision of T cell functional heterogeneity. Keywords: αβ TCRs for IAV-GIL, αβ TCRs for CMV-NLV, TCR repertoire, TCR-pMHC structure, CD8 T cells, human
A diverse T cell receptor (TCR) repertoire is essential for controlling viral infections. However, information about TCR repertoires to defined viral antigens is limited. We performed a comprehensive analysis of CD8+ TCR repertoires for two dominant viral epitopes: pp65495-503 (NLV) of cytomegalovirus and M158-66 (GIL) of influenza A virus. The highly individualized repertoires (87-5,533 α or β clonotypes per subject) comprised thousands of unique TCRα and TCRβ sequences and dozens of distinct complementary determining region (CDR)3α and CDR3β motifs. However, diversity is effectively restricted by preferential V-J combinations, CDR3 lengths, and CDR3α/CDR3β pairings. Structures of two GIL-specific TCRs bound to GIL-HLA-A2 provided a potential explanation for the lower diversity of GIL-specific versus NLV-specific repertoires. These anti-viral TCRs occupied up to 3.4% of the CD8+ TCRβ repertoire, ensuring broad T cell responses to single epitopes. Our portrait of two anti-viral TCR repertoires may inform the development of predictors of immune protection.A diverse T cell receptor (TCR) repertoire is essential for controlling viral infections. However, information about TCR repertoires to defined viral antigens is limited. We performed a comprehensive analysis of CD8+ TCR repertoires for two dominant viral epitopes: pp65495-503 (NLV) of cytomegalovirus and M158-66 (GIL) of influenza A virus. The highly individualized repertoires (87-5,533 α or β clonotypes per subject) comprised thousands of unique TCRα and TCRβ sequences and dozens of distinct complementary determining region (CDR)3α and CDR3β motifs. However, diversity is effectively restricted by preferential V-J combinations, CDR3 lengths, and CDR3α/CDR3β pairings. Structures of two GIL-specific TCRs bound to GIL-HLA-A2 provided a potential explanation for the lower diversity of GIL-specific versus NLV-specific repertoires. These anti-viral TCRs occupied up to 3.4% of the CD8+ TCRβ repertoire, ensuring broad T cell responses to single epitopes. Our portrait of two anti-viral TCR repertoires may inform the development of predictors of immune protection.
A diverse T cell receptor (TCR) repertoire is essential for controlling viral infections. However, information about TCR repertoires to defined viral antigens is limited. We performed a comprehensive analysis of CD8+ TCR repertoires for two dominant viral epitopes: pp65495–503 (NLV) of cytomegalovirus and M158–66 (GIL) of influenza A virus. The highly individualized repertoires (87–5,533 α or β clonotypes per subject) comprised thousands of unique TCRα and TCRβ sequences and dozens of distinct complementary determining region (CDR)3α and CDR3β motifs. However, diversity is effectively restricted by preferential V-J combinations, CDR3 lengths, and CDR3α/CDR3β pairings. Structures of two GIL-specific TCRs bound to GIL–HLA-A2 provided a potential explanation for the lower diversity of GIL-specific versus NLV-specific repertoires. These anti-viral TCRs occupied up to 3.4% of the CD8+ TCRβ repertoire, ensuring broad T cell responses to single epitopes. Our portrait of two anti-viral TCR repertoires may inform the development of predictors of immune protection. [Display omitted] •Characterized human CD8+ TCR repertoires for CMV-NLV and IAV-GIL viral epitopes•Highly diverse repertoires comprised 87–5,533 distinct clonotypes per subject•Repertoires were individualized, but public clonotypes were favored for expansion•Structural basis for lower diversity of GIL- versus NLV-specific TCR repertoires CD8+ T cells are essential for controlling viral infections. Chen et al. analyzed human TCR repertoires specific for two viral epitopes. Repertoire diversity was much greater than previously appreciated for both public and private TCRs. Such diversity assures protection from virus escape and the provision of T cell functional heterogeneity.
A diverse T cell receptor (TCR) repertoire is essential for controlling viral infections. However, information about TCR repertoires to defined viral antigens is limited. We performed a comprehensive analysis of CD8 TCR repertoires for two dominant viral epitopes: pp65 (NLV) of cytomegalovirus and M1 (GIL) of influenza A virus. The highly individualized repertoires (87-5,533 α or β clonotypes per subject) comprised thousands of unique TCRα and TCRβ sequences and dozens of distinct complementary determining region (CDR)3α and CDR3β motifs. However, diversity is effectively restricted by preferential V-J combinations, CDR3 lengths, and CDR3α/CDR3β pairings. Structures of two GIL-specific TCRs bound to GIL-HLA-A2 provided a potential explanation for the lower diversity of GIL-specific versus NLV-specific repertoires. These anti-viral TCRs occupied up to 3.4% of the CD8 TCRβ repertoire, ensuring broad T cell responses to single epitopes. Our portrait of two anti-viral TCR repertoires may inform the development of predictors of immune protection.
Author Mariuzza, Roy A.
Ko, Annette
Shi, Alvin
Yang, Xinbo
Gao, Mingming
Zhang, Yongqing
Sun, Xiaoping
Chen, Guobing
Weng, Nan-ping
AuthorAffiliation 1 Laboratory of Molecular Biology and Immunology, National Institute on Aging, NIH, Baltimore, MD 21224, USA
3 Department of Cell Biology and Molecular Genetics, University of Maryland, College Park, MD 20742, USA
2 W.M. Keck Laboratory for Structural Biology, University of Maryland Institute for Bioscience and Biotechnology Research, Rockville, MD 20850, USA
4 Laboratory of Genetics, National Institute on Aging, NIH, Baltimore, MD 21224, USA
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BackLink https://www.ncbi.nlm.nih.gov/pubmed/28423320$$D View this record in MEDLINE/PubMed
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ContentType Journal Article
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Issue 3
Keywords αβ TCRs for CMV-NLV
αβ TCRs for IAV-GIL
CD8 T cells
human
TCR repertoire
TCR-pMHC structure
Language English
License This is an open access article under the CC BY-NC-ND license.
Copyright © 2017. Published by Elsevier Inc.
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Snippet A diverse T cell receptor (TCR) repertoire is essential for controlling viral infections. However, information about TCR repertoires to defined viral antigens...
A diverse T cell receptor (TCR) repertoire is essential for controlling viral infections. However, information about TCR repertoires to defined viral antigens...
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StartPage 569
SubjectTerms Adult
Amino Acid Motifs
Amino Acid Sequence
Antibody Affinity - immunology
Antigens, Viral - immunology
CD8 T cells
CD8-Positive T-Lymphocytes - immunology
Clone Cells
Complementarity Determining Regions - immunology
Consensus Sequence
Cytomegalovirus - immunology
HLA-A2 Antigen - immunology
human
Humans
Immunodominant Epitopes - immunology
Influenza A virus - immunology
Peptides - chemistry
Peptides - metabolism
Protein Binding
Receptors, Antigen, T-Cell - chemistry
Receptors, Antigen, T-Cell - immunology
Species Specificity
TCR repertoire
TCR-pMHC structure
αβ TCRs for CMV-NLV
αβ TCRs for IAV-GIL
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Title Sequence and Structural Analyses Reveal Distinct and Highly Diverse Human CD8+ TCR Repertoires to Immunodominant Viral Antigens
URI https://dx.doi.org/10.1016/j.celrep.2017.03.072
https://www.ncbi.nlm.nih.gov/pubmed/28423320
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Volume 19
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