The who's who of T‐cell differentiation: human memory T‐cell subsets

YD Mahnke, TM Brodie, F Sallusto… - European journal of …, 2013 - Wiley Online Library
European journal of immunology, 2013Wiley Online Library
Following antigen encounter and subsequent resolution of the immune response, a single
naļve T cell is able to generate multiple subsets of memory T cells with different phenotypic
and functional properties and gene expression profiles. Single‐cell technologies, first and
foremost flow cytometry, have revealed the complex heterogeneity of the memory T‐cell
compartment and its organization into subsets. However, a consensus has still to be
reached, both at the semantic (nomenclature) and phenotypic level, regarding the …
Following antigen encounter and subsequent resolution of the immune response, a single naļve T cell is able to generate multiple subsets of memory T cells with different phenotypic and functional properties and gene expression profiles. Single‐cell technologies, first and foremost flow cytometry, have revealed the complex heterogeneity of the memory T‐cell compartment and its organization into subsets. However, a consensus has still to be reached, both at the semantic (nomenclature) and phenotypic level, regarding the identification of these subsets. Here, we review recent developments in the characterization of the heterogeneity of the memory T‐cell compartment, and propose a unified classification of both human and nonhuman primate T cells on the basis of phenotypic traits and in vivo properties. Given that vaccine studies and adoptive cell transfer immunotherapy protocols are influenced by these recent findings, it is important to use uniform methods for identifying and discussing functionally distinct subsets of T cells.
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