Diverse Streptococcus pneumoniae strains drive a MAIT cell response through MR1-dependent and cytokine-driven pathways.

Diverse Streptococcus pneumoniae strains drive a MAIT cell response through MR1-dependent and cytokine-driven pathways.

Mucosal Associated Invariant T (MAIT) cells represent an innate T-cell population which can recognize ligands generated by the microbial riboflavin synthesis pathway, presented via the major-histocompatibility-complex (MHC) class I-related molecule MR1. Streptococcus pneumoniae (the 'pneumococc...

Bibliografske podrobnosti
Main Authors:	Kurioka, A, van Wilgenburg, B, Javan, R, Hoyle, R, van Tonder, A, Harrold, C, Leng, T, Howson, L, Shepherd, D, Cerundolo, V, Brueggemann, A, Klenerman, P
Format:	Journal article
Jezik:	English
Izdano:	Oxford University Press 2017

Podobne knjige/članki

TLR signaling in human antigen-presenting cells regulates MR1-dependent activation of MAIT cells
od: Ussher, J, et al.
Izdano: (2016)

A novel model of MHC class I-related (MR1)-mediated activation of MAIT cells
od: Ussher, J, et al.
Izdano: (2012)

MAIT cells induce proinflammatory cytokine production in monocytes through the secretion of granzymes A and K
od: Kurioka, A, et al.
Izdano: (2012)

MAIT cells induce proinflammatory cytokine production in monocytes through the secretion of granzymes A and K
od: Kurioka, A, et al.
Izdano: (2011)

MAIT cells: new guardians of the liver
od: Kurioka, A, et al.
Izdano: (2016)

Bacteria exposed biliary epithelium and liver B cells activate intrahepatic mait cells in an MR1-dependent manner
od: Jeffery, H, et al.
Izdano: (2015)

MR1-dependent activation of intrahepatic MAIT cells by bacterially exposed biliary epithelial cells and liver B cells
od: Jeffery, HC, et al.
Izdano: (2016)

Erratum: MAIT cells: new guardians of the liver.
od: Kurioka, A, et al.
Izdano: (2017)

MAIT cells are enriched in portal tracts and respond to biliary epithelial cells presenting bacterial ligands during liver inflammation
od: Jeffery, H, et al.
Izdano: (2015)

Genome sequencing reveals a large and diverse repertoire of antimicrobial peptides
od: Rezaei Javan, R, et al.
Izdano: (2018)

MAIT cells in sterile and non-sterile inflammation
od: Howson, L
Izdano: (2017)

MAIT cells are activated during human viral infections
od: Van Wilgenburg, B, et al.
Izdano: (2016)

MAIT cells are activated during human viral infections.
od: van Wilgenburg, B, et al.
Izdano: (2016)

Pneumococcal prophages are diverse, but not without structure or history
od: Brueggemann, A, et al.
Izdano: (2017)

The chemical synthesis, stability, and activity of MAIT cell prodrug agonists that access MR1 in recycling endosomes
od: Lange, J, et al.
Izdano: (2020)

MAIT cells and viruses
od: Ussher, JE, et al.
Izdano: (2018)

High MDR‐1 expression by MAIT cells confers resistance to cytotoxic but not immunosuppressive MDR‐1 substrates
od: Fergusson, JR, et al.
Izdano: (2018)

Study of MAIT cell activation in viral infections in vivo
od: Hinks, TSC, et al.
Izdano: (2019)

MAIT cells: the end of the beginning?
od: Pellicci, D, et al.
Izdano: (2018)

MAIT cells in health and disease
od: Provine, NM, et al.
Izdano: (2020)

Genomic investigations of bacteriocins and bacteriophages in Streptococcus pneumoniae and other streptococci
od: Rezaei Javan, R
Izdano: (2019)

Type I interferons drive MAIT cell functions against bacterial pneumonia
od: López-Rodríguez, JC, et al.
Izdano: (2023)

Resistance among Streptococcus pneumoniae: Patterns, mechanisms, interpreting the breakpoints
od: Brueggemann, A, et al.
Izdano: (2000)

Resistance among Streptococcus pneumoniae: patterns, mechanisms, interpreting the breakpoints.
od: Brueggemann, A, et al.
Izdano: (2000)

Resistance among Streptococcus pneumoniae: Patterns, mechanisms, interpreting the breakpoints
od: Brueggemann, A, et al.
Izdano: (2000)

Antimicrobial-drug use and changes in resistance in Streptococcus pneumoniae.
od: Diekema, D, et al.
Izdano: (2000)

Geographic distribution and clonal diversity of Streptococcus pneumoniae serotype 1 isolates.
od: Brueggemann, A, et al.
Izdano: (2003)

Human MAIT cell activation in vitro
od: Hagel, JP, et al.
Izdano: (2019)

The rise and fall of MAIT cells with age.
od: Walker, L, et al.
Izdano: (2014)

Biological functions of MAIT cells in tissues
od: Klenerman, P, et al.
Izdano: (2020)

Human MAIT cells show metabolic quiescence with rapid glucose-dependent upregulation of granzyme B upon stimulation
od: Zinser, ME, et al.
Izdano: (2018)

MAIT cells are licensed through granzyme exchange to kill bacterially sensitized targets.
od: Kurioka, A, et al.
Izdano: (2015)

Genome sequencing reveals a large and diverse repertoire of antimicrobial peptides
od: Rezaei avan, R, et al.
Izdano: (2018)

Antimicrobial resistance with Streptococcus pneumoniae in the United States, 1997 98.
od: Doern, G, et al.
Izdano: (1999)

MAIT cells contribute to a protective antiviral innate response to influenza infection
od: Hinks, T, et al.
Izdano: (2018)

Assessment of the oxacillin disk screening test for determining penicillin resistance in Streptococcus pneumoniae.
od: Doern, G, et al.
Izdano: (1997)

MAIT cells contribute to protection against lethal influenza infection in vivo
od: Van Wilgenburg, B, et al.
Izdano: (2018)

MAIT cell clonal expansion and TCR repertoire shaping in human volunteers challenged with Salmonella Paratyphi A
od: Howson, L, et al.
Izdano: (2018)

Activation and in vivo evolution of the MAIT cell transcriptome in mice and humans reveals tissue repair functionality
od: Hinks, T, et al.
Izdano: (2019)

Stability of serotypes during nasopharyngeal carriage of Streptococcus pneumoniae.
od: Meats, E, et al.
Izdano: (2003)