Literature DB >> 28201690

Sensing the enemy, containing the threat: cell-autonomous immunity to Chlamydia trachomatis.

Ryan Finethy1, Jörn Coers1,2.   

Abstract

The bacterium Chlamydia trachomatis is the etiological agent of the most common sexually transmitted infection in North America and Europe. Medical complications resulting from genital C. trachomatis infections arise predominantly in women where the initial infections often remain asymptomatic and thus unrecognized. Untreated asymptomatic infections in women can ascend into the upper genital tract and establish persistence, ultimately resulting in extensive scarring of the reproductive organs, pelvic inflammatory disease, infertility and ectopic pregnancies. Previously resolved C. trachomatis infections fail to provide protective immune memory, and no effective vaccine against C. trachomatis is currently available. Critical determinants of the pathogenesis and immunogenicity of genital C. trachomatis infections are cell-autonomous immune responses. Cell-autonomous immunity describes the ability of an individual host cell to launch intrinsic immune circuits that execute the detection, containment and elimination of cell-invading pathogens. As an obligate intracellular pathogen C. trachomatis is constantly under attack by cell-intrinsic host defenses. Accordingly, C. trachomatis evolved to subvert and co-opt cell-autonomous immune pathways. This review will provide a critical summary of our current understanding of cell-autonomous immunity to C. trachomatis and its role in shaping host resistance, inflammation and adaptive immunity to genital C. trachomatis infections.

Entities:  

Keywords:  Chlamydia trachomatis; TLR; inflammasome; interferon-inducible GTPases; indole-dioxygenase; STING

Mesh:

Substances:

Year:  2016        PMID: 28201690      PMCID: PMC5975928          DOI: 10.1093/femsre/fuw027

Source DB:  PubMed          Journal:  FEMS Microbiol Rev        ISSN: 0168-6445            Impact factor:   16.408


  200 in total

1.  Genetic analysis of susceptibility to Chlamydia trachomatis in mouse.

Authors:  I Bernstein-Hanley; Z R Balsara; W Ulmer; J Coers; M N Starnbach; W F Dietrich
Journal:  Genes Immun       Date:  2006-03       Impact factor: 2.676

2.  Chlamydia trachomatis persistence in vitro: an overview.

Authors:  Priscilla B Wyrick
Journal:  J Infect Dis       Date:  2010-06-15       Impact factor: 5.226

3.  Mutational Analysis of the Chlamydia muridarum Plasticity Zone.

Authors:  Krithika Rajaram; Amanda M Giebel; Evelyn Toh; Shuai Hu; Jasmine H Newman; Sandra G Morrison; Laszlo Kari; Richard P Morrison; David E Nelson
Journal:  Infect Immun       Date:  2015-05-04       Impact factor: 3.441

4.  Human leukocyte antigen and cytokine gene variants as predictors of recurrent Chlamydia trachomatis infection in high-risk adolescents.

Authors:  Chengbin Wang; Jianming Tang; William M Geisler; Peggy A Crowley-Nowick; Craig M Wilson; Richard A Kaslow
Journal:  J Infect Dis       Date:  2005-02-25       Impact factor: 5.226

5.  Chlamydia muridarum evades growth restriction by the IFN-gamma-inducible host resistance factor Irgb10.

Authors:  Jörn Coers; Isaac Bernstein-Hanley; David Grotsky; Iana Parvanova; Jonathan C Howard; Gregory A Taylor; William F Dietrich; Michael N Starnbach
Journal:  J Immunol       Date:  2008-05-01       Impact factor: 5.422

Review 6.  TLR2 - promiscuous or specific? A critical re-evaluation of a receptor expressing apparent broad specificity.

Authors:  Ulrich Zähringer; Buko Lindner; Seiichi Inamura; Holger Heine; Christian Alexander
Journal:  Immunobiology       Date:  2008-03-28       Impact factor: 3.144

7.  Autophagy restricts Chlamydia trachomatis growth in human macrophages via IFNG-inducible guanylate binding proteins.

Authors:  Munir A Al-Zeer; Hesham M Al-Younes; Daniel Lauster; Mohammad Abu Lubad; Thomas F Meyer
Journal:  Autophagy       Date:  2012-10-19       Impact factor: 16.016

8.  Caspase-11 gene expression in response to lipopolysaccharide and interferon-gamma requires nuclear factor-kappa B and signal transducer and activator of transcription (STAT) 1.

Authors:  Reinout Schauvliege; Jill Vanrobaeys; Peter Schotte; Rudi Beyaert
Journal:  J Biol Chem       Date:  2002-08-26       Impact factor: 5.157

9.  Stimulator of IFN gene is critical for induction of IFN-beta during Chlamydia muridarum infection.

Authors:  Daniel Prantner; Toni Darville; Uma M Nagarajan
Journal:  J Immunol       Date:  2010-01-27       Impact factor: 5.422

10.  The helicase DDX41 recognizes the bacterial secondary messengers cyclic di-GMP and cyclic di-AMP to activate a type I interferon immune response.

Authors:  Kislay Parvatiyar; Zhiqiang Zhang; Rosane M Teles; Songying Ouyang; Yan Jiang; Shankar S Iyer; Shivam A Zaver; Mirjam Schenk; Shang Zeng; Wenwan Zhong; Zhi-Jie Liu; Robert L Modlin; Yong-jun Liu; Genhong Cheng
Journal:  Nat Immunol       Date:  2012-11-11       Impact factor: 25.606

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  19 in total

1.  The Chlamydia trachomatis Inclusion Membrane Protein CpoS Counteracts STING-Mediated Cellular Surveillance and Suicide Programs.

Authors:  Barbara S Sixt; Robert J Bastidas; Ryan Finethy; Ryan M Baxter; Victoria K Carpenter; Guido Kroemer; Jörn Coers; Raphael H Valdivia
Journal:  Cell Host Microbe       Date:  2016-12-29       Impact factor: 21.023

2.  Interferon Gamma Reprograms Host Mitochondrial Metabolism through Inhibition of Complex II To Control Intracellular Bacterial Replication.

Authors:  Forrest Jessop; Robert Buntyn; Benjamin Schwarz; Tara Wehrly; Dana Scott; Catharine M Bosio
Journal:  Infect Immun       Date:  2020-01-22       Impact factor: 3.441

3.  Caspase-11 Contributes to Oviduct Pathology during Genital Chlamydia Infection in Mice.

Authors:  Clare E Gyorke; Manoj K Tripathy; John Allen; Yugen Zhang; Angela Lovett; Stephanie A Montgomery; Uma M Nagarajan
Journal:  Infect Immun       Date:  2019-07-23       Impact factor: 3.441

4.  T Cell-Independent Gamma Interferon and B Cells Cooperate To Prevent Mortality Associated with Disseminated Chlamydia muridarum Genital Tract Infection.

Authors:  Taylor B Poston; Catherine M O'Connell; Jenna Girardi; Jeanne E Sullivan; Uma M Nagarajan; Anthony Marinov; Amy M Scurlock; Toni Darville
Journal:  Infect Immun       Date:  2018-06-21       Impact factor: 3.441

5.  Evasion of Innate Lymphoid Cell-Regulated Gamma Interferon Responses by Chlamydia muridarum To Achieve Long-Lasting Colonization in Mouse Colon.

Authors:  John J Koprivsek; Ying He; Chenchen Song; Nu Zhang; Alexei Tumanov; Guangming Zhong
Journal:  Infect Immun       Date:  2020-02-20       Impact factor: 3.441

6.  Innate IFN-γ Is Essential for Systemic Chlamydia muridarum Control in Mice, While CD4 T Cell-Dependent IFN-γ Production Is Highly Redundant in the Female Reproductive Tract.

Authors:  Miguel A B Mercado; Wuying Du; Priyangi A Malaviarachchi; Jessica I Gann; Lin-Xi Li
Journal:  Infect Immun       Date:  2021-02-16       Impact factor: 3.441

7.  Chlamydia psittaci-Infected Dendritic Cells Communicate with NK Cells via Exosomes To Activate Antibacterial Immunity.

Authors:  Nadine Radomski; Axel Karger; Kati Franzke; Elisabeth Liebler-Tenorio; Rico Jahnke; Svea Matthiesen; Michael R Knittler
Journal:  Infect Immun       Date:  2019-12-17       Impact factor: 3.441

8.  An endometrial organoid model of interactions between Chlamydia and epithelial and immune cells.

Authors:  Lee Dolat; Raphael H Valdivia
Journal:  J Cell Sci       Date:  2021-03-08       Impact factor: 5.285

Review 9.  Immunopathogenesis of genital Chlamydia infection: insights from mouse models.

Authors:  Jacob Dockterman; Jörn Coers
Journal:  Pathog Dis       Date:  2021-03-31       Impact factor: 3.951

10.  Chlamydia trachomatis Is Resistant to Inclusion Ubiquitination and Associated Host Defense in Gamma Interferon-Primed Human Epithelial Cells.

Authors:  Arun K Haldar; Anthony S Piro; Ryan Finethy; Scott T Espenschied; Hannah E Brown; Amanda M Giebel; Eva-Maria Frickel; David E Nelson; Jörn Coers
Journal:  mBio       Date:  2016-12-13       Impact factor: 7.867

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