Literature DB >> 15501762

The infecting dose of Chlamydia muridarum modulates the innate immune response and ascending infection.

Heather K Maxion1, Wei Liu, Mi-Hyang Chang, Kathleen A Kelly.   

Abstract

Murine vaginal infection with the obligate intracellular bacterium Chlamydia muridarum is commonly used as a model for ascending Chlamydia infections of the human female genital tract. Gamma interferon-producing Th1 cells, in concert with other mononuclear infiltrates, primarily mediate antichlamydial immunity. However, many factors modify this response, including the bacterial load. To investigate the manner in which the inoculating dose of C. muridarum modulates a genital infection, we measured innate and adaptive cell numbers, CD4+ lymphocyte cytokine profile, chemokine expression, course of infection, and pathological sequelae in genital tracts of BALB/c mice infected with doses of C. muridarum ranging from 10(4) to 10(7) inclusion-forming units. We found that the influx of both innate and adaptive immune cells responded similarly in the lower genital tract (cervical-vaginal tissues) and upper genital tract (oviduct tissues) to increasing inoculating doses. However, cells expressing the innate markers Gr-1 and CD11c were affected to a greater degree by increasing dose than lymphocytes of the adaptive immune response (Th1, CD4+, CD8+, CD19+), resulting in a change in the balance of innate and adaptive cell numbers to favor innate cells at higher infecting doses. Surprisingly, we detected greater numbers of viable chlamydiae in the oviducts at lower inoculating doses, and the number of organisms appeared to directly correlate with hydrosalpinx formation after both primary infection and repeat infection. Taken together, these data suggest that innate immune cells contribute to control of ascending infection.

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Year:  2004        PMID: 15501762      PMCID: PMC523032          DOI: 10.1128/IAI.72.11.6330-6340.2004

Source DB:  PubMed          Journal:  Infect Immun        ISSN: 0019-9567            Impact factor:   3.441


  60 in total

1.  IL-10 gene knockout mice show enhanced Th1-like protective immunity and absent granuloma formation following Chlamydia trachomatis lung infection.

Authors:  X Yang; J Gartner; L Zhu; S Wang; R C Brunham
Journal:  J Immunol       Date:  1999-01-15       Impact factor: 5.422

2.  Cellular oxidation of low-density lipoprotein by Chlamydia pneumoniae.

Authors:  M V Kalayoglu; B Hoerneman; D LaVerda; S G Morrison; R P Morrison; G I Byrne
Journal:  J Infect Dis       Date:  1999-09       Impact factor: 5.226

3.  Prior genital tract infection with a murine or human biovar of Chlamydia trachomatis protects mice against heterotypic challenge infection.

Authors:  K H Ramsey; T W Cotter; R D Salyer; G S Miranpuri; M A Yanez; C E Poulsen; J L DeWolfe; G I Byrne
Journal:  Infect Immun       Date:  1999-06       Impact factor: 3.441

4.  Evidence for long-term cervical persistence of Chlamydia trachomatis by omp1 genotyping.

Authors:  D Dean; R J Suchland; W E Stamm
Journal:  J Infect Dis       Date:  2000-08-17       Impact factor: 5.226

5.  Differential regulation of CD4 lymphocyte recruitment between the upper and lower regions of the genital tract during Chlamydia trachomatis infection.

Authors:  K A Kelly; J C Walker; S H Jameel; H L Gray; R G Rank
Journal:  Infect Immun       Date:  2000-03       Impact factor: 3.441

6.  Suppression of endogenous IL-10 gene expression in dendritic cells enhances antigen presentation for specific Th1 induction: potential for cellular vaccine development.

Authors:  J U Igietseme; G A Ananaba; J Bolier; S Bowers; T Moore; T Belay; F O Eko; D Lyn; C M Black
Journal:  J Immunol       Date:  2000-04-15       Impact factor: 5.422

7.  Distribution of progesterone receptor in female mouse tissues.

Authors:  N Uotinen; R Puustinen; S Pasanen; T Manninen; M Kivineva; H Syvälä; P Tuohimaa; T Ylikomi
Journal:  Gen Comp Endocrinol       Date:  1999-09       Impact factor: 2.822

8.  Seroreactivity to Chlamydia trachomatis Hsp10 correlates with severity of human genital tract disease.

Authors:  D LaVerda; L N Albanese; P E Ruther; S G Morrison; R P Morrison; K A Ault; G I Byrne
Journal:  Infect Immun       Date:  2000-01       Impact factor: 3.441

9.  Persistent chlamydial envelope antigens in antibiotic-exposed infected cells trigger neutrophil chemotaxis.

Authors:  P B Wyrick; S T Knight; T R Paul; R G Rank; C S Barbier
Journal:  J Infect Dis       Date:  1999-04       Impact factor: 5.226

10.  Factors influencing the induction of infertility in a mouse model of Chlamydia trachomatis ascending genital tract infection.

Authors:  S Pal; W Hui; E M Peterson; L M de la Maza
Journal:  J Med Microbiol       Date:  1998-07       Impact factor: 2.472

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  33 in total

1.  Infectivity acts as in vivo selection for maintenance of the chlamydial cryptic plasmid.

Authors:  Marsha Russell; Toni Darville; Kumar Chandra-Kuntal; Bennett Smith; Charles W Andrews; Catherine M O'Connell
Journal:  Infect Immun       Date:  2010-10-25       Impact factor: 3.441

2.  Plasmacytoid dendritic cells modulate nonprotective T-cell responses to genital infection by Chlamydia muridarum.

Authors:  Raymond J Moniz; Ann M Chan; Lynn K Gordon; Jonathan Braun; Moshe Arditi; Kathleen A Kelly
Journal:  FEMS Immunol Med Microbiol       Date:  2010-01-19

3.  Parenteral vaccination protects against transcervical infection with Chlamydia trachomatis and generate tissue-resident T cells post-challenge.

Authors:  Nina Dieu Nhien Tran Nguyen; Anja W Olsen; Emma Lorenzen; Peter Andersen; Malene Hvid; Frank Follmann; Jes Dietrich
Journal:  NPJ Vaccines       Date:  2020-01-23       Impact factor: 7.344

Review 4.  Animal models for studying female genital tract infection with Chlamydia trachomatis.

Authors:  Evelien De Clercq; Isabelle Kalmar; Daisy Vanrompay
Journal:  Infect Immun       Date:  2013-07-08       Impact factor: 3.441

5.  Activation of the NLRP3 inflammasome by vault nanoparticles expressing a chlamydial epitope.

Authors:  Ye Zhu; Janina Jiang; Najwane Said-Sadier; Gale Boxx; Cheryl Champion; Ashley Tetlow; Valerie A Kickhoefer; Leonard H Rome; David M Ojcius; Kathleen A Kelly
Journal:  Vaccine       Date:  2014-11-24       Impact factor: 3.641

6.  Effect of cold water-induced stress on immune response, pathology and fertility in mice during Chlamydia muridarum genital infection.

Authors:  Tesfaye Belay; Anthony Woart; Vincent Graffeo
Journal:  Pathog Dis       Date:  2017-07-31       Impact factor: 3.166

7.  The Chromosome-Encoded Hypothetical Protein TC0668 Is an Upper Genital Tract Pathogenicity Factor of Chlamydia muridarum.

Authors:  Turner Allen Conrad; Siqi Gong; Zhangsheng Yang; Patrick Matulich; Jonathon Keck; Noah Beltrami; Chaoqun Chen; Zhou Zhou; Jin Dai; Guangming Zhong
Journal:  Infect Immun       Date:  2015-11-23       Impact factor: 3.441

8.  Two different homing pathways involving integrin β7 and E-selectin significantly influence trafficking of CD4 cells to the genital tract following Chlamydia muridarum infection.

Authors:  Kathleen A Kelly; Ann M Chan; Anthony Butch; Toni Darville
Journal:  Am J Reprod Immunol       Date:  2009-04-22       Impact factor: 3.886

9.  In vivo whole animal body imaging reveals colonization of Chlamydia muridarum to the lower genital tract at early stages of infection.

Authors:  Rishein Gupta; Shradha Wali; Jieh-Juen Yu; James P Chambers; Guangming Zhong; Ashlesh K Murthy; Sazaly Abu Bakar; M N Guentzel; Bernard P Arulanandam
Journal:  Mol Imaging Biol       Date:  2014-10       Impact factor: 3.488

10.  Innate immunity in ocular Chlamydia trachomatis infection: contribution of IL8 and CSF2 gene variants to risk of trachomatous scarring in Gambians.

Authors:  Angels Natividad; Jeremy Hull; Gaia Luoni; Martin Holland; Kirk Rockett; Hassan Joof; Matthew Burton; David Mabey; Dominic Kwiatkowski; Robin Bailey
Journal:  BMC Med Genet       Date:  2009-12-16       Impact factor: 2.103

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