Literature DB >> 1433507

Serial backcross analysis of genetic resistance to mousepox, using marker loci for Rmp-2 and Rmp-3.

D G Brownstein1, P N Bhatt, L Gras, T Budris.   

Abstract

At least three genes from C57BL/6 mice that mediate dominant resistance to lethal mousepox were isolated and transferred onto a susceptible DBA/2 background. Three [(C57BL/6 x DBA/2)F1 x DBA/2] male mice that survived infection were selected as founders on the basis of different complements of marker loci for two resistance genes, Rmp-2r (Hc1) and Rmp-3r (H-2Db). They were crossed with DBA/2 mice, male progeny were infected with ectromelia virus, and the cycle was repeated with surviving male progeny through seven backcross generations. Two founders carried a marker locus for Rmp-2r or Rmp-3r, and the third carried neither marker locus. Resistance pedigrees were analyzed for passage of marker loci. From the three founders, resistance was passaged through multiple generations, producing backcross lines with intermediate-male-resistance phenotypes (20% resistant). Females of backcross lines with intermediate male resistance had high resistance (> 50%). High-resistance backcross lines (40% male resistance) also developed from the founders that carried marker loci for Rmp-2r and Rmp-3r, and marker loci were passaged through all generations of high resistance but not intermediate-resistance lines. About one-third of all resistant mice in high-resistance lines sired by mice that carried marker loci for Rmp-2r and Rmp-3r did not carry the respective marker locus. In lines that carried Rmp-2r, this was apparently not the result of recombination between Rmp-2r and Hc1, because Rmp-2 was not in the predicted location on chromosome 2 and because mice that did not inherit Hc1 transmitted significantly less male resistance than Hc1-positive mice, although female resistance remained high. These results confirmed that C57BL/6 mice have redundant resistance mechanisms, two of which are controlled at least in part by Rmp-2r and Rmp-3r, and provided evidence for a fourth resistance gene, herein presumptively named Rmp-4, which protects females more than males and which may be epistatic to Rmp-2.

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Year:  1992        PMID: 1433507      PMCID: PMC240377     

Source DB:  PubMed          Journal:  J Virol        ISSN: 0022-538X            Impact factor:   5.103


  36 in total

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Authors:  G J Kotwal; S N Isaacs; R McKenzie; M M Frank; B Moss
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2.  A role for early cytotoxic T cells in resistance to ectromelia virus infection in mice.

Authors:  H C O'Neill; M Brenan
Journal:  J Gen Virol       Date:  1987-10       Impact factor: 3.891

3.  Evidence that NK cells and interferon are required for genetic resistance to lethal infection with ectromelia virus.

Authors:  R O Jacoby; P N Bhatt; D G Brownstein
Journal:  Arch Virol       Date:  1989       Impact factor: 2.574

4.  Vaccinia virus encodes two proteins that are structurally related to members of the plasma serine protease inhibitor superfamily.

Authors:  G J Kotwal; B Moss
Journal:  J Virol       Date:  1989-02       Impact factor: 5.103

5.  Mousepox in inbred mice innately resistant or susceptible to lethal infection with ectromelia virus. II. Pathogenesis.

Authors:  R O Jacoby; P N Bhatt
Journal:  Lab Anim Sci       Date:  1987-02

6.  Genetic resistance to mouse hepatitis virus correlates with absence of virus-binding activity on target tissues.

Authors:  J F Boyle; D G Weismiller; K V Holmes
Journal:  J Virol       Date:  1987-01       Impact factor: 5.103

7.  Mousepox in inbred mice innately resistant or susceptible to lethal infection with ectromelia virus. V. Genetics of resistance to the Moscow strain.

Authors:  D Brownstein; P N Bhatt; R O Jacoby
Journal:  Arch Virol       Date:  1989       Impact factor: 2.574

8.  Mousepox in inbred mice innately resistant or susceptible to lethal infection with ectromelia virus. IV. Studies with the Moscow strain.

Authors:  P N Bhatt; R O Jacoby; L Gras
Journal:  Arch Virol       Date:  1988       Impact factor: 2.574

9.  Genetic determinants of resistance to ectromelia (mousepox) virus-induced mortality.

Authors:  G D Wallace; R M Buller; H C Morse
Journal:  J Virol       Date:  1985-09       Impact factor: 5.103

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Authors:  J J Esposito; J C Knight
Journal:  Virology       Date:  1985-05       Impact factor: 3.616

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  10 in total

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Authors:  D G Brownstein; L Gras
Journal:  J Virol       Date:  1995-11       Impact factor: 5.103

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Journal:  J Virol       Date:  1995-09       Impact factor: 5.103

5.  Ectromelia virus infections of mice as a model to support the licensure of anti-orthopoxvirus therapeutics.

Authors:  Scott Parker; Akbar M Siddiqui; George Painter; Jill Schriewer; R Mark Buller
Journal:  Viruses       Date:  2010-09-03       Impact factor: 5.818

6.  Genetic studies of the susceptibility of classical and wild-derived inbred mouse strains to monkeypox virus.

Authors:  Patricia L Earl; Jeffrey L Americo; Bernard Moss
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7.  Genetic dissection of NK cell responses.

Authors:  Peter Moussa; Jennifer Marton; Silvia M Vidal; Nassima Fodil-Cornu
Journal:  Front Immunol       Date:  2013-01-18       Impact factor: 7.561

8.  NK cells and poxvirus infection.

Authors:  Deborah N Burshtyn
Journal:  Front Immunol       Date:  2013-01-28       Impact factor: 7.561

9.  Evidence for Persistence of Ectromelia Virus in Inbred Mice, Recrudescence Following Immunosuppression and Transmission to Naïve Mice.

Authors:  Isaac G Sakala; Geeta Chaudhri; Anthony A Scalzo; Preethi Eldi; Timothy P Newsome; Robert M Buller; Gunasegaran Karupiah
Journal:  PLoS Pathog       Date:  2015-12-23       Impact factor: 6.823

10.  Maneuvering for advantage: the genetics of mouse susceptibility to virus infection.

Authors:  Seung-Hwan Lee; Ken Dimock; Douglas A Gray; Nicole Beauchemin; Kathryn V Holmes; Majid Belouchi; John Realson; Silvia M Vidal
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  10 in total

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