Literature DB >> 8307337

Ends-in vs. ends-out recombination in yeast.

P J Hastings1, C McGill, B Shafer, J N Strathern.   

Abstract

Integration of linearized plasmids into yeast chromosomes has been used as a model system for the study of recombination initiated by double-strand breaks. The linearized plasmid DNA recombines efficiently into sequences homologous to the ends of the DNA. This efficient recombination occurs both for the configuration in which the break is in a contiguous region of homology (herein called the ends-in configuration) and for "omega" insertions in which plasmid sequences interrupt a linear region of homology (herein called the ends-out configuration). The requirements for integration of these two configurations are expected to be different. We compared these two processes in a yeast strain containing an ends-in target and an ends-out target for the same cut plasmid. Recovery of ends-in events exceeds ends-out events by two- to threefold. Possible causes for the origin of this small bias are discussed. The lack of an extreme difference in frequency implies that cooperativity between the two ends does not contribute to the efficiency with which cut circular plasmids are integrated. This may also be true for the repair of chromosomal double-strand breaks.

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Year:  1993        PMID: 8307337      PMCID: PMC1205758     

Source DB:  PubMed          Journal:  Genetics        ISSN: 0016-6731            Impact factor:   4.562


  15 in total

1.  Reexamination of gene targeting frequency as a function of the extent of homology between the targeting vector and the target locus.

Authors:  C Deng; M R Capecchi
Journal:  Mol Cell Biol       Date:  1992-08       Impact factor: 4.272

2.  A novel recombinator in yeast based on gene II protein from bacteriophage f1.

Authors:  J N Strathern; K G Weinstock; D R Higgins; C B McGill
Journal:  Genetics       Date:  1991-01       Impact factor: 4.562

3.  Target frequency and integration pattern for insertion and replacement vectors in embryonic stem cells.

Authors:  P Hasty; J Rivera-Pérez; C Chang; A Bradley
Journal:  Mol Cell Biol       Date:  1991-09       Impact factor: 4.272

Review 4.  The split-end model for homologous recombination at double-strand breaks and at Chi.

Authors:  S M Rosenberg; P J Hastings
Journal:  Biochimie       Date:  1991-04       Impact factor: 4.079

5.  The repair of double-strand breaks in DNA; a model involving recombination.

Authors:  M A Resnick
Journal:  J Theor Biol       Date:  1976-06       Impact factor: 2.691

Review 6.  Recombination in the eukaryotic nucleus.

Authors:  P J Hastings
Journal:  Bioessays       Date:  1988 Aug-Sep       Impact factor: 4.345

7.  Selection of lys2 Mutants of the Yeast SACCHAROMYCES CEREVISIAE by the Utilization of alpha-AMINOADIPATE.

Authors:  B B Chattoo; F Sherman; D A Azubalis; T A Fjellstedt; D Mehnert; M Ogur
Journal:  Genetics       Date:  1979-09       Impact factor: 4.562

8.  One-step gene disruption in yeast.

Authors:  R J Rothstein
Journal:  Methods Enzymol       Date:  1983       Impact factor: 1.600

9.  Double-strand-break repair, gene conversion, and postdivision segregation.

Authors:  R Rothstein
Journal:  Cold Spring Harb Symp Quant Biol       Date:  1984

10.  Types of recombination: common problems and common strategies.

Authors:  A Campbell
Journal:  Cold Spring Harb Symp Quant Biol       Date:  1984
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  36 in total

1.  The mechanism of mammalian gene replacement is consistent with the formation of long regions of heteroduplex DNA associated with two crossing-over events.

Authors:  J Li; L R Read; M D Baker
Journal:  Mol Cell Biol       Date:  2001-01       Impact factor: 4.272

2.  Ends-out, or replacement, gene targeting in Drosophila.

Authors:  Wei J Gong; Kent G Golic
Journal:  Proc Natl Acad Sci U S A       Date:  2003-02-14       Impact factor: 11.205

Review 3.  Reverse genetics in eukaryotes.

Authors:  Serge Hardy; Vincent Legagneux; Yann Audic; Luc Paillard
Journal:  Biol Cell       Date:  2010-10       Impact factor: 4.458

4.  Two pathways for removal of nonhomologous DNA ends during double-strand break repair in Saccharomyces cerevisiae.

Authors:  F Pâques; J E Haber
Journal:  Mol Cell Biol       Date:  1997-11       Impact factor: 4.272

5.  Chromosome break-induced DNA replication leads to nonreciprocal translocations and telomere capture.

Authors:  G Bosco; J E Haber
Journal:  Genetics       Date:  1998-11       Impact factor: 4.562

6.  Nonhomologous end joining during restriction enzyme-mediated DNA integration in Saccharomyces cerevisiae.

Authors:  P Manivasakam; R H Schiestl
Journal:  Mol Cell Biol       Date:  1998-03       Impact factor: 4.272

7.  Gene targeting in yeast is initiated by two independent strand invasions.

Authors:  Lance D Langston; Lorraine S Symington
Journal:  Proc Natl Acad Sci U S A       Date:  2004-10-15       Impact factor: 11.205

8.  Integration of an insertion-type transferred DNA vector from Agrobacterium tumefaciens into the Saccharomyces cerevisiae genome by gap repair.

Authors:  E Risseeuw; M E Franke-van Dijk; P J Hooykaas
Journal:  Mol Cell Biol       Date:  1996-10       Impact factor: 4.272

9.  Ku70, an essential gene, modulates the frequency of rAAV-mediated gene targeting in human somatic cells.

Authors:  Farjana J Fattah; Natalie F Lichter; Kazi R Fattah; Sehyun Oh; Eric A Hendrickson
Journal:  Proc Natl Acad Sci U S A       Date:  2008-06-18       Impact factor: 11.205

10.  Effects of terminal nonhomology and homeology on double-strand-break-induced gene conversion tract directionality.

Authors:  H H Nelson; D B Sweetser; J A Nickoloff
Journal:  Mol Cell Biol       Date:  1996-06       Impact factor: 4.272

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