A versatile strategy for gene trapping and trap conversion in emerging model organisms


Journal article


Kontarakis, Pavlopoulos, Kiupakis, Konstantinides, Douris, Averof
Development, vol. 138, 2011, pp. 2625-2630

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APA   Click to copy
Kontarakis, Pavlopoulos, Kiupakis, Konstantinides, Douris, & Averof. (2011). A versatile strategy for gene trapping and trap conversion in emerging model organisms. Development, 138, 2625–2630.


Chicago/Turabian   Click to copy
Kontarakis, Pavlopoulos, Kiupakis, Konstantinides, Douris, and Averof. “A Versatile Strategy for Gene Trapping and Trap Conversion in Emerging Model Organisms.” Development 138 (2011): 2625–2630.


MLA   Click to copy
Kontarakis, et al. “A Versatile Strategy for Gene Trapping and Trap Conversion in Emerging Model Organisms.” Development, vol. 138, 2011, pp. 2625–30.


BibTeX   Click to copy

@article{kontarakis2011a,
  title = {A versatile strategy for gene trapping and trap conversion in emerging model organisms},
  year = {2011},
  journal = {Development},
  pages = {2625-2630},
  volume = {138},
  author = {Kontarakis and Pavlopoulos and Kiupakis and Konstantinides and Douris and Averof}
}

Abstract

Genetic model organisms such as Drosophila, C. elegans and the mouse provide formidable tools for studying mechanisms of development, physiology and behaviour. Established models alone, however, allow us to survey only a tiny fraction of the morphological and functional diversity present in the animal kingdom. Here, we present iTRAC, a versatile gene-trapping approach that combines the implementation of unbiased genetic screens with the generation of sophisticated genetic tools both in established and emerging model organisms. The approach utilises an exon-trapping transposon vector that carries an integrase docking site, allowing the targeted integration of new constructs into trapped loci. We provide proof of principle for iTRAC in the emerging model crustacean Parhyale hawaiensis: we generate traps that allow specific developmental and physiological processes to be visualised in unparalleled detail, we show that trapped genes can be easily cloned from an unsequenced genome, and we demonstrate targeting of new constructs into a trapped locus. Using this approach, gene traps can serve as platforms for generating diverse reporters, drivers for tissue-specific expression, gene knockdown and other genetic tools not yet imagined.





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