Anchor Away – A Fast, Reliable and Reversible Technique To Inhibit Proteins inDrosophila melanogaster
Author(s) -
Pablo Sanchez Bosch,
Julia Pepperl,
Konrad Basler
Publication year - 2020
Publication title -
g3 genes genomes genetics
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 1.468
H-Index - 66
ISSN - 2160-1836
DOI - 10.1534/g3.120.401055
Subject(s) - drosophila melanogaster , function (biology) , loss function , rna interference , gene , mutant , biology , drosophila (subgenus) , computational biology , microbiology and biotechnology , phenotype , genetics , rna
Several techniques have been developed to study specific gene function in loss-of-function situations. In Drosophila melanoga st er , RNAi and the generation of mutant clones are widely used. However, both techniques have the limitation that there is a significant time lag before gene function is abolished. Given the relatively rapid development of Drosophila , such perdurance is a serious impediment to study gene function. Here we describe the adaptation of the anchor-away technique for use in Drosophila Anchor-away was originally developed in yeast to quickly and efficiently abrogate the function of nuclear proteins by sequestering - anchoring - them away in a different cellular compartment. The required components are present in the cells, and the system is triggered by the addition of rapamycin, resulting in a rapid generation of a loss-of-function situation. We provide here proof of principle for the system by producing loss-of-function situations for two nuclear proteins - Pygopus and Brinker. The system allows to study the requirement of any protein during any time window, and at the same time circumvents difficulties, such as off-target effects or variable phenotypes, which are inherent in other techniques, for example RNAi.
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