Screening for in planta protein-protein interactions combining bimolecular fluorescence complementation with flow cytometry

被引:0
作者
Kenneth Wayne Berendzen
Maik Böhmer
Niklas Wallmeroth
Sébastien Peter
Marko Vesić
Ying Zhou
Franziska KatharinaElisabeth Tiesler
Frank Schleifenbaum
Klaus Harter
机构
[1] Universität Tübingen,
[2] ZMBP,undefined
[3] Plant Physiology,undefined
[4] University of California,undefined
[5] San Diego,undefined
[6] Division of Biological Sciences,undefined
[7] Cell and Developmental Biology Section,undefined
[8] Universität Tübingen,undefined
[9] ZMBP,undefined
[10] Biophysical Chemistry,undefined
来源
Plant Methods | / 8卷
关键词
FACS; BiFC; Protein-protein interaction screen; CPK3;
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摘要
Understanding protein and gene function requires identifying interaction partners using biochemical, molecular or genetic tools. In plants, searching for novel protein-protein interactions is limited to protein purification assays, heterologous in vivo systems such as the yeast-two-hybrid or mutant screens. Ideally one would be able to search for novel protein partners in living plant cells. We demonstrate that it is possible to screen for novel protein-protein interactions from a random library in protoplasted Arabidopsis plant cells and recover some of the interacting partners. Our screen is based on capturing the bi-molecular complementation of mYFP between an YN-bait fusion partner and a completely random prey YC-cDNA library with FACS. The candidate interactions were confirmed using in planta BiFC assays and in planta FRET-FLIM assays. From this work, we show that the well characterized protein Calcium Dependent Protein Kinase 3 (CPK3) interacts with APX3, HMGB5, ORP2A and a ricin B-related lectin domain containing protein At2g39050. This is one of the first randomin planta screens to be successfully employed.
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