Immediate visualization of recombination events and chromosome segregation defects in fission yeast meiosis

被引:0
|
作者
Dmitriy Li
Marianne Roca
Raif Yuecel
Alexander Lorenz
机构
[1] University of Aberdeen,Institute of Medical Sciences (IMS)
[2] University of Aberdeen,Iain Fraser Cytometry Centre (IFCC)
[3] Sorbonne Université,Laboratoire de Biologie du Développement de Villefranche
来源
Chromosoma | 2019年 / 128卷
关键词
Chromosome segregation; Meiotic recombination; Spore-autonomous promoters; Imaging flow cytometry;
D O I
暂无
中图分类号
学科分类号
摘要
Schizosaccharomyces pombe, also known as fission yeast, is an established model for studying chromosome biological processes. Over the years, research employing fission yeast has made important contributions to our knowledge about chromosome segregation during meiosis, as well as meiotic recombination and its regulation. Quantification of meiotic recombination frequency is not a straightforward undertaking, either requiring viable progeny for a genetic plating assay, or relying on laborious Southern blot analysis of recombination intermediates. Neither of these methods lends itself to high-throughput screens to identify novel meiotic factors. Here, we establish visual assays novel to Sz. pombe for characterizing chromosome segregation and meiotic recombination phenotypes. Genes expressing red, yellow, and/or cyan fluorophores from spore-autonomous promoters have been integrated into the fission yeast genomes, either close to the centromere of chromosome 1 to monitor chromosome segregation, or on the arm of chromosome 3 to form a genetic interval at which recombination frequency can be determined. The visual recombination assay allows straightforward and immediate assessment of the genetic outcome of a single meiosis by epi-fluorescence microscopy without requiring tetrad dissection. We also demonstrate that the recombination frequency analysis can be automatized by utilizing imaging flow cytometry to enable high-throughput screens. These assays have several advantages over traditional methods for analyzing meiotic phenotypes.
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页码:385 / 396
页数:11
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