Our cells carry two copies of each chromosome, one inherited from each parent. Meiosis is a key biological process that reduces the number of the chromosomes to compensate for a doubling that occurs during fertilization, when the paternal (sperm) and maternal (egg) germ cells fuse. During meiosis, genetic information gets newly assorted and exchanged between paternal and maternal chromosomes, which is an important driver of genetic diversity. Meiosis is a key developmental program found in humans, plants, and animals alike. Errors in meiosis are linked to genetic disorders and infertility. “We still lack a comprehensive understanding of the mechanistic details of the many steps taking place during meiosis”, explains Verena Jantsch. “In our new special research programme, we will address basic mechanisms that support meiosis in numerous model organisms and humans, as well as investigate how parthenogenetic organisms, which reproduce asexually, repurpose meiosis”.
The programme includes the groups of Christopher Campbell, Verena Jantsch, Franz Klein, Joao Matos, Peter Schlögelhofer and Alexander Dammermann from the Max Perutz Labs, Anton Goloborodko (IMBA), Irene Tiemann-Boege (JKU), and Beatriz Vicoso (IST). The project leaders bring complementary expertise in cell biology, genetics, biochemistry, structural and computational biology and mathematical modelling to address fundamental questions in meiosis. “None of the projects could be done alone, requiring expertise that goes beyond what is covered by each group. By combining our different approaches, we will create a truly multidisciplinary programme to study this fascinating fundamental process, which is at the heart of genetics”, concludes Verena Jantsch.
About the special research programme by the Austrian Science Fund:
Funding: approximately 3,7 million € for 4 years
Involved Groups: 9 groups from 4 institutes/universities
Goal: establishing a highly productive, interdisciplinary research group to answer complex research questions
From chromosome folding by loop extrusion to anti-plasmid nucleases in bacteria
Identifying and exploiting cell-state dependent metabolic programs
Mind matters. VBC mental health awareness
Chromosomes as Mechanical Objects: from E.coli to Meiosis to Mammalian cells
Convergent evolution of CO2-fixing liquid-liquid phase separation
Viral envelope engineering for cell type specific delivery
New ways of leading: inclusive leadership and revising academic hierarchies
Title to be announced
Decoding Molecular Plasticity in the Dark Proteome of the Nuclear Pore Complex
Neurodiversity in academia
Gene expression dynamics during the awakening of the zygotic genome
Title to be announced