Active Genetics & Molecular Biology Cells, Biochemistry & Physiology

Off the beaten track: roles of priority unstudied proteins in cellular quiescence and ageing

In plain English

AI plain-English summary

Hundreds of genes that are conserved from yeast to humans have never been studied, and this project will finally work out what many of them do. Most biomedical research focuses on a small set of well-known genes, leaving thousands of others—many of which are shared across species—completely uncharacterised. This gap slows progress because we cannot know which of these genes might be important for health or disease. The researchers will systematically investigate these "priority unstudied" genes in fission yeast, using a battery of tests to measure their roles in metabolism, protein production, genetic interactions, and lifespan. They will feed the results into machine-learning models to predict each gene's biological function, then validate the most promising leads with targeted experiments. In parallel, they will study conserved ageing-related proteins in turquoise killifish, a short-lived vertebrate. This is fundamental science with no immediate practical application. But similar systematic characterisation of unknown genes in the past has revealed the machinery of DNA repair, cell division, and protein folding—discoveries that later underpinned cancer therapies and treatments for genetic disorders. A deeper understanding of these unstudied genes could eventually open entirely new avenues for slowing ageing or treating age-related disease.

View original technical description
Most researchers study well-known genes that function in established processes. While such focus is rewarding, we must also study genes whose functions remain uncharacterized. Progress with unknown genes is staggeringly slow, even in well-studied organisms, presenting a bottleneck for biomedical progress. We will investigate the cellular roles of ‘priority unstudied’ genes that are widely conserved from fission yeast to humans but have not been directly studied in any organism. Our findings indicate that many of these genes exert ageing-related functions in quiescent cells, an under-studied state. We will broadly characterize these genes in yeast using multi- dimensional approaches, both unbiased and targeted, including assays for metabolic/proteomic profiles, genetic interactions, chronological lifespan, and bulk QTL mapping. We will integrate these results with existing datasets for biological-process predictions using machine learning, and actively disseminate the rich functional insights to trigger specialized follow-on research. Based on our predictions, we will perform targeted yeast experiments to deeply characterize selected proteins in the context of cellular quiescence and ageing, including any novel ageing-associated processes. In complementary analyses, we will study conserved ageing-associated proteins in the short- lived turquoise killifish. This programme offers vital groundwork to understand hitherto unstudied proteins, with the potential for discovering new ageing biology.

View the original record at the funder ↗

Researchers

Jürg Bähler (EPMC Awardee)

Related Research

Grants with similar aims, by meaning.

OFFBEAT: roles of unstudied genes in cellular quiescence and aging
UNKAGE: understanding the role of conserved UNKnown genes in AGEing
Long non-coding RNA function during cellular ageing
Leveraging functional profiling datasets with machine learning to uncover proteins and cellular processes important for ageing
Identification of genetic factors affecting cellular ageing in fission yeast

Original classification

Discovery Award

Plain English summaries and category classifications on this site are generated by AI and may not perfectly reflect the original research.