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Maier, Wolfgang; Bray, Simon; van den Beek, Marius; Bouvier, Dave; Coraor, Nathan; Miladi, Milad; Singh, Babita; De Argila, Jordi Rambla; Baker, Dannon; Roach, Nathan; et al (, Nature Biotechnology)null (Ed.)
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Fuller, Gregory G; Han, Ting; Freeberg, Mallory A; Moresco, James J; Ghanbari Niaki, Amirhossein; Roach, Nathan P; Yates, John R; Myong, Sua; Kim, John K (, eLife)In hypoxic stress conditions, glycolysis enzymes assemble into singular cytoplasmic granules called glycolytic (G) bodies. G body formation in yeast correlates with increased glucose consumption and cell survival. However, the physical properties and organizing principles that define G body formation are unclear. We demonstrate that glycolysis enzymes are non-canonical RNA binding proteins, sharing many common mRNA substrates that are also integral constituents of G bodies. Targeting nonspecific endoribonucleases to G bodies reveals that RNA nucleates G body formation and maintains its structural integrity. Consistent with a phase separation mechanism of biogenesis, recruitment of glycolysis enzymes to G bodies relies on multivalent homotypic and heterotypic interactions. Furthermore, G bodies fuse in vivo and are largely insensitive to 1,6-hexanediol, consistent with a hydrogel-like composition. Taken together, our results elucidate the biophysical nature of G bodies and demonstrate that RNA nucleates phase separation of the glycolysis machinery in response to hypoxic stress.more » « less
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