Latent homology and convergent regulatory evolution underlies the repeated emergence of yeasts

Open Access
Authors
  • L.G. Nagy
  • R.A. Ohm
  • G.M. Kovács
  • D. Floudas
  • R. Riley
  • A. Gácser
  • M. Sipiczki
  • J.M. Davis
  • S.L. Doty
  • G.S. de Hoog
  • B.F. Lang
  • J.W. Spatafora
  • F.M. Martin
  • I.V. Grigoriev
  • D.S. Hibbett
Publication date 2014
Journal Nature Communications
Volume | Issue number 5
Pages (from-to) 4471
Number of pages 8
Organisations
  • Faculty of Science (FNWI) - Institute for Biodiversity and Ecosystem Dynamics (IBED)
Abstract
Convergent evolution is common throughout the tree of life, but the molecular mechanisms causing similar phenotypes to appear repeatedly are obscure. Yeasts have arisen in multiple fungal clades, but the genetic causes and consequences of their evolutionary origins are unknown. Here we show that the potential to develop yeast forms arose early in fungal evolution and became dominant independently in multiple clades, most likely via parallel diversification of Zn-cluster transcription factors, a fungal-specific family involved in regulating yeast-filamentous switches. Our results imply that convergent evolution can happen by the repeated deployment of a conserved genetic toolkit for the same function in distinct clades via regulatory evolution. We suggest that this mechanism might be a common source of evolutionary convergence even at large time scales.
Document type Article
Note With supplementary information
Language English
Published at https://doi.org/10.1038/ncomms5471
Downloads
Supplementary materials
Permalink to this page
Back