Mosaic fungal individuals have the potential to evolve within a single generation

Although cells of mushroom-producing fungi typically contain paired haploid nuclei (n + n), most Armillaria gallica vegetative cells are uninucleate. As vegetative nuclei are produced by fusions of paired haploid nuclei, they are thought to be diploid (2n). Here we report finding haploid vegetative...

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Veröffentlicht in:Scientific reports 2020-10, Vol.10 (1), p.17625-17625, Article 17625
Hauptverfasser: Tyrrell, Maura G., Peabody, Diane C., Peabody, Robert B., James-Pederson, Magdalena, Hirst, Rachel G., Allan-Perkins, Elisha, Bickford, Heather, Shafrir, Amy, Doiron, Robert J., Churchill, Amber C., Ramirez-Tapia, Juan Carlos, Seidel, Benjamin, Torres, Lynes, Fallavollita, Kathryn, Hernon, Thomas, Wiswell, Lindsay, Wilson, Sarah, Mondo, Erica, Salisbury, Kathleen, Peabody, Carrie, Cabral, Patrick, Presti, Lauren, McKenna-Hoffman, Kelsey, Flannery, Michele, Daly, Kaitlin, Haghighat, Darius, Lukason, Daniel
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container_issue 1
container_start_page 17625
container_title Scientific reports
container_volume 10
creator Tyrrell, Maura G.
Peabody, Diane C.
Peabody, Robert B.
James-Pederson, Magdalena
Hirst, Rachel G.
Allan-Perkins, Elisha
Bickford, Heather
Shafrir, Amy
Doiron, Robert J.
Churchill, Amber C.
Ramirez-Tapia, Juan Carlos
Seidel, Benjamin
Torres, Lynes
Fallavollita, Kathryn
Hernon, Thomas
Wiswell, Lindsay
Wilson, Sarah
Mondo, Erica
Salisbury, Kathleen
Peabody, Carrie
Cabral, Patrick
Presti, Lauren
McKenna-Hoffman, Kelsey
Flannery, Michele
Daly, Kaitlin
Haghighat, Darius
Lukason, Daniel
description Although cells of mushroom-producing fungi typically contain paired haploid nuclei (n + n), most Armillaria gallica vegetative cells are uninucleate. As vegetative nuclei are produced by fusions of paired haploid nuclei, they are thought to be diploid (2n). Here we report finding haploid vegetative nuclei in A. gallica at multiple sites in southeastern Massachusetts, USA. Sequencing multiple clones of a single-copy gene isolated from single hyphal filaments revealed nuclear heterogeneity both among and within hyphae. Cytoplasmic bridges connected hyphae in field-collected and cultured samples, and we propose nuclear migration through bridges maintains this nuclear heterogeneity. Growth studies demonstrate among- and within-hypha phenotypic variation for growth in response to gallic acid, a plant-produced antifungal compound. The existence of both genetic and phenotypic variation within vegetative hyphae suggests that fungal individuals have the potential to evolve within a single generation in response to environmental variation over time and space.
doi_str_mv 10.1038/s41598-020-74679-5
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subjects 631/158
631/158/857
631/181
631/208
631/208/182
631/208/728
631/208/729
Armillaria - genetics
Biological Evolution
Cell Nucleus - genetics
Cytoplasm - genetics
Diploidy
Humanities and Social Sciences
Hyphae - genetics
multidisciplinary
Science
Science (multidisciplinary)
Spores, Fungal - genetics
title Mosaic fungal individuals have the potential to evolve within a single generation
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