TY - JOUR
T1 - Conflict, Competition, and Cooperation Regulate Social Interactions in Filamentous Fungi
AU - Pedro Gonçalves, A.
AU - Heller, Jens
AU - Rico-Ramírez, Adriana M.
AU - Daskalov, Asen
AU - Rosenfield, Gabriel
AU - Louise Glass, N.
N1 - Funding Information:
We thank Meritxell Riquelme (CICESE, Ensenada, Mexico) and the National Laboratory of Advanced Microscopy at CICESE for use of their microscopy facilities for N. crassa images. Thanks to Shigenori Hirose and Gad Shaulsky (Baylor College of Medicine) for images of D. discoideum; Matthew L. Nicotra (University of Pittsburgh) for images of H. symbiolongicarpus; Anthony De Tomaso (University of California, Santa Barbara) for images of B. schlosseri; and Kristin Little, Murray Tipping, and Karine A. Gibbs (Harvard University) for images of P. mirabilis. Work in the Glass laboratory was supported by National Science Foundation grants MCB1412411 and MCB1818283, a Laboratory Directed Research and Development Program of Lawrence Berkeley National Laboratory under US Department of Energy contract DE-AC02-05CH11231, and a Fred E. Dickinson Chair of Wood Science and Technology award to N.L.G.
Publisher Copyright:
© Copyright 2020 by Annual Reviews. All rights reserved.
PY - 2020/9/8
Y1 - 2020/9/8
N2 - Social cooperation impacts the development and survival of species. In higher taxa, kin recognition occurs via visual, chemical, or tactile cues that dictate cooperative versus competitive interactions. In microbes, the outcome of cooperative versus competitive interactions is conferred by identity at allorecognition loci, so-called kind recognition. In syncytial filamentous fungi, the acquisition of multicellularity is associated with somatic cell fusion within and between colonies. However, such intraspecific cooperation entails risks, as fusion can transmit deleterious genotypes or infectious components that reduce fitness, or give rise to cheaters that can exploit communal goods without contributing to their production. Allorecognition mechanisms in syncytial fungi regulate somatic cell fusion by operating precontact during chemotropic interactions, during cell adherence, and postfusion by triggering programmed cell death reactions. Alleles at fungal allorecognition loci are highly polymorphic, fall into distinct haplogroups, and show evolutionary signatures of balancing selection, similar to allorecognition loci across the tree of life.
AB - Social cooperation impacts the development and survival of species. In higher taxa, kin recognition occurs via visual, chemical, or tactile cues that dictate cooperative versus competitive interactions. In microbes, the outcome of cooperative versus competitive interactions is conferred by identity at allorecognition loci, so-called kind recognition. In syncytial filamentous fungi, the acquisition of multicellularity is associated with somatic cell fusion within and between colonies. However, such intraspecific cooperation entails risks, as fusion can transmit deleterious genotypes or infectious components that reduce fitness, or give rise to cheaters that can exploit communal goods without contributing to their production. Allorecognition mechanisms in syncytial fungi regulate somatic cell fusion by operating precontact during chemotropic interactions, during cell adherence, and postfusion by triggering programmed cell death reactions. Alleles at fungal allorecognition loci are highly polymorphic, fall into distinct haplogroups, and show evolutionary signatures of balancing selection, similar to allorecognition loci across the tree of life.
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U2 - 10.1146/annurev-micro-012420-080905
DO - 10.1146/annurev-micro-012420-080905
M3 - Review article
C2 - 32689913
AN - SCOPUS:85090870628
VL - 74
SP - 693
EP - 712
JO - Annual Review of Microbiology
JF - Annual Review of Microbiology
SN - 0066-4227
ER -