Competition and facilitation among fungal plant parasites affect their life‐history traits

Multi‐infections may result in either competitive exclusion or coexistence on the same host of pathogen genotypes belonging to the same or different species. Epidemiological consequences of multiple infections, particularly how the development and transmission of a pathogen can be modified by the pr...

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Veröffentlicht in:Oikos 2021-04, Vol.130 (4), p.652-667
Hauptverfasser: Dutt, Agathe, Anthony, Rault, Andrivon, Didier, Jumel, Stéphane, Le Roy, Gwenola, Baranger, Alain, Leclerc, Melen, Le May, Christophe
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container_issue 4
container_start_page 652
container_title Oikos
container_volume 130
creator Dutt, Agathe
Anthony, Rault
Andrivon, Didier
Jumel, Stéphane
Le Roy, Gwenola
Baranger, Alain
Leclerc, Melen
Le May, Christophe
description Multi‐infections may result in either competitive exclusion or coexistence on the same host of pathogen genotypes belonging to the same or different species. Epidemiological consequences of multiple infections, particularly how the development and transmission of a pathogen can be modified by the presence of another pathogen, are well documented. However, understanding how life history strategies of each pathogen modulate co‐infection outcomes remains quite elusive. To analyze how co‐infection drives changes in life history traits and affects co‐existence in epidemic pathogens, we infected detached pea stipules with two fungal species, Peyronellaea pinodes and Phoma medicaginis var. pinodella (considering two strains per species), part of the ascochyta blight complex but presenting different life history strategies. All pairwise combinations (including self‐pairs) between two strains of each species were tested. Strains were inoculated simultaneously, but apart from one another on the stipule. For each strain, four life history traits were measured: incubation period, necrosis area six days after inoculation, latent period and offspring production. Results show that, in co‐infection, when resources are highly allocated to lesion development, the time between inoculation and the appearance of reproduction structures (latent period) and offspring production decreased, and vice‐versa relative to single infections. The direction and/or magnitude of these responses to co‐infection depend on the co‐infecting strains. Moreover, these changes were always higher in self‐pairs than in mixed co‐infections. These results suggest facilitation between co‐infecting strains, resulting in the selection of an intermediate level of virulence (here measured as the lesion development) at the expense of pathogen offspring production. This strategy allows the development and reproduction of each co‐infecting strain when sharing limited resources. However, the direction and strength of these life history traits variations in co‐infection depend on the life history strategy of the co‐infecting strains, with a clear difference between ‘opportunists', ‘scavengers' and ‘pioneer colonisers'.
doi_str_mv 10.1111/oik.07747
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source Wiley Online Library - AutoHoldings Journals
subjects ascochyta blight
Biodiversity and Ecology
Blight
Coexistence
Direction
disease complex
Environmental Sciences
Epidemiology
Fungi
Genotypes
Incubation period
Infections
Inoculation
Latent period
Lesions
Life history
life history traits
multiple infections
Necrosis
Offspring
Parasites
Parasitic plants
Pathogens
pea
Peyronellaea pinodes
Phoma medicaginis var. pinodella
Reproduction
Resources
Species
Strains (organisms)
Strategy
tradeoff
Virulence
title Competition and facilitation among fungal plant parasites affect their life‐history traits
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