Parasitic chytrids could promote copepod survival by mediating material transfer from inedible diatoms

Diatoms form large spring blooms in lakes and oceans, providing fuel for higher trophic levels at the start of the growing season. Some of the diatom blooms, however, are not grazed by filter-feeding zooplankton like Daphnia due to their large size. Several of these large diatoms are susceptible to...

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Veröffentlicht in:Hydrobiologia 2011-01, Vol.659 (1), p.49-54
Hauptverfasser: Kagami, Maiko, Helmsing, Nico R, van Donk, Ellen
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description Diatoms form large spring blooms in lakes and oceans, providing fuel for higher trophic levels at the start of the growing season. Some of the diatom blooms, however, are not grazed by filter-feeding zooplankton like Daphnia due to their large size. Several of these large diatoms are susceptible to chytrid infections. Zoospores of chytrids appeared to be excellent food for Daphnia, both in terms of size, shape, and quality (PUFAs and cholesterol). Thus, zoospores of chytrids can bridge the gap between inedible diatoms and Daphnia. In order to examine the effects of diatoms and chytrids on the survival of copepods, we performed one grazing and one survival experiment. The grazing experiment revealed that the diatom, Asterionella formosa, was not grazed by the copepod, Eudiaptomus gracilis, even after being infected by the chytrid Zygorhizidium planktonicum. However, carbon and nitrogen concentrations were significantly reduced by E. gracilis only when A. formosa was infected by Z. planktonicum, indicating that the chytrids might facilitate material transfer from inedible diatoms to the copepods. The survival experiment revealed that E. gracilis lived shorter with A. formosa than with the cryptophyta Cryptomonas pyrenoidifera. However, the survival of E. gracilis increased significantly in the treatment where A. formosa cells were infected by Z. planktonicum. Since E. gracilis could not graze A. formosa cells due to their large colonial forms, E. gracilis may acquire nutrients by grazing on the zoospores, and were so able to survive in the presence of the A. formosa. This provides new insights into the role of parasitic fungi in aquatic food webs, where chytrids may improve copepod survival during diatom blooms.
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subjects Algae
Animal populations
Aquatic ecology
Aquatic environment
Aquatic fungi
Asterionella formosa
Bacillariophyceae
Biomedical and Life Sciences
Chytrid
Copepoda
Crustaceans
Cryptomonas pyrenoidifera
Cryptophyta
Daphnia
Disregarded Diversity and Ecological Potentials
Ecology
Eudiaptomus
Eudiaptomus gracilis
Food chains
Food web
Food webs
Freshwater
Freshwater & Marine Ecology
Grazing
Growing season
Life Sciences
Mycoloop
Oceans
Parasites
Survival
Trophic levels
Zoology
Zooplankton
Zygorhizidium
title Parasitic chytrids could promote copepod survival by mediating material transfer from inedible diatoms
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