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FEMS Microbiology Ecology
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The effect of temperature increase on microbial carbon fluxes in the Adriatic Sea: an experimental approach

Authors: Natalia Bojanić; Ana Vrdoljak; Stefanija Šestanović; Mladen Šolić; Danijela Šantić; Marin Ordulj; Slaven Jozić;

The effect of temperature increase on microbial carbon fluxes in the Adriatic Sea: an experimental approach

Abstract

An assessment of the temperature increase effect on processes within the microbial food web provides a better insight into the carbon transfer and energy flow processes in marine environments in the global warming perspective. Modified laboratory dilution experiments that allow simultaneous estimates of protozoan grazing and viral lysis on picoplankton groups (bacteria, Prochlorococcus, Synechococcus and pico-eukaryotic algae) under in situ and 3°C above in situ temperatures were performed at seasonal scale. Picoplankton mortality due to grazing was generally higher than that caused by viral lysis, especially in the cold months. The largest part of HNF carbon demand was satisfied by grazing on bacteria throughout the year. Although ciliates satisfied their carbon demand predominantly through grazing on HNF and bacteria, the role of autotrophic picoplankton (APP) as their prey increased significantly in the cold months. Bacteria constituted the most important host for viruses throughout the year. However, during the warm months, APP groups were also significant hosts for viral infection. Under the warming condition the amount of picoplankton biomass transferred to protozoan grazers exceeded the lysed biomass, suggesting that global warming could further increase picoplankton carbon flow toward higher trophic levels in the Adriatic Sea.

Country
Croatia
Keywords

Adriatic Sea, Food Chain, viral lysis, Climate Change, global warming, Carbon Cycle, Mediterranean Sea, Biomass, Bacteria, Temperature, Eukaryota, autotrophic picoplankton, protozoan grazing, heterotrophic bacteria ; autotrophic picoplankton ; growth rate ; production ; protozoan grazing ; viral lysis ; carbon flux ; global warming ; Adriatic Sea, carbon flux, Viruses, growth rate, production, Water Microbiology, heterotrophic bacteria

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