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Effects of warming and nutrients on the microbial food web in shallow lake mesocosms

We analysed changes in the abundance, biomass and cell size of the microbial food web community (bacteria, heterotrophic nanoflagellates, ciliates) at contrasting nutrient concentrations and temperatures during a simulated heat wave. We used 24 mesocosms mimicking shallow lakes in which two nutrient levels (unenriched and enriched by adding nitrogen and phosphorus) and three different temperature scenarios (ambient, IPCC A2 scenario and A2+%50) are simulated (4 replicates of each). Experiments using the mesocosms have been running un-interrupted since 2003. A 1-month heat wave was imitated by an extra 5 °C increase in the previously heated mesocosms (from 1st July to 1st August 2014). Changes in water temperature induced within a few days a strong effect on the microbial food web functioning, demonstrating a quick response of microbial communities to the changes in environment, due to their short generation times. Warming and nutrients showed synergistic effects. Microbial assemblages of heterotrophic nanoflagellates and ciliates responded positively to the heating, the increase being largest in the enriched mesocosms. The results indicate that warming and nutrients in combination can set off complex interactions in the microbial food web functioning.
- Chinese Academy of Sciences China (People's Republic of)
- Chinese Academy of Sciences China (People's Republic of)
- Sino-Danish Centre for Education and Research China (People's Republic of)
- State University of Maringa Brazil
- Estonian University of Life Sciences Estonia
Food Chain, Nitrogen, Climate Change, 551, EUTROPHIC LAKE, global warming, heterotrophic flagellates, Bacterial Physiological Phenomena, BIOMASS, Heterotrophic flagellates, nutrients, Ciliophora, bacteria, TEMPERATURE, SEASONAL-CHANGES, BODY-SIZE, Population Density, Ciliates, CLIMATE-CHANGE, Bacteria, Global warming, Temperature, Phosphorus, Nutrients, COMMUNITY, Lakes, ZOOPLANKTON, Phytoplankton, articles, PLANKTON, GROWTH, ciliates
Food Chain, Nitrogen, Climate Change, 551, EUTROPHIC LAKE, global warming, heterotrophic flagellates, Bacterial Physiological Phenomena, BIOMASS, Heterotrophic flagellates, nutrients, Ciliophora, bacteria, TEMPERATURE, SEASONAL-CHANGES, BODY-SIZE, Population Density, Ciliates, CLIMATE-CHANGE, Bacteria, Global warming, Temperature, Phosphorus, Nutrients, COMMUNITY, Lakes, ZOOPLANKTON, Phytoplankton, articles, PLANKTON, GROWTH, ciliates
