Nutrient availability regulates the microbial biomass structure in marine oligotrophic waters

In oligotrophic oceans, trophic transfer at the base of pelagic food webs is driven by shifts in biomass ratios of plankton microbial groups, which determine dominant nutrition modes, i.e., autotrophy and heterotrophy. Understanding how the physical environment impacts transient spatial patterns of...

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Veröffentlicht in:Hydrobiologia 2024-05, Vol.851 (8), p.1923-1938
Hauptverfasser: Farias, Gabriel Bittencourt, Melo, Pedro Augusto Mendes de Castro, López-Abbate, María Celeste, Bertrand, Arnaud, Carré, Claire, Bec, Béatrice, Molinero, Juan-Carlos
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container_end_page 1938
container_issue 8
container_start_page 1923
container_title Hydrobiologia
container_volume 851
creator Farias, Gabriel Bittencourt
Melo, Pedro Augusto Mendes de Castro
López-Abbate, María Celeste
Bertrand, Arnaud
Carré, Claire
Bec, Béatrice
Molinero, Juan-Carlos
description In oligotrophic oceans, trophic transfer at the base of pelagic food webs is driven by shifts in biomass ratios of plankton microbial groups, which determine dominant nutrition modes, i.e., autotrophy and heterotrophy. Understanding how the physical environment impacts transient spatial patterns of these communities is essential to quantify productivity of plankton food webs. Using data from a coast-offshore field expedition in the Southwestern Tropical Atlantic, we assess the influence of nutrient limitation and contrasting hydrological settings on spatial patterns and biomass ratios of pico- and nanoplankton. The results showed an overall nitrogen-limited nutritional environment that lessens autotrophic growth while favoring the dominance of heterotrophic bacteria biomass. Offshore, this configuration is however altered in the deep chlorophyll maximum due to an enhanced nutrient availability promoted by a shallowing of the nutricline, which favors an increase in picoeukaryotes biomass. Autotrophic cells showed different distributions over the coast-offshore transect. Synechococcus and pigmented nanoflagellates had higher biomass on the shelf, while Prochlorococcus dominated the entire region and picoeukaryotes had higher biomass offshore. Overall, our results pinpoint the importance of heterotrophic biomass in the plankton microbial community, providing novel clues for understanding the carbon transport in oligotrophic marine ecosystems.
doi_str_mv 10.1007/s10750-023-05427-9
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subjects autotrophs
Autotrophy
Availability
Bacteria
Biodiversity and Ecology
Biomass
Biomedical and Life Sciences
carbon
Chlorophyll
Chlorophylls
Ecology
Environmental Sciences
Expeditions
Food chains
Food webs
Freshwater & Marine Ecology
Global Changes
Heterotrophic bacteria
Heterotrophy
hydrology
Life Sciences
Marine ecosystems
microbial biomass
microbial communities
Microorganisms
Nannoplankton
Nanoplankton
Nutrient availability
Nutrition
Oceans
Offshore
Oligotrophic waters
Plankton
Primary Research Paper
Prochlorococcus
Synechococcus
Zoology
title Nutrient availability regulates the microbial biomass structure in marine oligotrophic waters
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