How is copepod functional diversity shaped by 2015-2016 El Niño and seasonal water masses in a coastal ecosystem of Southwest Atlantic?
DOI:
https://doi.org/10.1590/Keywords:
Zooplankton, Copepod traits, Marine Protected Area, ENSO, Brazilian Continental ShelfAbstract
Functional traits, short life cycles, and the pivotal role in the ocean make copepod diversity a solid foundation for
assessing the effect of global changes in marine food webs and ecosystem functioning. Climate change and extreme
events, particularly El Niño, can affect coastal ecosystems. The Arvoredo Marine Biological Reserve (MPA), located
in highly productive coastal waters of the Southern Brazilian Bight, presents complex climate and oceanographic
conditions. This study investigates the influence of oceanographic processes and El Niño 2015-2016 on the copepod
functional diversity from 2014 to 2016 in the Arvoredo MPA. Horizontal tows were performed using a WP2 net with
a mesh size of 200 µm. The 41 species accounted for 19 functional entities and four functional groups. Our findings
reveal that the seasonal intrusion of water masses influenced copepod functional diversity. During summer, the
upwelling of South Atlantic Central Water increased nutrient availability and favored large herbivore-omnivores
and carnivores. The Plata Plume Water enrichment during winter coincided with a decline in functional richness and
abundance, leading to the predominance of the Oithona nana, a small-sized omnivore. Compensatory mechanisms
were observed as functional equivalence and species composition shifts. Acartia lilljeborgii and Temora turbinata
exhibited functional equivalence and compensated for each other in response to salinity changes associated
with upwelling and El Niño. The copepod assemblage demonstrated the ability to maintain functional diversity despite
changes in copepod abundance. However, the decline in functional diversity and abundance during the intense winter
indicated potential disruption in trophic dynamics and ecosystem functioning. Maintaining balance and compensating
for disturbances such as El Niño is crucial for marine food web resilience. The functional trait approach provided a
comprehensive understanding of the copepod assemblage in Arvoredo MPA, contributing to a broader knowledge
of the impact of oceanographic processes intensification. Monitoring functional diversity and abundance is crucial for
evaluating the effects of copepod assemblage changes in ecosystem functionings.
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