Large and mesoscale meteo-oceanographic patterns in local responses of biogeochemical concentrations
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Investigations surrounding the variability of productivity in upwelling regions are necessary for a better understanding the physical–biological coupling in these regions by monitoring systems of environmental impacts according to the needs of the regional coastal management. Using a spatial and temporal database from National Centers for Environmental Prediction (NCEP) and National Center for Atmospheric (NCAR) Research reanalysis, Quick Scatterometer vector wind, and surface stations from the Southeast coast of Brazil, we investigate the meteorological influences due to the large-scale systems in the variability of the nutrient and larvae concentration, and chlorophyll a, describing statistically relationships between them in upwelling regions. In addition, we used multivariate analysis, such as PCA and clustering to verify spatial and temporal variances and describe more clear the structure and composition of the ecosystem. Correlation matrix analyses were applied for different water masses present in the study area to identify the relations between physical and biogeochemical parameters in a region, where frequently upwelling occur. Statistical approaches and seasonal variability show that the period of November to March is more sensitive to nutrients (1.20 mg/m3 for chlorophyll a, 2.20 μmol/l for total nitrogen and 5.5 ml/l for DO) and larvae concentrations (120 org/m3 for most of the larvae, except for cirripedia that presented values around 370 org/m3) relating to the influence of large and mesoescale meteorological patterns. The spatial and temporal variables analyzed with multivariate approach show meaningful seasonality variance of the physical and biological samples, characterizing the principal components responsible for this variance in spring and summer (upwelling period), emphasizing the monitoring of species as crustaceans and mussels that are present in the local economy. Then, the spring and summer season are characterized by high productivity due to the occurrence of upwelling in this period.
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- Large and mesoscale meteo-oceanographic patterns in local responses of biogeochemical concentrations
Environmental Monitoring and Assessment
Volume 184, Issue 11 , pp 6935-6956
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- Springer Netherlands
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- Nutrient concentrations
- Coastal waters
- Brazil upwelling
- Industry Sectors
- Author Affiliations
- 1. Civil Engineering Postgraduate, Program-COPPE/UFRJ, Center of Technology, Federal University of Rio de Janeiro, CEP 21945-970, Rio de Janeiro, Brazil
- 2. Geography Postgraduate Program, Geoscience Institute, Fluminense Federal University (UFF), CEP 24210-340, Niterói, Brazil