Understanding potential drivers of aquatic metabolism in a subtropical treatment wetland.
Julian, P.; Osborne, T. Z.
Show abstract
Changes of dissolved oxygen (DO) in aquatic ecosystems integrates dynamic biological, physical and chemical processes that control the rate of ecosystem metabolism. Aquatic ecosystem metabolism can be characterized by the diel change in DO changes over time and is expressed as the net aquatic productivity (NAP). This study investigated aquatic metabolism of dominant emergent and submerged aquatic vegetation (EAV and SAV, respectively) within two treatment flow-ways (FW) of Stormwater Treatment Area 2 (STA-2) in the Everglades ecosystem. The hypothesis of this study is that aquatic metabolism will differ between aquatic vegetation communities with SAV communities will have a greater GPP and ER rate than EAV communities driven by biophysical, hydrodynamic and biogeochemical differences between systems. Aquatic metabolism observed in this study vary spatially (along FWs) and temporally (diel to days) controlled by different effects related biological, physical and chemical processes. This study suggests that ecosystem metabolism is controlled differently across FWs with varying levels of response to loading/transport and water column attributes resulting in differences in organic matter accumulation, C turnover and phosphorus cycling.
Matching journals
The top 6 journals account for 50% of the predicted probability mass.
Similar papers in this journal
- The interaction of physical structure and nutrient loading drives ecosystem change in a large tropical lake over 40 years 95%
- Impact of Run-of-River Damming on Increasing Phytoplankton Biomass and Species Shift in a Large Amazonian River 94%
- Fish Blood Response to Ash-Induced Environmental Alkalinization, and their Implications to Wildfire-Scarred Watersheds 94%
Similar papers in this journal
- Capturing spatiotemporal variation in salt marsh belowground biomass, a key resilience metric, through geoinformatics 94%
- Distinct microbial communities alter litter decomposition rates in a fertilized coastal plain wetland 93%
- Let's Do the Time Warp Again: Non-linear time series matching as a tool for sequentially structured data in ecology 93%
Similar papers in this journal
Similar papers in this journal
- Evidence for positive priming of leaf litter decomposition by contact with eutrophic pond sediments 95%
- Spatially Varying Trophic Effects of Reservoir-Derived Plankton on Stream Macroinvertebrates Among Heterogeneous Habitats Within Reaches 95%
- Size-dependent susceptibility of lake phytoplankton to light stress: An implication for succession of large green algae in a deep oligotrophic lake 92%
"Similar papers" are the closest papers from that journal in the model's embedding space. They show what the match is built on, but the ranking comes mostly from a classifier over the whole training set, not from these examples alone.