Modeling Coastal Hypoxia
-15%
portes grátis
Modeling Coastal Hypoxia
Numerical Simulations of Patterns, Controls and Effects of Dissolved Oxygen Dynamics
Fennel, Katja; Hetland, Robert D.; Justic, Dubravko; Rose, Kenneth
Springer International Publishing AG
05/2017
433
Dura
Inglês
9783319545691
15 a 20 dias
Modeling is necessary because of rapidly changing coastal circulation and stratification patterns that affect hypoxia, the large spatial extent over which hypoxia develops, and limitations on our capabilities to directly measure hypoxia over large spatial and temporal scales.
Preface1. Numerical experiment of stratification induced by diurnal solar heating over the Louisiana shelf2. Physical Drivers of the Circulation and Thermal Regime Impacting Seasonal Hypoxia in Green Bay, Lake Michigan3. Interannual variation in stratification over the Texas-Louisiana Continental Shelf and Effects on Seasonal Hypoxia4. A Reduced Complexity, Hybrid Empirical-Mechanistic Model of Eutrophication and Hypoxia in Shallow Marine Ecosystems5. Modeling Physical and Biogeochemical Controls on Dissolved Oxygen in Chesapeake Bay: Lessons Learned from Simple and Complex Approaches6. Modeling Hypoxia and its Ecological Consequences in Chesapeake Bay7. Modeling River-Induced Phosphorus Limitation in the Context of Coastal Hypoxia8. Predicted Effects of Climate Change on Northern Gulf of Mexico Hypoxia9. Oregon Shelf Hypoxia Modeling10. Comparing Default Movement Algorithms for Individual Fish Avoidance of Hypoxia in the Gulf of Mexico11. Hypoxia Effects Within an Intraguild Predation Food Web of Mnemiopsis leidyi ctenophores, larval fish, and copepods.12. Simulating the Effects of Hypoxia on Bay Anchovy in the Chesapeake Bay Using Coupled Hydrodynamic, Water Quality, and Individual-Based Fish Models13. Simulation of the Population-Level Responses of Fish to Hypoxia: Should We Expect Sampling to Detect Responses?14. Using Ecosystem Modeling to Determine Hypoxia Effect on Fish and Fisheries15. Numerical Modeling of Hypoxia and its Effects: Synthesis and Going Forward
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Modeling is necessary because of rapidly changing coastal circulation and stratification patterns that affect hypoxia, the large spatial extent over which hypoxia develops, and limitations on our capabilities to directly measure hypoxia over large spatial and temporal scales.
Preface1. Numerical experiment of stratification induced by diurnal solar heating over the Louisiana shelf2. Physical Drivers of the Circulation and Thermal Regime Impacting Seasonal Hypoxia in Green Bay, Lake Michigan3. Interannual variation in stratification over the Texas-Louisiana Continental Shelf and Effects on Seasonal Hypoxia4. A Reduced Complexity, Hybrid Empirical-Mechanistic Model of Eutrophication and Hypoxia in Shallow Marine Ecosystems5. Modeling Physical and Biogeochemical Controls on Dissolved Oxygen in Chesapeake Bay: Lessons Learned from Simple and Complex Approaches6. Modeling Hypoxia and its Ecological Consequences in Chesapeake Bay7. Modeling River-Induced Phosphorus Limitation in the Context of Coastal Hypoxia8. Predicted Effects of Climate Change on Northern Gulf of Mexico Hypoxia9. Oregon Shelf Hypoxia Modeling10. Comparing Default Movement Algorithms for Individual Fish Avoidance of Hypoxia in the Gulf of Mexico11. Hypoxia Effects Within an Intraguild Predation Food Web of Mnemiopsis leidyi ctenophores, larval fish, and copepods.12. Simulating the Effects of Hypoxia on Bay Anchovy in the Chesapeake Bay Using Coupled Hydrodynamic, Water Quality, and Individual-Based Fish Models13. Simulation of the Population-Level Responses of Fish to Hypoxia: Should We Expect Sampling to Detect Responses?14. Using Ecosystem Modeling to Determine Hypoxia Effect on Fish and Fisheries15. Numerical Modeling of Hypoxia and its Effects: Synthesis and Going Forward
Este título pertence ao(s) assunto(s) indicados(s). Para ver outros títulos clique no assunto desejado.
