Adaptive variability to low-pH river discharges in Acartia tonsa and stress responses to high _PCO₂ conditions

Keyphrases

• Acartia Tonsa 100%
• Adaptation 20%
• Adaptive Variability 100%
• Biological Characteristics 20%
• Carbonate System Parameters 20%
• Chemical Gradient 20%
• Climate Change Drivers 20%
• Climate Transition 20%
• Coastal Area 20%
• Coastal Management 20%
• Copepods 100%
• Environmental Threats 20%
• Estuary 20%
• Evolutionary 20%
• Ferritin 20%
• Ferritin Gene 20%
• Heat Shock Protein 70 (HSP70) 20%
• Heat Shock Protein 70 Gene 20%
• High Pressure 20%
• In Situ 20%
• In Situ Conditions 20%
• Incubation 20%
• Ingestion Rate 40%
• Local Fluctuations 20%
• Low pH 100%
• Management Arrangements 20%
• Marine Chemistry 20%
• Multiple Drivers 20%
• Neritic 20%
• Ocean Acidification 40%
• Partial Pressure of CO2 (pCO2) 100%
• Phenotypic Plasticity 20%
• Planktonic Groups 20%
• Risk Mitigation Strategies 20%
• River Discharge 100%
• Seawater pH 20%
• Southern Pacific Ocean 20%
• Stress Response 100%
• Stress-responsive Genes 20%
• Trait Trade-offs 20%

INIS

• acclimation 20%
• acidification 40%
• carbon dioxide 20%
• carbonates 20%
• chemistry 20%
• climatic change 20%
• copepods 100%
• environment 20%
• estuaries 20%
• ferritin 40%
• fluctuations 20%
• food 20%
• genes 40%
• heat-shock proteins 40%
• high pressure 20%
• incubation 20%
• ingestion 40%
• levels 20%
• management 20%
• mitigation 20%
• oceans 40%
• pacific ocean 20%
• ph value 100%
• plasticity 20%
• policy 20%
• populations 40%
• risks 20%
• rivers 100%
• seawater 20%
• tools 20%
• variations 20%

Earth and Planetary Sciences

• Carbon Dioxide 50%
• Carbonate System 50%
• Climate Change 50%
• Coastal Management 50%
• Coastal Region 50%
• Environmental Threat 50%
• Estuaries 50%
• Ingestion Rate 100%
• Ocean Acidification 100%
• Pacific Ocean 50%
• Phenotypic Plasticity 50%
• River Discharge 100%