Assessing carbon storage capacity and saturation across six central US grasslands using data-model integration

Keyphrases

• Grassland 100%
• Model-data Integration 100%
• Central U.S. 100%
• Carbon Storage Capacity 100%
• C Pools 75%
• Mean Annual Precipitation 50%
• Residence Time 50%
• Turnover Rate 50%
• C Flux 50%
• C Input 50%
• C Turnover 50%
• Land Policy 50%
• Data Pooling 25%
• Mean Annual Temperature 25%
• Strong Correlation 25%
• Moisture 25%
• Soil Temperature 25%
• Soil Moisture 25%
• Soil Moisture Content 25%
• Monsoon 25%
• Microbial Activity 25%
• Annual Mean 25%
• Vulnerability 25%
• Terrestrial Ecosystems 25%
• Atmospheric CO2 25%
• Temperature Gradient 25%
• Frequent Fire 25%
• Leaching 25%
• Land Management 25%
• Net Primary Productivity 25%
• Global Change 25%
• Dry Ecosystems 25%
• Carbon C 25%
• Policy Decisions 25%
• Flux Data 25%
• Environmental Management 25%
• Plant Material 25%
• Process-based 25%
• C Loss 25%
• Microbial Function 25%
• Precipitation Gradient 25%
• Terrestrial Carbon Cycle 25%
• Tallgrass Prairie 25%
• Hot-dry 25%
• Land Management Decisions 25%
• Global Change Impacts 25%
• High Temporal Resolution 25%
• Tissue Quality 25%
• CS Model 25%
• Carbon Residence Time 25%
• Future Environmental Changes 25%
• Dry Grasslands 25%
• Land Management Regime 25%
• Reduced Inputs 25%

Earth and Planetary Sciences

• Grassland 100%
• Carbon Sequestration 100%
• Land Management 60%
• Soil Moisture 40%
• Global Change 40%
• Environmental Change 20%
• Atmospherics 20%
• Microbial Activity 20%
• Planetary Atmosphere 20%
• Terrestrial Ecosystem 20%
• Soil Temperature 20%
• Environmental Management 20%

Agricultural and Biological Sciences

• Grassland 100%
• Annuals 60%
• Land Management 60%
• Soil Moisture 40%
• Global Change 40%
• Land Policy 40%
• Soil Temperature 20%
• Microbial Activity 20%
• Primary Productivity 20%
• Terrestrial Ecosystem 20%
• Environmental Management 20%