Modeling, Experimentation, and Control of Autotrophic Nitrogen Removal in Granular Sludge Systems

Chemistry

• Aeration 14%
• Ammonium 28%
• Base 14%
• Carbon 14%
• Carbon to Nitrogen Ratio 14%
• Chemical Water Pollutant 14%
• Concentration 28%
• Denitrification 14%
• Dioxygen 28%
• Energy 14%
• Engineering Process 14%
• Nitrification 14%
• Nitrogen 100%
• Number 14%
• Organic Carbon 14%
• Procedure 100%
• Rate 14%
• Reactor 57%
• Simulation 42%
• Sludge 100%
• Structure 14%
• Time 14%
• Wastewater 28%

Engineering

• Actuators 28%
• Aeration 14%
• Capital Cost 14%
• Complexity 28%
• Control Strategy 42%
• Control Structure 14%
• Design 14%
• Development 14%
• Dynamic Response 14%
• Energy Engineering 14%
• Experimental Result 14%
• Feedback Control Systems 14%
• Feedforward 14%
• Functionality 14%
• High Concentration 14%
• Loop Control 14%
• Models 14%
• Nitrogen Ratio 14%
• Oscillatory 14%
• Process Intensification 14%
• Reactor 42%
• Related Cost 14%
• Removal Efficiency 28%
• Removal Rate 14%
• Simulation 28%
• Simulation Model 14%
• Single Reactor 14%
• Smaller Number 14%
• Volumetrics 28%

Chemical Engineering

• Carbon 14%
• Nitrogen 42%
• Nitrogen Removal 100%
• Organic Carbon 14%
• Oxygen 14%
• Oxygen Supply 14%
• Removal 42%