Multi-objective bi-level quantity regulation scheduling method for electric-thermal integrated energy system considering thermal and hydraulic transient characteristics

Keyphrases

• Bi-level 100%
• Scheduling Method 100%
• Transient Characteristics 100%
• Hydraulic Transients 100%
• Thermal Transient 100%
• Quantity Control 100%
• Electric-thermal Integrated Energy System 100%
• Integrated Energy System 50%
• Bilevel Optimization 33%
• Scheduling Strategy 33%
• Carbon Emissions 33%
• Operation Optimization 33%
• Regulation Method 33%
• Quality Regulation 33%
• Emission Reduction 16%
• Optimization Problem 16%
• Optimization Methods 16%
• Solution Method 16%
• Dynamic Characteristics 16%
• Hydraulics 16%
• Power System 16%
• Computational Speed 16%
• Operation Cost 16%
• Thermoelectric Properties 16%
• Nonlinear Dynamics 16%
• Safety Requirements 16%
• Nonlinear Constraints 16%
• Emission Index 16%
• System Prototype 16%
• Network Operation 16%
• Thermal Dynamics 16%
• Layer Solutions 16%
• Non-dominated Sorting Genetic Algorithm (NSGA-II) 16%
• Renewable Power 16%
• Thermal Systems 16%
• Scheduling Optimization 16%
• Heating Network 16%
• Gurobi 16%
• Thermal-hydraulics 16%
• Hydraulic Transient Process 16%
• Economy of Qualities 16%
• Vertical Imbalance 16%
• Hydraulic Dynamics 16%
• Hydraulic Network Model 16%
• Thermal Decoupling 16%
• Optimized Scheduling 16%

Engineering

• Hydraulics 100%
• Integrated Energy System 100%
• Transients 100%
• Scheduling Strategy 40%
• Nodes 40%
• Renewables 20%
• Optimization Method 20%
• Optimisation Problem 20%
• Thermal System 20%
• Safety Requirement 20%
• Layer Solution 20%
• Non-Dominated Sorting Genetic Algorithm II 20%
• Power Engineering 20%
• Solution Method 20%
• Non-Linear Dynamics 20%
• Network Model 20%