Finite dimension thermodynamics-based preliminary design of multi-energy pumped thermal energy storage systems

Keyphrases

• Thermal Energy Storage System 100%
• Multi-energy 100%
• Thermodynamics-based 100%
• Finite Dimension Thermodynamics 100%
• Pumped Thermal Energy Storage 100%
• Storage Temperature 75%
• Working Fluid 50%
• Round-trip Efficiency 50%
• Operating Conditions 25%
• System Performance 25%
• System Behavior 25%
• Working Cycle 25%
• Heat Exchanger 25%
• Early Design Phases 25%
• Conductance 25%
• Detailed Model 25%
• Optimal Configuration 25%
• Physical Parameters 25%
• Rapid Evaluation 25%
• Intermediate Temperature 25%
• Northern Canada 25%
• Efficient Identification 25%
• Optimal Storage 25%
• Heat Rate 25%
• Optimal Operating Conditions 25%
• Steady State Approach 25%
• Internal Loss 25%
• Energy Storage Design 25%
• Endoreversible 25%
• Cycle Architectures 25%
• Thermodynamic Potential 25%
• Carnot Battery 25%

Engineering

• Preliminary Design 100%
• Thermodynamics 100%
• Thermal Energy Storage System 100%
• Roundtrip 50%
• Systems Performance 25%
• System Behavior 25%
• Boundary Condition 25%
• Design Stage 25%
• Energetics 25%
• Exchanger 25%
• Intermediate Temperature 25%
• Heat Storage 25%
• Physical Parameter 25%
• Storage Capacity 25%
• Heat Rate 25%
• Optimal Operating Condition 25%
• Thermodynamic Potential 25%
• Internal Loss 25%
• Carnot Battery 25%
• Case Study 25%
• Canada 25%

Physics

• Thermodynamics 100%
• Heat Storage 100%
• Working Fluid 40%
• Boundary Condition 20%
• Steady State 20%
• Energetics 20%
• Conductance 20%
• Heat Exchanger 20%
• Physical Parameter 20%