Evaluation and optimization of supercritical cycles using CO₂ based mixtures as working fluids: A thermodynamic study

Keyphrases

• Binary Fluid Mixture 33%
• CO2-based 100%
• Comparative Analysis 33%
• Cycle Configuration 100%
• Cycle Efficiency 100%
• Cycle Parameters 33%
• Cycle Performance 33%
• Energy Efficiency Improvement 33%
• Energy Sustainability 33%
• High Temperature 66%
• High-cycle 100%
• Large Cycles 33%
• Molar Fraction 33%
• Multi-objective Optimization 33%
• Performance Optimization 33%
• R152a 100%
• Recompression Cycle 66%
• Recuperative Cycle 33%
• Response Surface Methodology 33%
• S-CO2 Brayton Cycle 33%
• Supercritical CO2 Power Cycle 33%
• Supercritical Cycle 100%
• Thermodynamic Performance 33%
• Thermodynamic Performance Analysis 33%
• Thermodynamic Power Cycle 33%
• Thermodynamic Study 100%
• Waste Heat 33%
• Waste Heat Recovery 33%
• Working Cycle 33%
• Working Fluid 100%

Engineering

• Carbon Dioxide 100%
• Comparative Analysis 14%
• Conservation of Energy 14%
• Cycle Efficiency 42%
• Fluid Mixture 14%
• Molar Fraction 14%
• Multiobjective Optimization 14%
• Optimal Condition 14%
• Performance Analysis 14%
• Power Cycle 42%
• Recompression 28%
• Recuperated Cycle 14%
• Response Surface Method 14%
• Supercritical Carbon Dioxide 14%
• Supercritical Cycle 100%
• Thermodynamics 100%
• Waste Heat Recovery System 14%