Thermodynamic optimization of an irreversible regenerative closed Brayton cycle based on thermoeconomic performance criterion

Keyphrases

• Performance Criteria 100%
• Thermo-economic Performance 100%
• Cycle Basis 100%
• Thermodynamic Optimization 100%
• Total Cost Rate 100%
• Closed Brayton Cycle 100%
• Design Parameters 50%
• Performance Analysis 50%
• Heat Transfer 50%
• Pressure Loss 50%
• Pressure Drop 50%
• Temperature Ratio 50%
• Performance Optimization 50%
• Operation Maintenance 50%
• Finite Rate 50%
• Operation Cost 50%
• Net Power Output 50%
• Thermoeconomics 50%
• Engine System 50%
• Isentropic 50%
• Regenerator Effectiveness 50%
• Loss Factor 50%
• Brayton Heat Engine 50%
• Heat Leakage 50%
• Maintenance Cost Rate 50%
• Internal Dissipation 50%
• Environmental Maintenance 50%

Engineering

• Performance Criterion 100%
• Thermoeconomics 100%
• Closed Brayton Cycle 100%
• Total Cost Rate 66%
• Performance Analysis 33%
• Pressure Loss 33%
• Operation and Maintenance 33%
• Internals 33%
• Heat Engine 33%
• Cost Rate 33%
• Irreversibility 33%
• Heat Transfer Rate 33%
• Net Power Output 33%
• Engine System 33%
• Regenerator Effectiveness 33%
• Pressure Drop Model 33%
• Isentropic Temperature Ratio 33%
• Design Parameter 33%