Shanghai, 201306
China
Shanghai Maritime University (SMU) - Merchant Marine College
Microchannel direct liquid cooling, Temperature non-uniformity, Hydrothermal characteristics, Empirical correlations, Coefficient of performance
Microchannel direct liquid cooling, Temperature non-uniformity, Hydrothermal characteristics, Empirical correlations, Coefficient of Performance
cryogenic organic Rankine cycle, cold energy recovery, back propagation neural network, genetic algorithm, Performance Prediction
OTEC-MLE, Isentropic efficiency, Thermal efficiency, Exergy efficiency, Carbon reduction amount
OTEC-MLE；Net power output, Isentropic efficiency, Thermal efficiency, exergy efficiency
Keywords：Ocean thermal energy conversion, Organic Rankine cycle, air conditioning, Matching of heat and cold sources, Mass flow rate
Ocean thermal energy conversion, Organic Rankine Cycle, Air conditioning, Matching of heat and cold sources, Mass flow rate
Carbon capture, DORC, LNG cold energy utilization, Waste heat recovery, Multi-objective optimization
Ocean thermal energy conversion, Organic Rankine cycle, Working fluid charging amount, Pump frequency
S-OTEC, Organic Rankine cycle, Working fluid flow rate, Solar hot water temperature, power generation
Nanofluids, CO2 captured by MEA, heat and mass transfer mechanism, cyclic capacity, regenerative heat consumption
Dual-fuel mode, Carbon capture system integration, System process optimization, Multi-system comparison
Compact onboard carbon capture system, Experimental system, Parameter optimization, Reduced regeneration heat, Chemical absorption
Ocean thermal energy conversion, Organic Rankine cycle, Working fluid charging amount, Pump frequency；
battery thermal management, Wave-type microchannel cooling plate, Double-periodic wave, Temperature standard deviation, Charge and discharge process
Hydrogen production-storage integration, Hybrid propulsion system, Dual PEMFC integration technology, PEMEC, Electrolytic hydrogen production
onboard carbon capture and storage, Energy Efficiency Design Index, LNG cold energy recovery, multi-objective optimization, metric of carbon capture efficiency degree
Modified EEDI calculation method, Experimental system, Onboard carbon emission reduction, Energy efficiency operational index, Waste heat utilization
Keywords：Organic Rankine cycle, Regenerator, Cold exergy efficiency, Non-azeotropic organics, Cold energy recovery；Power generation.
Ship-based carbon capture, integrated system design, chemical absorption with MEA, energy level analysis, multi-parameter experimental validation
OTEC, system scaling, flow ratio, Thermal efficiency, annual carbon reduction
Battery Thermal Management, Airfoil fin, Non-uniform airfoil fin arrangement, Temperature standard deviation, Charge and discharge process
R1234yf, R134a, OTEC-AC, Cooling capacity, Exergy efficiency, Thermal efficiency
cold source, working fluids, OTEC-AC, cooling capacity, Exergy efficiency, thermal efficiency
organic Rankine cycle, Regenerator, Cold exergy efficiency, hybrid woriking fluid, Cold energy recovery, Power generation
condensation enhancement, wettability gradient, microcolumn array surface, numerical simulation, droplets trajectory
cold source flow rate, heat source temperature, liquefied natural gas organic rankine cycle, power generation
Cold energy recovery, Organic Rankine cycle, Non-azeotropic mixtures, LNG
Ship-based carbon capture；Integrated system；Chemical absorption；5E analysis；Experimental validation
condensation enhancement, wettability gradient, microcolumn array, Numerical simulation, droplet liquid-vapor interface
