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A combined power cycle using refuse incineration and LNG cold energy
T. Miyazaki
,
Y. T. Kang
*
, A. Akisawa
, T. Kashiwagi
*
Corresponding author for this work
Research output
:
Contribution to journal
›
Article
›
peer-review
108
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Keyphrases
Ammonia
25%
Ammonia Water
25%
Combined Power Cycle
100%
Combined Power Generation
25%
Condenser
25%
Condensing Temperature
25%
Cyclen
25%
Efficiency Improvement
50%
Energy Cycle
25%
Exergy
25%
Exergy Efficiency
100%
Heat Conductance
25%
Heat Transfer Rate
25%
Incinerator
25%
LNG Cold Energy
100%
Logarithmic Mean Temperature Difference
25%
Lower Heating Value
25%
Mass Flow Rate
25%
Outlet Pressure
50%
Overall Conductance
25%
Parametric Analysis
25%
Performance Improvement
25%
Power Generation Cycle
25%
Pressure Rise
25%
Rankine Cycle
25%
Refuse Incineration
100%
Specific Heat
25%
Steam Rankine Cycle
25%
T Temperature
25%
Thermal Efficiency
50%
Turbine Inlet Pressure
50%
Engineering
Ammonia Water
20%
Combined Cycle
100%
Combined Power Generation Cycle
20%
Condenser
20%
Condensing Temperature
20%
Conventional Cycle
20%
Exergy Efficiency
80%
Heat Transfer Rate
20%
Incineration
100%
Inlet Pressure
40%
Log Mean Temperature Difference
20%
Low Heating Value
20%
Mass Flowrate
20%
Optimum Condition
20%
Outlet Pressure
40%
Parametric Analysis
20%
Performance Improvement
20%
Power Cycle
100%
Pressure Increase
20%
Rankine
20%
Steam Rankine Cycle
20%
Thermodynamic Efficiency
40%