Keyphrases
Economic Optimization
100%
Pyrolysis
100%
Municipal Solid Waste
100%
Enviroeconomic
100%
Waste to Electricity
100%
Optimum Technology
100%
Adverse Effects
66%
Gasification
66%
Cost Reduction
66%
Gas Engine
66%
Gas Turbine
66%
Power Generation Technology
66%
Solid Oxide Fuel Cell
66%
High Cost
33%
Energy Efficiency
33%
Global Warming
33%
Climate Change
33%
Optimization Model
33%
Anaerobic Digestion
33%
Greenhouse Gas Emissions
33%
Technology-based
33%
Steam Turbine
33%
Fuel Cell Technology
33%
Multi-objective Optimization
33%
Levelized Cost of Energy
33%
Emission Intensity
33%
Waste-to-energy Technologies
33%
Waste Conversion
33%
Waste Accumulation
33%
Multiple Periods
33%
Aspen Plus
33%
General Algebraic Modeling System
33%
Enviroeconomic Analysis
33%
Incineration
33%
Waste-to-energy Conversion
33%
Electricity Intensity
33%
Acceptable Range
33%
Parametric Analysis
33%
Technology Experience
33%
Molten Carbonate Fuel Cell
33%
Greenhouse Gasses Emission
33%
Engineering
Pyrolysis
100%
Municipal Solid Waste
100%
Solid Oxide Fuel Cell
100%
Waste to Energy
66%
Power Generation
66%
Gasification
66%
Generation Technology
66%
Cost Reduction
66%
Gas Engine
66%
Global Warming
33%
Energy Efficiency
33%
Climate Change
33%
Fuel Cell Technology
33%
Energy Conversion
33%
Multiobjective Optimization
33%
Levelized Cost of Electricity
33%
Gas Turbine
33%
Energy Technology
33%
Gas Turbine Engine
33%
Emission Intensity
33%
Parametric Analysis
33%
Molten Carbonate Fuel Cell
33%
General Algebraic Modeling System
33%
Incineration
33%
Anaerobic Digestion
33%
Climatic Change
33%
Greenhouse Gas
33%
Steam Turbine
33%
Material Science
Oxide Compound
100%
Gas Emission
50%
Greenhouse Gas
50%
Optimization Model
50%
Chemical Engineering
Pyrolysis
100%
Gasification
66%
Anaerobic Digestion
33%