H2-rich syngas production from air gasification of date palm waste: an experimental and modeling investigation

Keyphrases

• Air Flow Rate 66%
• Air Gasification 100%
• Aspen Plus 33%
• Carbon Conversion Efficiency 66%
• Cold Gas Efficiency 66%
• Commercial Enterprises 33%
• Concentration Profile 33%
• Date Palm Fronds 66%
• Date Palm Waste 100%
• Downdraft Fixed Bed 33%
• Endothermic Reaction 33%
• Energy Analysis 33%
• Energy Flow 33%
• Energy Generation 66%
• Equilibrium Processes 33%
• Fixed-bed System 33%
• Gas Concentration 33%
• Gas Yield 33%
• Gasification Performance 33%
• H2 Concentration 66%
• H2-rich Syngas 100%
• Higher Heating Value 33%
• Mass Flow 33%
• Methane Reforming Reaction 33%
• Oil-exporting Countries 66%
• Particle Size 66%
• Performance Parameters 33%
• Prime Focus 33%
• Process Simulation 33%
• Renewable Sources 33%
• Saudi Arabian 66%
• Simulation Model 33%
• Syngas 100%
• Syngas Composition 33%
• Syngas Production 100%
• Temperature Impact 33%
• Vol% 33%
• Waste-to-energy 33%

Engineering

• Air Gasification 100%
• Concentration Profile 25%
• Conversion Efficiency 50%
• Downdraft 25%
• Endothermic Reaction 25%
• Energy Flow 25%
• Equilibrium Process 25%
• Experimental Result 50%
• Fixed Bed 25%
• Flowrates 50%
• Gasification Performance 25%
• Good Agreement 25%
• High Heating Value 25%
• Methane 50%
• Oil Exporting Country 25%
• Parametric Study 25%
• Performance Parameter 25%
• Power Generation 50%
• Predicted Result 25%
• Renewable Source 25%
• Simulation Model 50%
• Syngas 100%
• Syngas Generation 100%

Chemical Engineering

• Endothermic Reaction 33%
• Gasification 100%
• Methane 33%
• Methane Reforming Reaction 33%
• Parametric Study 33%
• Syngas Composition 33%
• Syngas Generation 100%