Methodology for integrating lumped kinetic models and decision-making frameworks to enhance sustainability of plastic waste pyrolysis

Keyphrases

• Pyrolysis 100%
• Reactor Performance 100%
• Decision-making Framework 100%
• Plastic Waste Pyrolysis 100%
• Lumped Kinetic Model 100%
• Plastic Waste 50%
• Energy Consumption 50%
• Decision Maker 50%
• Residence Time 50%
• Environmental Assessment 50%
• Reactor 50%
• Complex Interactions 50%
• Selling 50%
• Five Systems 50%
• Laboratory Investigation 50%
• Total Annual Cost 50%
• Multi-criteria Analysis 50%
• Heat Transfer Coefficient 50%
• Wall Temperature 50%
• Product Sales 50%
• Making Decisions 50%
• Liquid Products 50%
• Chemical Route 50%
• Experimental Facility 50%
• Process Flowsheet 50%
• Resource Efficiency 50%
• Sustainability Metrics 50%
• Circularity 50%
• Gas Products 50%
• Laboratory Data 50%
• Sales Profit 50%
• Gasses 50%
• Plug Flow Reactor 50%
• Heat Supply 50%
• Economic Assessment 50%
• Sustainable Options 50%
• Modeling Gaps 50%
• Product Circularity 50%
• Product Profit 50%
• Pseudo-homogeneous 50%
• High-level Decision-making 50%
• Temperature Focusing 50%
• Common Framework 50%
• High Profit 50%
• Methodological Integration 50%
• Plastic Waste Conversion 50%
• Liquid Yield 50%

Chemical Engineering

• Pyrolysis 100%
• Liquid Products 100%
• Waste Pyrolysis 100%
• Reactor Performance 100%
• Lumped Kinetic Model 100%
• Heat Transfer Coefficient 50%
• Gas Products 50%
• Process Flowsheet 50%
• Pseudo-homogeneous 50%