A predictive model for biomass waste pyrolysis yield: Exploring the correlation of proximate analysis and product composition

Keyphrases

• Carbon Dioxide 100%
• Biomass Waste 100%
• Predictive Models 100%
• Bio-oil 100%
• Biomass Pyrolysis 100%
• Bio-oil Composition 100%
• Volatile Matter 100%
• Proximate Analysis 100%
• Waste Pyrolysis 100%
• Pyrolysis Yield 100%
• Product Composition 100%
• Biochar 50%
• Biogas 50%
• Methane 50%
• Interaction Patterns 50%
• Date Stones 50%
• Validation Studies 50%
• Valuable Insight 50%
• Process Optimization 50%
• Product Yield 50%
• Complex Interactions 50%
• Pyrolysis Process 50%
• Heating Rate 50%
• Gas Yield 50%
• Pyrolysis Products 50%
• Bio-oil Yield 50%
• Reaction Temperature 50%
• Response Surface Methodology 50%
• Complex Interplay 50%
• Varying Working Conditions 50%
• Char Yield 50%
• Response Variable 50%
• Gas Composition 50%
• Sustainable Resource Utilization 50%
• C-rate 50%
• Carbon number 50%
• Spent Coffee Grounds 50%
• Cow Manure 50%
• Empirical Formula 50%
• Response Surface Analysis 50%
• Yield Difference 50%
• Predicted Yield 50%
• Experimental Factors 50%
• Advanced Statistical Techniques 50%
• Compound Yield 50%
• Predictive Insights 50%
• C2-C3 50%
• Factorial Experiment 50%
• Product Outcomes 50%
• Volatiles Reaction 50%
• Aromatic Yield 50%
• Yield Optimization 50%

Engineering

• Pyrolysis 100%
• Proximate Analysis 100%
• Bio-Oil 100%
• Oil Composition 40%
• Biomass Pyrolysis 40%
• Aromatics 20%
• Methane 20%
• Process Parameter 20%
• Heating Rate 20%
• Response Surface Methodology 20%
• Systematic Analysis 20%
• Product Yield 20%
• Resource Utilisation 20%
• Gas Composition 20%
• Desired Product 20%
• Deep Understanding 20%
• Designed Experiment 20%
• Desirability 20%

Chemical Engineering

• Pyrolysis 100%
• Waste Pyrolysis 100%
• Carbon Dioxide 50%
• Heating Rate 50%
• Bio-oil Yield 50%
• Pyrolysis Products 50%