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A method for optimizing catalyst preparation conditions based on machine learning and genetic algorithm
DOI:10.1016/j.mcat.2026.116334.png)
Abstract
En 中文
• An RF-GA coupled intelligent framework is proposed to optimize Mn-Ca/γ-Al₂O₃ catalyst for xylene catalytic oxidation.
• Random Forest achieves superior prediction performance with test set R² = 0.949 for pollutant removal efficiency.
• SHAP analysis reveals the Ca/Mn molar ratio (43.94%) and calcination temperature (21.96%) are the dominant influencing factors.
• GA global search avoids local optima of traditional experiments, obtaining optimal preparation parameters: 5.4% loading, Ca:Mn = 1:4, 423 °C, 3.75 h.
• The optimized catalyst reaches 93.7% xylene removal rate, higher than the 91.2% of single-factor local optimum conditions.
This data-driven strategy offers a low-carbon reusable paradigm for non-noble heterogeneous catalyst development.
Keywords:
Catalyst optimization
Machine learning
Multiphase catalytic technology
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