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Official PDF TranslationJournal of Fuel Chemistry and Technology

Machine learning-based prediction and optimization of the cellulose conversion process for levulinic acid production

Authors: ZHAO Huiting; XIE Yujiao; XU Dongqian; DONG Fangxu; CUI Hongyou

DOI: 10.1016/S1872-5813(26)60665-2Status: Verified Translated Edition
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Key Findings in This Report

• • The gradient boosting regression (GBR) model achieved a test-set R² of 0.94 and the lowest RMSE among six ML models, enabling accurate prediction of levulinic acid yield from cellulose conversion. • • SHAP and partial dependence analyses revealed that water fraction, catalyst dosage, and reaction temperature are the dominant factors controlling LA yield, with synergistic effects that must be optimized jointly. • • Integration of GBR with particle swarm optimization identified RuCl₃ as an efficient catalyst under high-temperature and short-reaction-time conditions, offering a data-driven route to catalyst selection. • • The data-driven framework reduces reliance on exhaustive experimental trials, accelerating the discovery of optimal reaction conditions for industrial LA production.