article · Trends in Biological Sciences
Background and Objective: Global micronutrient deficiencies, particularly selenium (Se), represent a major public health concern known as hidden hunger.Pleurotus ostreatus (oyster mushroom) serves as an efficient biological system for mineral biotransformation; however, the biofortification process is constrained by a metabolic trade-off between selenium accumulation and biomass yield.This study proposes an Artificial Intelligence-Guided Precision Biofortification (AI-PB) framework to optimize selenium enrichment in oyster mushroom while maintaining yield and nutritional quality.Materials and Methods: Pleurotus ostreatus was cultivated under controlled indoor conditions using selenium-fortified substrates over a six-month experimental period.Amino acid composition and lipid metabolites were characterized using PTH amino acid analysis and GC-MS, respectively.Experimental data were integrated into a multi-task deep learning framework with SHAP-based explainable AI and Pareto optimization to predict and optimize biomass yield, selenium biofortification, and nutritional quality.Model performance was validated using k-fold cross-validation, R 2 , and RMSE metrics.Results: A protein dilution effect was observed at elevated selenium concentrations, reflected by a 5.15% reduction in total nitrogen and significant decreases in glutamic and aspartic acid levels.The AI-PB model identified a Pareto-optimal Na 2 SeO 3 concentration of 54.3 mg/kg.At this level, essential amino acids increased by 15.2%, while selenium incorporation was maximized and biological efficiency remained above 82%.The model also confirmed the preservation of bioactive compounds, including squalene, despite selenium-induced oxidative stress.Conclusion: The AI-PB framework effectively resolves the metabolic trade-off between selenium enrichment and yield in oyster mushroom.This approach provides a scalable Agri-Tech 4.0 strategy for precision biofortification and supports the development of functional foods for sustainable mineral nutrition delivery.
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DOI: 10.21124/tbs.2026.430.441
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