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Table 1.

Descriptive statistics of agroecological and management variables used for modeling coffee rust incidence and severity.

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Fig 1.

Class distribution before SMOTE application.

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Fig 2.

Class distribution after SMOTE application to training data (5,036 instances per class).

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Table 2.

Binary logistic regression predicting coffee rust incidence from microclimatic, agronomic, and spatial predictors.

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Table 3.

Variance Inflation Factors (VIF) for predictors in the logistic regression model.

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Table 4.

Posterior summaries from Bayesian hierarchical logistic regression predicting coffee rust incidence.

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Table 5.

Model fit statistics from Leave-One-Out Cross-Validation (LOO-CV) and Widely Applicable Information Criterion (WAIC) for the Bayesian hierarchical logistic regression model.

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Table 6.

Performance metrics for supervised learning models predicting coffee rust incidence.

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Fig 3.

Receiver Operating Characteristic (ROC) curves for all machine learning models predicting coffee rust incidence.

Higher AUC values indicate stronger discrimination between infected and non-infected plots.

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Fig 4.

Precision–Recall (PR) curves for all machine learning models predicting coffee rust incidence.

Higher AUCPR values indicate better tradeoffs between precision and recall in detecting infected plots.

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Fig 5.

Calibration curves for supervised learning models.

The diagonal dashed line represents perfect calibration. Brier scores: Logistic Regression (0.182), CatBoost (0.189), Random Forest (0.194), LightGBM (0.195), XGBoost (0.197), SVM (0.199), Naive Bayes (0.208), ANN (0.215).

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Table 7.

Computational scalability metrics.

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Fig 6.

Partial dependence of coffee rust incidence probability on NDVI.

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Fig 7.

Partial dependence of coffee rust incidence probability on daily relative humidity.

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Fig 8.

Partial dependence of coffee rust incidence probability on leaf wetness duration.

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Table 8.

Comparative impact of environmental predictors on coffee rust incidence probability. Relative increases refer to changes in predicted probability relative to the model baseline, not absolute percentage probabilities.

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Fig 9.

SHAP summary plot showing the ranked importance and directional effect of predictors on coffee rust incidence.

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Table 9.

Summary of SHAP value interpretations for key predictors of coffee rust incidence.

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