PREEMPTIVE DIAGNOSIS OF DIABETES USING COMPUTATIONAL INTELLIGENCE
Abstract
Globally, diabetes has been adjudged a long-term metabolic condition, with major health
consequences. Finding it early is very important for lowering problems and helping patients. This
research looks at how to use computer-based methods to diagnose diabetes early, using
information from 93 participants . The key features analyzed include Age, Gender, Increased
Weight, Urine Level, e.t.c The dataset underwent thorough preprocessing, including stratified
splitting to preserve class distribution, oversampling to address minority class imbalance, and
hyperparameter
optimization to enhance classifier performance. Six machine learning classifiers: Random Forest,
Support Vector Machine (SVM), Decision Tree, K-Nearest Neighbors (KNN), Logistic
Regression, and Naïve Bayes were trained and evaluated using accuracy, precision, recall, and
F1-score. Analysis revealed that Urine Level and Increased Weight were the most significant
predictors of diabetes, while Age contributed moderately and Gender had minimal impact.
Among the classifiers, Naive Bayes achieved the highest accuracy giving (92%) followed by
KNN, SVM and logistic regression (85%) and random forest and decision Decision Tree have the
lowest accuracy (81%). Stratified splitting, Oversampling and hyper-parameter tuning improved
model generalization and reduced overfitting, demonstrating the effectiveness of computational
intelligence techniques in handling small, imbalanced datasets. The study concludes that machine
learning provides a reliable and practical approach for early detection of diabetes, enabling
healthcare providers to identify high-risk individuals and implement preventive measures. The
findings also underscore the critical role of Urine Level and Increased Weight as primary
indicators for preemptive diagnosis. This project contributes to knowledge by establishing a
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systematic framework for preemptive diabetes prediction, highlighting the effectiveness of
classifiers, and providing insights for future studies in predictive healthcare and preventive
medicine.
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