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Author

Jayavelu Damodhrakrishnan

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Conference Jul 2026

Predictive Financial Health Evaluation of Companies Using Random Forest and Logistic Regression Techniques

Nearly 50,000 corporate insolvencies were recorded across European markets in 2023, yet most deployed prediction models for corporate insolvency were calibrated on financial data that preceded the significant changes in supply chains and interest rates that followed the end of the pandemic. Identifying deteriorating financial health before default is framed here as a supervised binary classification task over 64 liquidity, leverage, and profitability ratio features drawn from the Polish Companies Bankruptcy Dataset: 10,503 firm-year observations from the third annual reporting period with a 20:1 class imbalance. SMOTE-based oversampling restores minority representation before training, and SHAP-guided feature ranking subsequently retains 22 high-impact ratios while reducing inter-feature collinearity without discarding predictive signal. This feature count is sufficient because the 22 ratios together account for 85% of the model’s total attribution mass in the preliminary Random Forest model. A soft-voting ensemble of Random Forest and Logistic Regression achieves 91.2% accuracy and AUC 0.943, outperforming standalone Random Forest (AUC 0.927), XGBoost (AUC 0.916), and Logistic Regression alone (AUC 0.891) across five stratified cross-validation folds with score stability within ±0.8%. Ensemble tree methods capture nonlinear ratio interactions that linear discriminant approaches structurally cannot represent, particularly across leverage and interest-coverage features where distress signals emerge two reporting periods before formal default.

K.Vengatesan, P. J, Sayyad Samee et al. · 0 citations
Conference Jul 2026

Adaptive Self-Evolving Machine Learning Models Using Meta-Optimization for Dynamic Data Environments

Smart cities, healthcare monitoring systems, financial markets, and IoT platforms are examples of dynamic data environments where data distributions vary over time. When ideas change, traditional machine learning models that were trained with static assumptions don't always do well. To evolve models autonomously in dynamic environments, we provide a new framework called Adaptive Self-Evolving Machine Learning (ASE-ML). This framework employs meta-optimization and constant learning. Model architecture, hyper parameters, and learning approaches are dynamically modified by a meta-learner powered by real-time performance feedback and drift indicators. Extensive testing on benchmark dynamic datasets shows that the proposed method outperforms standard retraining and incremental learning approaches in terms of computational efficiency, stability, accuracy, and adaptability. When applied to real-world, dynamic data streams, the results demonstrate that ASE-ML can be a dependable choice for next-generation intelligent systems The paper currently presents results mainly through comparative figures and discussions but does not provide exact numerical values (e.g., accuracy = 94.2%, F1-score = 92.8%)

K. Vengatesan, Rupam Bhagawati, R. Deka et al. · 0 citations