Exploring AI Tools and Framework for Supply Chain Management V. Thamilarasi, Janaki Sivakumar, R. Roselin, N. Jeysankar, Kirti Hemant Wanjale, et al. Industry 6 0 and Digital Transformation in Supply Chain Assets and Services, 2026 The rise of Artificial Intelligence plays dominant role in education, healthcare, agriculture and business and its growth boost the development of every sectors. Here data plays dominant role and its needs proper tools and frameworks to carryout analysis. Data science is a field to explore data. In this digital era data is everything and every industry needs data to improve their performance to next level in economically and standard in the market. In health care industries data is everything and due to Internet of Things, Cloud, Body networks, data handling needs specific tool and analysis requires specific frame work. In finance and bank sectors every data stored in excel and databases and which assess the data visualization tools to explore further, safety and security. Hence the role of data is unavoidable and which seeks data processing techniques, handling tools and frameworks. This study explore the nature of AI driven tools and available frameworks for supply chain management.
QINN-Based Approach to Detect Anomalies in High-Dimensional Secure Data V. Thamilarasi, Nitendra Kumar, P Ganesh Kumar, G. Sivaraman, R. RajiniGanth, et al. Advancing Cyber Threat Detection Through Quantum and Edge Computing, 2025 Anomaly discovery is a crucial aspect of modern data analysis to finding unusual trends or behaviours in datasets across various domains like cybersecurity and finance and the healthcare. However, overfitting, in which the model becomes overly adapted to training data, results in false negatives and misclassifications, makes it difficult to target optimal detection capabilities. To get around this, training data must be carefully sanitized, eliminating unknown and irregular anomalous instances to guarantee precise anomaly detection. It is already difficult to accomplish optimal and significant feature extraction when working with noisy, high-dimensional data, like that found in network traffic. When features are too similar, overfitting and incorrect classifications may occur. However, classification accuracy may suffer if important features are removed. By improving likelihood estimation and feature separability, unsupervised techniques can assist in finding and keeping pertinent features to enhance model performance.
Intelligent decision model based on deep reinforcement learning for soccer games outcome prediction using optimal feature extraction and optimization V. Thamilarasi, R. Roselin, Kirti H. Wanjale, P. Pushpa Revolutionizing Data Science and Analytics for Industry Transformation, 2025 In this study, the authors propose an intelligent decision model, the deep reinforcement learning for soccer games outcome prediction (DRL-SGO), using optimal feature extraction and optimization. Initially, they design a feature extraction model based on DenseNet to extract soccer games domain knowledge, including recency and rating features, from the given dataset. Subsequently, they use the artificial rabbit optimization (ARO) algorithm to optimize features, selecting the best among a multitude of options. Additionally, they employ deep reinforcement learning (DRL) techniques to enhance the accuracy of predicting soccer game outcomes. Finally, they validate the performance of the proposed DRL-SGO model using the 2017 soccer prediction challenge dataset. Remarkably, the DRL-SGO model achieved an accuracy of 93.991%, precision of 89.169%, recall of 90.537%, and F-measure of 89.843%, showcasing its impressive predictive in the realm of soccer game outcome forecasting.
Fuzzy Logic-Based Deep Learning for Human-Machine Interaction and Gesture Recognition in Uncertain and Noisy Environments John Anand, V. Thamilarasi, Ashish Rayal, Himanshu Kumar Gupta, Kamboji Jyothi, et al. 1st International Conference on Advances in Computer Science Electrical Electronics and Communication Technologies Ce2ct 2025, 2025 Conventional deep learning methods have considerable hurdles when it comes to Human-Machine Interaction (HMI) and gesture identification in noisy and uncertain situations. A Fuzzy Logic-Based Deep Learning (Fuzzy DL) method is presented in this work to improve the resilience, accuracy, and adaptability of human gesture recognition in a variety of scenarios. We test several algorithms on various datasets, lighting situations, and noise levels, such as CNN, LSTM, Transformer, and Fuzzy DL. The outcomes show that Fuzzy DL functions better than other systems, retaining 91.0% accuracy at high noise levels and reaching 97.5% accuracy under typical circumstances. In comparison to traditional structures, it also shows faster inference times and a lower mean squared error. Its superiority is further demonstrated by comparative analysis on precision, recall, and F1-score. This study presents a robust and noise-resilient solution for real-world HMI applications, including as assistive systems and virtual interfaces. The outcomes indicate that incorporating fuzzy logic with DL substantially enhances gesture recognition in difficult environments.
Automatic thresholding for segmentation in chest X-ray images based on green channel using mean and standard deviation International Journal of Innovative Technology and Exploring Engineering, 2019