Investigated quantization and bit-depth reduction for optimizing KNN and SVM on medical datasets, achieving reduced computational cost with minimal performance degradation.
Demonstrated that optimization success is highly context-dependent, influenced by dataset complexity, model architecture, and the specific transformation techniques applied.
Developed and evaluated KAN-based baseline, robust, and ensemble models to enhance indoor Wi-Fi positioning accuracy under adversarial attack conditions.
Adversarial training and ensemble strategies significantly reduced positioning error, demonstrating improved system resilience against spoofing and signal manipulation threats.
Proposed Hyb-KAN ViT, replacing MLPs with Efficient-KAN and CUDA-optimized Wavelet-KAN for interpretable, GPU-efficient spectral feature learning.
Achieved 84.5% ImageNet Top-1, 52.3 mIoU on ADE20K, and strong COCO detection—surpassing state-of-the-art with fewer parameters.
Proposed a hybrid KAN-GCN architecture with attention and composite loss, achieving 4.2–6.8% accuracy gain over baselines on CIFAR-10/100 and 5.7% boost on low-data ImageNet-1K.
Outperformed ResNet-152, ViT-B/16, and graph models with 1.8× faster inference and interpretable spline-based layers, enabling real-time, robust vision understanding via spatially-aware deep learning.
Applied U-Net for semantic segmentation of satellite imagery, achieving high-resolution landform detection with strong feature extraction and regularized training.
Demonstrated U-Net’s practical relevance in autonomous driving, disaster response, and land use planning through accurate pixel-wise topographical segmentation.
Introduced NaNs in cholesterol values of heart disease data, then used ANN with interpolation to predict missing values accurately.
Compared predicted vs. original values via visualizations, demonstrating ANN's effectiveness in medical data imputation and preserving feature relationships.
Developed a Res-GAN model integrating residual learning and GANs to detect subtle anomalies in Wi-Fi traffic with high precision.
Achieved robust anomaly detection, showing resilience to adversarial evasion, enabling scalable, real-time Wi-Fi security for wireless network infrastructures.
Designed an AI-based device to identify medicines using QR and camera, delivering usage info via multilingual audio and display.
Integrated weight sensors and an NLP system to alert on low stock and support safe medication in elderly and nursing care.