Scanning Domains...

Research Areas

Eleven interconnected areas spanning security, healthcare, efficient deep learning, and multimodal AI — each grounded in reproduced foundational papers and applied projects.

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AI for Cyber Security

This area focuses on applying deep learning to network intrusion detection, malware classification, and phishing detection, with a strong emphasis on adversarial robustness — since security models face an adaptive adversary, not just a static test set.

NIDS Malware Detection Adversarial ML Anomaly Detection

AI for Healthcare

Work here targets diagnostic support systems — medical image classification, EHR-based risk prediction — designed to operate under strict privacy constraints and across heterogeneous hospital data distributions.

Medical Imaging EHR Modeling Differential Privacy Federated Diagnostics

Computer Vision

Core computer vision work: convolutional and transformer-based backbones, self-supervised representation learning, and their transfer to specialized domains like security and medical imaging.

CNNs ViT Self-Supervised Learning Transfer Learning

Machine Learning

General machine learning foundations underpinning all applied work: evaluation methodology, statistical rigor, feature engineering, and reproducibility tooling for experiments.

Evaluation Methodology Feature Engineering Reproducibility Experiment Tracking

Deep Learning

Deep dives into architecture design and optimization dynamics — from residual connections to attention mechanisms — grounded in hands-on reproduction of the papers that introduced them.

Optimization Architecture Design Regularization Training Dynamics

Federated Learning

Federated learning enables model training across hospitals, banks, or devices without centralizing raw data. My focus is on non-IID data handling, communication efficiency, and privacy guarantees under FedAvg-style aggregation.

FedAvg Non-IID Data Secure Aggregation Differential Privacy

Continual Learning

Continual learning studies how models can adapt to new attack patterns or disease cohorts over time without forgetting previously learned knowledge — critical for security systems and clinical models deployed for years.

Catastrophic Forgetting Elastic Weight Consolidation Rehearsal Methods Task-Incremental Learning

LLM

Practical work on adapting large language models efficiently — parameter-efficient fine-tuning, quantization, and evaluation of instruction-following behavior on domain-specific tasks.

LoRA Instruction Tuning Quantization RAG

Vision Language Model

Vision-language models bridge perception and language. My reproductions and projects here explore contrastive pretraining and its downstream transfer to zero-shot classification and retrieval.

Contrastive Pretraining Zero-Shot Transfer Multimodal Retrieval

Edge AI

Edge AI research focuses on getting models from notebook to device: quantization, pruning, and runtime selection for inference under tight latency, memory, and power constraints.

Quantization Pruning ONNX Runtime Latency Budgets

TinyML

TinyML pushes inference onto microcontroller-class hardware. I work on compressing intrusion-detection and anomaly-detection models to run within kilobytes of RAM on ARM Cortex-M devices.

Cortex-M Model Compression TensorFlow Lite Micro On-Device Inference