
My research interests lie in the application of deep learning and machine learning
techniques to biomedical signal analysis, with a particular focus on EEG-based diagnosis
of neurodegenerative disorders such as Alzheimer’s Disease (AD) and Frontotemporal
Dementia (FTD). I investigate how different signal representations—including time–frequency
transforms, functional connectivity measures, and minimally processed raw EEG—affect
the ability of compact convolutional neural networks to learn clinically meaningful
patterns. A central theme of my work is designing efficient and interpretable models
that can reliably distinguish between neurological conditions while maintaining methodological
rigor.
My research also emphasizes the importance of robust evaluation protocols, particularly
strict subject-wise validation, to ensure realistic estimates of model generalization
in clinical settings. In addition, I incorporate explainable AI techniques such as
Grad-CAM to better understand how deep learning models identify physiologically relevant
EEG features associated with cognitive decline. More broadly, my interests include
biomedical signal processing, representation learning, interpretable artificial intelligence,
and the development of reliable machine learning frameworks for healthcare applications.
1. Scoping the Landscape of Deep Learning for Alzheimer’s Disease Stage Classification: Methods, Challenges, and Opportunities
2. Analyzing Insider Cyber Threats and Human Factors within the Framework of Agriculture 5.0
3. Society 5.0 enabled agriculture: Drivers, enabling technologies, architectures, opportunities, and challenges
4. Predicting Long-Term Type 2 Diabetes with Artificial Intelligence (AI): A Scoping Review