Miller Stanford ECoG dataset · High-gamma power extraction · Single-trial classification
Central question: Whether discriminative neural signatures could reliably separate distinct motor tasks at the level of individual trials.
Methodology: We analysed neural activity across seven Brodmann areas (BA 2, 3, 4, 6, 9, 43, 45) known to be involved in sensorimotor and prefrontal processing. We extracted high-gamma band power features (70-200 Hz) using Welch's spectral estimation method, then applied PCA to reduce dimensionality before attempting single-trial classification.
Key finding
High-gamma power in Brodmann areas 4 and 6 (primary and premotor cortex) showed the strongest discriminative signal across motor tasks, consistent with their established roles in movement planning and execution. PCA-based reduction preserved sufficient variance for above-chance single-trial classification, suggesting these spectral features carry task-relevant information even without trial averaging.
Innovations in Healthcare Technology and Management · Bentham Books
Core contribution
A RAG-augmented LLM system that classifies menstrual cycle phases and generates personalised diet and exercise plans tailored to each phase's physiological profile, addressing a gap in healthcare technology where generic advice ignores intra-cycle phase variation.
Developed a FastAPI-based recommendation pipeline that uses large language models with RAG to deliver phase-specific health guidance for women. The system classifies cycle phases from user inputs and retrieves evidence-backed recommendations, improving query resolution efficiency over a baseline generative approach.
My contribution
Designed the RAG pipeline, implemented the LLM integration via the Gemini API, built the FastAPI backend, and conducted the evaluation of recommendation quality across cycle phases.
2025 2nd International Conference on Recent Trends in Electrical, Electronics and Computing Technologies (ICRTEECT) · Conference Paper
Core contribution
This work proposes and evaluates a webtoon-style manga generation pipeline that integrates Magi layout with Anime Detailer XL LoRA and multi-modal image generation models to automate narrative and artistic synthesis
The paper investigates GANs, CNNs, diffusion models, and multi-modal large language models for AI-driven manga and webtoon creation
My contribution
Model selection and evaluation for manga and webtoon generation, and contributed substantially to the research design, literature review, and experimental analysis in the paper.
Paper DOI:10.1109/icrteect67512.2025.11448686
I'm drawn to the question of how the brain encodes and transforms information — particularly in motor and language-related cortical areas. I want to understand how models of neural activity can be grounded in the biology, not just the statistics.
Medicine generates data that is messy, imbalanced, and high-stakes, exactly the conditions where thoughtful ML design matters most. I'm interested in how we build models that are not just accurate but interpretable enough to be trusted clinically.
BCIs sit at the convergence of everything I find compelling: neural signal processing, real-time ML, and direct clinical impact for people with motor disabilities.