Research

My current research spans data-driven forecasting for energy systems and a separate final-year project on electromagnetic information leakage. Renewable energy forecasting and power systems are my primary academic interests.

Current Research

Weather-Aware Multi-Site Forecasting of Renewable Energy Generation and Electrical Load Using Deep Learning

Accurate renewable-generation and load forecasting depends not only on model choice, but also on weather variability, seasonal effects, site-specific operating conditions, and the amount and structure of available data. This project investigates how forecasting performance changes across sites, seasons, weather conditions, operating regimes, and dataset sizes.

The study compares plant-specific and pooled models as well as transfer-learning strategies. Persistence benchmarks, XGBoost, recurrent neural networks, and selected deep-learning architectures are evaluated with particular attention to cross-site generalization, robustness, limited historical data at newly deployed sites, and changing weather or operating regimes. The broader goal is to better understand the data requirements and transferability of forecasting models for renewable generation and electrical load.

Supervised by Prof. Dipti Srinivasan.

AI-Based Display Information Reconstruction from Invisible Electromagnetic Leakage Signals

This project investigates unintended electromagnetic emissions from electronic display systems and methods for recovering visual information from measured EM signals. Current work includes understanding the signal-acquisition and processing pipeline, studying signal-to-image reconstruction methods, and comparing conventional and AI-based approaches to reconstruction.

Evaluation considers multiple levels of reconstruction quality: signal characteristics such as SNR and spectral components, image-level fidelity using measures such as PSNR and SSIM, and information-level recovery through OCR or character-recognition performance. The project is currently focused on establishing suitable reconstruction and evaluation methodologies rather than claiming a new reconstruction result.

Supervised by Dr. Zhenyu Zhao.