M.Sc. Researcher (Thesis Project)
Thesis: Architecting a Deep Learning-Based Digital Twin and Reinforcement Learning Control Pipeline for Wind Turbines.
🔗 View the Repository: github.com/itreza7/master-thesis
I designed and deployed an end-to-end, data-driven optimization framework for cyber-physical systems, graduating Rank 1 in my cohort. The core objective was to maintain a stable 5MW power output under highly stochastic environmental conditions without relying on computationally expensive physics simulations. To achieve this, I first developed a temporal forecasting module utilizing a BiLSTM network with a 2-hour sliding window to predict upcoming wind dynamics, validating its accuracy with rigorous RMSE and $R^2$ metrics.
To solve the computational bottlenecks of agent training, I constructed a dynamic surrogate environment—a localized Digital Twin. I used K-means++ clustering to divide the operational data into distinct regimes, training specialized Multi-Layer Perceptrons (MLPs) for each cluster to accurately simulate the physical turbine's power generation. Finally, I trained a Rainbow DQN reinforcement learning agent. To ensure the physical safety of the turbine's mechanical actuators, the agent utilized a continuous-to-discrete incremental action space ($\Delta \theta$) and a squared-error reward function to optimize blade pitch. The entire architecture was built with rigorous, industry-standard software engineering practices, bridging theoretical control methodologies with scalable, deployment-ready code.