đź“‚ Project Portfolio
Engineering Intelligence Across Energy, Automation & AI
Short intro line:
I design control algorithms, optimization frameworks, and AI-driven tools that make complex systems predictable, efficient, and intelligent.
🔶 Project 01 — Microgrid Optimization & Intelligent Control
Challenge
Distributed energy systems must operate efficiently despite volatile demand, renewable fluctuations, and dynamic constraints.
Approach
- Designed Model Predictive Control (MPC) frameworks
- Implemented grey-box models for real-world accuracy
- Developed flexibility indicators, scenario-based optimization
- Integrated multi-timescale decision layers
Result
- More stable microgrid operation
- Scalable optimization workflows
- Methods validated in peer-reviewed publications (IEEE, IFAC, IET)
Skills Tags:
MPC · Optimization · Stochastic Control · Energy Systems · Python · Grey-box Models
🔶 Project 02 — Drone Automation & Control Education
Challenge
Make abstract control theory intuitive and practical for undergraduate engineers.
Approach
- Designed lab sessions & interactive demos
- Guided students through system identification, state-space modeling, feedback control
- Debugged real-time quadrotor behavior with students
Result
A highly successful learning experience that bridges theory with practice — students see control theory come to life.
Skills Tags:
Linear Control · State-Space Modeling · Teaching · MATLAB · Automation
🔶 Project 03 — Machine Learning for Energy Systems
Challenge
Energy systems require accurate predictions and anomaly detection to support automated control.
Approach
- Deep learning for time-series forecasting
- Clustering for pattern discovery
- Hybrid ML–control pipelines
- Anomaly detection using statistical models + ML
Result
Improved predictive accuracy and more resilient control behavior under uncertainty.
Skills Tags:
Deep Learning · Forecasting · Time-Series AI · Python · Hybrid Control
🔶 Project 04 — Modular Energy Hub Framework (Google Summer of Code)
Challenge
Energy hubs involve electricity, heat, cooling, storage, and conversion — modeling them requires modular, extensible tools.
Approach
- Developed Python-based models with Pyomo + Oemof
- Implemented component abstraction layers
- Integrated optimization routines
Result
Framework adopted by open-source energy modeling communities; enabled transparent, scalable system simulations.
Skills Tags:
Python · Pyomo · Simulation · Energy Hubs · Optimization
🔶 Project 05 — Thermodynamic Systems Engineering (Early Career)
Challenge
Evaluate energy performance of real systems—ventilation, refrigeration, and CO₂ cooling—under practical constraints.
Approach
- Modeled COâ‚‚ ice rink system behavior
- Conducted efficiency measurements for decentralized ventilation
- Analyzed thermodynamic and control interactions
Result
A strong engineering base that later shaped advanced modeling and control work.
Skills Tags:
Thermodynamics · Modeling · Field Data · Energy Engineering
🔶 Project 06 — Research Coordination & Data Stewardship
Challenge
Large research consortia require structured collaboration, transparent data management, and consistent quality.
Approach
- Built reproducible data systems
- Coordinated research workflows
- Managed academic–industry communication
- Organized knowledge-sharing events
Result
A well-functioning automation research ecosystem with improved collaboration and reproducibility.
Skills Tags:
Data Stewardship · Project Management · Cross-Institution Collaboration





