Research

🔬 Research Vision

My research focuses on advancing electrochemical energy systems that enable the large-scale production of sustainable fuels. As global energy systems transition toward low-carbon solutions, hydrogen and Power-to-X technologies are becoming central to decarbonizing hard-to-abate sectors.

I am particularly interested in improving the technical performance, operational flexibility, and economic viability of water electrolysis systems through integrated modeling, control, and system-level analysis.

My goal is to contribute to the development of energy technologies that are not only technically efficient but also commercially scalable.

⚡ Electrochemical Hydrogen Systems

A major component of my work centers on alkaline water electrolysis, with an emphasis on understanding system behavior under both ambient and pressurized operating conditions.

During my master’s research, I analyzed the integration of alkaline electrolyzers within Power-to-Methanol pathways, evaluating how design and operating parameters influence hydrogen production cost and overall process efficiency.

My ongoing interests include:

• Performance optimization of electrolyzer systems
• Pressurized hydrogen production
• Dynamic operation under renewable energy fluctuations
• System efficiency improvements

📊 Techno-Economic Analysis & System Evaluation

For sustainable technologies to achieve industrial adoption, technical innovation must be accompanied by economic feasibility.

My work applies techno-economic assessment methods to quantify cost drivers, identify optimization opportunities, and support data-informed decision-making in energy system design.

I am especially interested in approaches that connect process simulation with economic modeling to evaluate real-world deployment potential.

Key focus areas include:

• Hydrogen production cost modeling
• CAPEX/OPEX sensitivity analysis
• Scale-up considerations
• Integration within Power-to-X infrastructure

⚙️ Process Modeling, Control & Optimization

Efficient operation of electrochemical systems requires intelligent control strategies capable of handling variability in renewable power supply.

I work with advanced process modeling environments to develop and implement control approaches that enhance operational stability while improving system responsiveness and efficiency.

This includes:

• Dynamic process modeling
• Advanced control strategies
• Flexible plant operation
• System-level optimization

🚀 Research Direction

Looking ahead, I aim to deepen my work at the intersection of electrochemistry, process systems engineering, and energy infrastructure.

My long-term research interests include:

• Industrial-scale hydrogen systems
• Integrated renewable energy processes
• Smart operation of Power-to-X plants
• Bridging academic research with industrial deployment

I am always open to research collaborations and academic partnerships in the field of sustainable energy systems.