No products in the cart.
Hydrogen is more than a buzzword—it’s a necessity for a cleaner future. I put one of the first pillars that hold the future of green energy, creating an efficient and scalable prototype for Proton exchange membrane based hydrogen fuel cell system. This innovation catered to the growing demand for mobile renewable energy solutions.
Task
Develop and optimize a functional PEM hydrogen fuel cell prototype that achieves high performance and low production costs.
I played a key role in shaping the foundation of a scalable PEM fuel cell system, ensuring high efficiency while keeping manufacturing constraints in check. My work on bipolar plate topology optimization helped reduce material waste and improve durability, while CFD simulations enhanced hydrogen flow dynamics, ensuring maximum energy output.
Beyond design, I coordinated supplier collaboration, streamlined material procurement, and overlooked prototype testing, ensuring a feasible, industry-ready approach
Turn research into a real, working fuel cell system.
These were the main challenges:
Fuel cell with optimized bipolar plate design.
Through CFD-driven topology optimization.
By aligning design with supplier capabilities.
Securing 2 key supplier partnerships for future scaling
“The efficiency gains from the optimized design exceeded expectations. This is a solid step toward practical hydrogen fuel solutions.”
— R&D Project Lead
– Supplier Collaboration
– Technical Specification
– Experimental Testing
– Cost & Material Optimization
– CFD Analysis
– Topology Optimization
– Manufacturing Constraints
– H2FC System Architecture
– Cross-Functional Teamwork
– Stakeholder & Research Coordination
– Project Quoting & Budgeting
– Documentation & Reporting
– H2 Fuel Cell Mechanics
– CFD Simulations
– Materials Science
– Systems Engineering