Advancing Hydrogen Research Through Membrane-Free Electrolysis
Innovating scalable, efficient, and affordable hydrogen generation systems from lab-scale proof to real-world deployment.
Innovative Technology
Cost Effective
Modular & Scalable
"Towards a Sustainable Future with Green Hydrogen"
Green hydrogen is emerging as a cornerstone of the clean energy transition, offering a sustainable pathway to decarbonize energy-intensive industries and enhance energy security. India’s 'National Green Hydrogen Mission' envisions establishing the country as a global hub for hydrogen production, innovation, and export - accelerating progress toward a low-carbon and self-reliant energy future.
Building on this vision, our work focuses on technology optimization and process innovation to address one of the most critical challenges in the hydrogen value chain - 'the high cost of electrolysis'. By improving efficiency and simplifying system design, we aim to make hydrogen generation more affordable and scalable over time, contributing to the global effort toward sustainable goals in clean energy access, industrial innovation, and climate resilience.
What We Offer
Redefining Electrolysis for Scalable Hydrogen Generation
Conventional electrolysers rely on costly membranes and complex purification systems, limiting large-scale hydrogen production. Our approach introduces a simplified, membrane-free electrochemical design that reduces system complexity, lowers material costs, and enhances efficiency through integrated fluid-dynamic and electrochemical optimization.
Design Benefits
Designed for adaptability and long-term reliability, the system enables operation with alternative water sources and renewable energy integration, creating a cost-effective and scalable pathway for sustainable hydrogen generation.
From Laboratory Innovation to Scalable Validation
Our R&D program focuses on translating early electrochemical concepts into practical, scalable solutions for hydrogen generation. Through systematic experimentation, simulation, and prototyping, we evaluate material performance, flow dynamics, and energy efficiency to optimize every stage of the process.
The work currently spans Technology Readiness Levels (TRL) 3–4, with ongoing efforts directed toward pilot-scale integration (TRL 6–7) through strategic collaborations and institutional support. This iterative approach ensures that each design advancement is data-driven, experimentally validated, and technically scalable, paving the way for real-world application.