Fuel Cell Lab

Learning Module

Fuel Cell Training System

The Fuel Cell Training System is a fully integrated, modular, and scalable experimental setup designed to bridge the gap between fuel cell theory and practical application. Built for engineering institutes, research labs, and skill development centers, this lab platform allows users to explore everything from fundamental electrochemistry to advanced energy system integration. With a real PEM fuel cell stack at its core, and support components such as a charge controller, battery bank, inverter, and active load modules, the lab facilitates a wide range of experiments, from V-I curve plotting to hybrid system design. Whether you are a student learning fuel cell basics or a researcher developing advanced MPPT algorithms, the Fuel Cell Training System delivers both flexibility and depth.

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Learning Module

Fuel Cell Drive Train

The Fuel Cell Drive Train is a modular laboratory platform designed to simulate and study the complete electric drive train of a hydrogen fuel cell hybrid electric vehicle (FCEV). It provides a hands-on learning environment that demonstrates how hydrogen energy is converted into electric propulsion through coordinated interaction between power electronics, energy storage systems, and motor drives. This lab-scale system integrates a PEM fuel cell, bidirectional power converters, battery bank, ultracapacitor module, and a complete motor drive setup. The traction system consists of a Permanent Magnet Synchronous Motor (PMSM) mechanically coupled to a PMDC loading motor and resistive load bank, enabling controlled road condition and load profile simulation. The architecture closely mirrors a real vehicle electric drive train, allowing detailed study of component-level and system-level behavior.

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Why Choose the Fuel Cell Lab

  • End-to-end learning of hydrogen-to-electricity conversion: The Fuel Cell Lab gives students and researchers hands-on exposure to how fuel cells generate electricity from hydrogen, how stack performance varies with load, and how fuel cells integrate into power systems and electric drivetrains.
  • Two independent systems for flexible adoption: The Fuel Cell Training System and the Fuel Cell Drive Train are fully standalone products. Institutions can deploy just the training system for fundamentals or expand to the drive train for advanced automotive and mobility-related research.
  • Ideal for renewable energy, automotive, and power electronics programs: Fuel cells are central to emerging clean mobility and hydrogen applications. This lab helps engineering students understand real fuel cell behaviour, stack limitations, control requirements, and the power electronics involved in converting hydrogen energy into usable electrical power.
  • Hands-on characterization using real PEM fuel cell stacks: Students can perform controlled experiments on voltage-current characteristics, polarization curves, efficiency mapping, temperature influence, fuel utilization, and dynamic response under varying electrical loads.
  • Supports advanced research in fuel-cell-powered mobility: The Fuel Cell Drive Train system enables integration of the fuel cell with DC-DC converters, energy storage, and electric motors—allowing analysis of torque-speed characteristics, hybrid operation, and drive cycle behaviour using hydrogen power.
  • Modular, safe, and designed for education: Each system includes industrial safety features, hydrogen handling protection, and student-friendly interfaces. This makes the Fuel Cell Lab suitable for undergraduate teaching, professional training, and postgraduate research.

Real world impact across Campuses

Recent Installations

Empowering Education in Renewable Energy: Ecosense at MANIT Bhopal

Empowering Education in Renewable Energy: Ecosense at MANIT Bhopal

January 16, 2025

Ecosense proudly announces the successful installation of its cutting-edge Fuel Cell Training System at the prestigious Maulana Azad National Institute...
Ecosense Installs Fuel Cell Drive Train at WILP, BITS Hyderabad

Ecosense Installs Fuel Cell Drive Train at WILP, BITS Hyderabad

February 8, 2025

Ecosense proudly announces the successful installation of its Fuel Cell Drive Train System at the Work Integrated Learning Program (WILP),...
Empowering Education: Ecosense at Dayananda Sagar College of Engineering

Empowering Education: Ecosense at Dayananda Sagar College of Engineering

February 28, 2025

Ecosense proudly announces the successful installation of its state-of-the-art Fuel Cell Training System at the Department of Electrical and Electronics...

How the Ecosense Fuel Cell Lab Works

The Fuel Cell Lab consists of two independent systems, each designed to address a specific area of fuel cell education—fundamental fuel cell behaviour and fuel-cell-based vehicle drivetrain operation. Institutions may deploy either system independently or combine both for a comprehensive hydrogen and fuel cell learning experience.

1. Fuel Cell Training System: The Fuel Cell Training System is designed to teach the electrical characteristics and performance behaviour of PEM fuel cells. The system includes a fuel cell stack, controlled hydrogen supply interface, fuel cell controller, charge controller, inverter, load bank, and measurement panel that allow students to perform detailed characterization experiments.

Students begin by studying how a fuel cell converts hydrogen and oxygen into electricity and heat. They measure and analyse:

  • Voltage-current (V–I) characteristics
  • Polarization curves
  • Power output at different loads
  • Fuel utilization efficiency
  • Temperature effects on output performance
  • Stack response under transient loading


This hands-on work helps students understand real-world challenges such as voltage drop, stack heating, water management, and limitations of fuel cell efficiency. Using the load bank and monitoring tools, they can simulate practical operating conditions and observe how performance varies during steady-state and dynamic operation.The system also allows exploration of:

  • Constant current vs constant power modes
  • Effects of air flow and hydrogen flow rate
  • Stack degradation indicators
  • Electrical integration with DC loads or storage elements

 

Overall, the Fuel Cell Training System serves as the foundation of hydrogen energy education, preparing learners for advanced fuel cell applications.

2. Fuel Cell Drive Train: The Fuel Cell Drive Train system takes learning beyond characterization and introduces students to real fuel-cell-powered electric drive systems. This platform integrates a PEM fuel cell stack with a DC-DC converter, energy storage (battery or ultracapacitor), inverter, and electric motor—replicating the core architecture of fuel-cell electric vehicles (FCEVs).


Students can explore:

  • How fuel cells power electric motors
  • Role of DC-DC converters in voltage regulation
  • Hybrid operation with battery support
  • Torque-speed characteristics under fuel cell supply
  • Drive cycle simulations (Indian Drive Cycle)
  • Transient response under acceleration and deceleration
  • Power sharing between fuel cell and storage
  • Efficiency mapping of the drivetrain

The Drive Train system enables analysis of real automotive engineering concepts, such as:

  • Hybrid fuel cell–battery operation
  • Regenerative braking and energy recovery
  • Load-following vs power-following control strategies
  • Drive cycle optimization and hydrogen consumption modelling

Because the system uses real hardware and power electronics, students gain practical insight into fuel-cell vehicle operation, control algorithms, and system integration challenges.

This makes the Fuel Cell Drive Train ideal for:

  • Automotive engineering labs
  • Hydrogen mobility courses
  • Power-electronics and control research
  • Industry-oriented EV/FCEV training


Start Anywhere — Learn Everything

Both systems in the Fuel Cell Lab are independent and complete. Institutions can begin with the Fuel Cell Training System for fundamental understanding, or directly adopt the Fuel Cell Drive Train for advanced vehicle-level experiments. When combined, these systems create a full hydrogen-to-mobility learning ecosystem, covering everything from fuel cell basics to complete drivetrain behaviour.

 

Frequently Asked Questions

The Fuel Cell Lab consists of two independent systems: the Fuel Cell Training System, designed for understanding the electrical characteristics of PEM fuel cells, and the Fuel Cell Drive Train, which demonstrates how a fuel cell integrates with converters, storage, and motors to power an electric drivetrain.

Students can study V–I characteristics, polarization curves, power output, fuel utilization, temperature influence, and dynamic response of the fuel cell stack. The system allows detailed electrical characterization to help learners understand stack efficiency, operational limitations, and real-world fuel cell behavior under different loads.

Yes. The Fuel Cell Drive Train provides access to editable control code and power electronics, enabling students and researchers to implement custom control logic, test MPPT algorithms, experiment with hybrid power-sharing strategies, and validate new drivetrain control approaches.

Absolutely. Both systems include hydrogen safety mechanisms such as leak detection, automatic shut-off, pressure regulation, purging systems, and flame-proof components. The equipment is designed specifically for academic environments and student handling.

The lab uses PEM (Proton Exchange Membrane) fuel cells, the most widely adopted technology for education, research, and mobility applications. PEM fuel cells offer fast start-up, low operating temperature, and excellent compatibility with electric drive systems.

Ecosense serves educational institutions, research centers, and training organizations worldwide. Our lab solutions are deployed across Asia, the Middle East (UAE, Saudi Arabia and Oman), Europe, Africa, and the Americas, supporting universities, polytechnics, and R&D facilities.

Yes. Ecosense offers international installation support, faculty training, and technical assistance through a combination of on-site visits, remote commissioning, and virtual training sessions. Long-term support is provided via digital manuals, online troubleshooting, and scheduled technical reviews.

Absolutely. All Ecosense lab solutions can be customized to meet country-specific academic curricula, electrical standards, safety regulations, voltage/frequency norms, and certification requirements. Customization also extends to documentation, experiments, and software interfaces.