Hydrogen Fuel Cell Power
Generation Demonstration
System
A hands-on hydrogen fuel cell teaching platform that demonstrates hydrogen storage, PEM fuel cell power generation, smart control, real-time monitoring, and load simulation in one visible system. Designed for universities, vocational institutions, and training laboratories, it helps students understand the complete hydrogen-to-electricity process through classroom demonstrations and practical experiments.
Hands-On Platform for Renewable Energy and Hydrogen Technology Education
The Hydrogen Fuel Cell Power Generation Demonstration System helps students understand the complete hydrogen-to-electricity process, from hydrogen storage and supply to PEM fuel cell power generation, monitoring, and real load operation. It integrates solid-state hydrogen storage, smart control, digital measurement, lithium battery support, and load simulation in one visible teaching platform for renewable energy and engineering education.
Complete Hydrogen-to-Power Demonstration
Shows the process from hydrogen storage and gas supply to PEM fuel cell power generation and load use.
Visual Teaching Layout
The open panel design, flow diagram, transparent components, and labeled modules make the process easier to observe.
Real-Time Data Monitoring
Voltage, current, power, stack temperature, pressure, and battery status can be monitored through the display interface.
Built for Teaching and Experiments
Supports classroom demonstrations, modular experiments, efficiency calculation, and student lab reports.
How the Demonstration System Works
The system is designed to visually demonstrate the complete hydrogen energy conversion process from storage to electricity output.
Hydrogen Storage
Solid-state hydrogen storage cylinder stores hydrogen using metal hydride technology.
Supply & Regulation
Needle valve, solenoid valve, pressure sensor, pressure regulation, and T-type filter help control and protect hydrogen supply.
PEM Power Generation
The 200W PEM fuel cell stack converts hydrogen and air into electrical power.
Power Management
Fuel cell control unit, lithium battery system, DC-DC converter, and voltage regulation support stable output.
Load & Monitoring
Fan load, digital meters, PLC control, and MCGS touchscreen display real-time operating data.
Core Modules & Features
The demonstration system integrates hydrogen supply, PEM fuel cell generation, power management, load simulation, and intelligent monitoring into one educational platform.
Hydrogen Supply & Safety Module
- Solid-state hydrogen cylinder stores more than 22 g hydrogen, approximately 246 L.
- Metal hydride storage operates at less than 1.6 MPa pressure.
- Includes solenoid valves, regulators, pressure sensors, and overpressure protection.
- T-type filter helps remove particulates and impurities from hydrogen gas before entering the fuel cell.
Fuel Cell Power Generation Unit
- 200W PEM fuel cell stack converts hydrogen and air into electricity.
- Rated output: 200W @ 19.8V, 10.2A.
- Fuel cell efficiency: ≥45%.
- Supports experiments on hydrogen flow rate, load change, and power output.
Power Management & Load Simulation
- Fuel Cell Control Unit manages start / stop, overcurrent, hydrogen pressure, temperature, and system performance.
- Lithium battery system supports fuel cell startup and dynamic power compensation.
- DC-DC converter supports stable 12V / 24V DC output.
- Load fan simulates real-world power use for classroom demonstration. Digital meters display voltage/current.
Intelligent Monitoring & User Interface
- Siemens SMART PLC automates operation and supports safety shutdown logic.
- MCGS touchscreen displays real-time voltage, current, power, stack temperature, pressure, and lithium battery status.
- Data can support lab reports, classroom explanation, and research analysis.
- Integrated panel design includes flow diagrams and instructional labels for guided learning.
Technical Specifications
The following parameters help schools, laboratories, and training centers evaluate whether the demonstration system matches their teaching, experiment, and laboratory setup requirements.
| Component / Parameter | Specification |
|---|---|
| Hydrogen Storage Tank | Ø60 mm × 258 mm, >22 g H₂, <1.6 MPa |
| Hydrogen Storage Method | Solid-state hydrogen storage using metal hydride technology |
| Hydrogen Storage Capacity | > 22 g H₂, approximately 246 L |
| Hydrogen Output Rate | > 4 L/min |
| Fuel Cell Rated Power | 200W @ 19.8V, 10.2A |
| Fuel Cell Type | PEM fuel cell stack |
| Fuel Cell Efficiency | ≥45% |
| Hydrogen Purity Requirement | ≥99.99%, CO ≤ 1 ppm |
| Stack Weight | 1.43 kg |
| Hydrogen Usage | Theoretical 2.89 L/min @ rated power |
| Air Consumption | 114.6 L/min |
| DC Output | Stable 12V / 24V DC output for demonstration and external equipment use |
| Control System | Siemens SMART PLC |
| Display Interface | MCGS touchscreen display |
| Power Management | Fuel cell control unit, lithium battery system, DC-DC converter, digital meters, and load fan |
| Safety Functions | Low-pressure hydrogen storage, PLC-controlled shutdown, overpressure protection, and emergency exhaust valve |
| Standard Reference | GB/T 24548-2021 fuel cell safety standard |
Why This System Works Well for Teaching and Training
The system is designed not only to show hydrogen fuel cell power generation, but also to help students observe, measure, calculate, and understand each key step in the hydrogen energy conversion process.
Classroom-Friendly Design
The visual flow layout, transparent structure, and labeled panel help students understand hydrogen supply, fuel cell power generation, monitoring, and load use during classroom demonstrations.
Students can observe system flow, identify key components, and connect theory with real operating modules.
Modular Experiment Support
The system supports practical experiments such as hydrogen purity influence, flow rate vs. power output, load change response, voltage and current tracking, and hydrogen-to-electricity efficiency calculation.
Teachers can build lab activities around real-time voltage, current, pressure, temperature, and power data.
Safe & Practical Platform
Low-pressure solid-state hydrogen storage, PLC control, overpressure protection, and emergency exhaust support safer classroom demonstration compared with high-pressure hydrogen storage.
Students can learn fuel cell technology, hydrogen storage, smart control, and safety logic in one integrated platform.
Real-Time Display and Monitoring Interface
The MCGS touchscreen display helps users monitor system operation in real time. It supports teaching demonstrations, lab data recording, alarm review, and performance analysis.
Recommended Applications
This demonstration system is suitable for teaching, laboratory experiments, and entry-level research related to hydrogen energy, PEM fuel cells, electrochemistry, automation, and renewable energy systems.
Physics & Chemistry Courses
Used for explaining electrochemical reaction principles, hydrogen-to-electricity conversion, gas purity effects, voltage response, and energy efficiency calculation.
Energy & Automation Engineering
Used for teaching PEM fuel cell systems, smart control, power management, DC output, system monitoring, and renewable energy integration.
Research & Innovation
Used for fuel cell performance testing, hydrogen material research, microgrid simulation, load response observation, and renewable energy project demonstration.
Included Educational Resources
The system can be supplied with teaching resources to help instructors explain fuel cell principles, system operation, and experiment design.
Instructor’s Manual
- Safety guidelines
- Hydrogen-to-power formulas
- Operating guidance
- Teaching experiment support
Fuel Cell Materials
- 3D animations of principles
- Demo guidance for storage to power
- Teaching support for electrochemistry
Add-ons & Warranty
- Optional add-ons according to teaching needs
- Warranty support for key components (fuel cell stack, H2 module) according to agreed terms
Built-In Safety Design for Classroom Demonstration
Because hydrogen education requires careful control and monitoring, this demonstration system integrates multiple safety-related features for teaching and laboratory use.
Low-Pressure Storage
Solid-state hydrogen storage operates at less than 1.6 MPa, helping reduce the risks associated with high-pressure storage.
PLC Safety Logic
Siemens SMART PLC supports automated operation and safety shutdown logic when abnormal conditions are detected.
Pressure & Flow Control
Regulators, solenoid valves, pressure sensors, and overpressure protection help manage hydrogen supply.
Emergency Exhaust
Emergency exhaust function supports safer handling during abnormal or emergency situations.
Filtration Protection
T-type filter helps protect the fuel cell by removing particulates and impurities from hydrogen gas.
Standard Reference
System safety design references GB/T 24548-2021 fuel cell safety standards according to classroom operation requirements.
What to Confirm Before Ordering
To recommend the most suitable configuration, please confirm your teaching environment, laboratory setup, power requirements, language needs, and documentation requirements.
Hydrogen Fuel Cell Demonstration System FAQ
What is the Hydrogen Fuel Cell Power Generation Demonstration System used for?
Who is this system suitable for?
What is the rated power of the fuel cell stack?
What hydrogen storage method does the system use?
What data can be monitored on the display?
Can the system support laboratory experiments?
What safety features are included?
Can teaching materials be provided?
Can the system be customized?
What information should I provide for a quotation?
Request Details for the Hydrogen Fuel Cell Power Generation Demonstration System
Tell us your teaching application, institution type, required quantity, destination country, power supply condition, documentation needs, and optional add-on requirements. Hele Titanium will help provide suitable product details and quotation support.
Contact Information
sales@heletitanium.com
Room 1206, Building 1, Huaxia Yue World
