Learning sequence
Decide which steps students should observe or measure, from PV input to fuel-cell output.
Solar Hydrogen Education · Complete Energy Cycle
Solar-to-Hydrogen Demonstration Kit for STEM & Technical Training
A compact teaching platform that demonstrates the complete solar → electricity → hydrogen → fuel-cell power cycle through visible modules, real-time measurements and hands-on experiments for schools, universities and technical training centers.
Designed for supervised renewable-energy, electrochemistry and hydrogen-technology education.
PV Module
12 W
PEM Electrolyzer
40 mL/min H₂
Fuel Cell
<1 W
System Size
750 × 420 × 330 mm
Energy Conversion Process
Complete Solar-to-Hydrogen-to-Power Learning Loop
The system allows students to observe how solar energy is converted into electricity, used to produce hydrogen through PEM water electrolysis, and then converted back into electrical power through a fuel cell.
Solar Energy
Light reaches the photovoltaic module.
PV Electricity
The solar panel converts light into DC electrical power.
PEM Water Electrolysis
Electrical power drives the PEM electrolyzer to split water into hydrogen and oxygen.
Hydrogen Collection
Generated hydrogen is separated and collected for the next stage of the experiment.
Fuel Cell Power Generation
Hydrogen is supplied to the PEM fuel cell and converted back into electricity.
Load Demonstration
The fuel-cell output powers the built-in load, completing the solar → hydrogen → electricity cycle.
Configuration review
Plan the Solar-to-Hydrogen Teaching Loop
Start with the application, required measurements and operating boundary. A model label alone does not establish which modules, interfaces or records are included.
Light and electrical input
Confirm whether experiments use sunlight, a simulator or controlled electrical input and how readings are taken.
Hydrogen handling
Define storage, gas connections, ventilation, supervision and permitted demonstrations.
Classroom package
Agree manuals, experiment worksheets, instruments, consumables and replacement components.
System Modules
Core Modules of the Solar Hydrogen Demo Kit
The platform integrates solar power generation, PEM water electrolysis, gas and water management, fuel-cell power generation and electrical measurement into one compact teaching system.
Photovoltaic Power Generation
12 W · 5 V · 2.4 A
The monocrystalline photovoltaic module converts light into DC power and allows learners to observe changes in voltage, current and system behavior under different light conditions.
Monocrystalline PV · ≥20% Efficiency
PEM Water Electrolysis
40 mL/min H₂ · 3 V · 6 A
The PEM electrolyzer converts electrical energy into hydrogen and oxygen, allowing students to observe water electrolysis and gas generation directly.
Gas-Liquid Separation & Water Management
Visible Flow · Water Separation · Recirculation
The integrated gas-liquid separation and water-management section allows learners to observe gas generation, water separation and circulation during electrolysis.
PEM Fuel Cell Power Generation
<1 W · 0.9 V · 1 A
Collected hydrogen is supplied to the PEM fuel cell and converted back into electrical power, demonstrating hydrogen utilization as an energy-storage medium.
Electrical Load Demonstration
0.019 W · 1 V · 18.9 mA
The fuel-cell output powers the built-in demonstration load, providing a visible example of hydrogen energy being converted into useful electrical and mechanical output.
Measurement & Visualization
Voltage · Current · Hydrogen Production · System Response
Integrated displays support real-time observation of electrical parameters during photovoltaic generation, electrolysis and fuel-cell operation.
Technical Data
Solar Hydrogen Demo Kit Technical Specifications
| Module | Parameter | Specification |
|---|---|---|
| Photovoltaic Panel | Total Power | 12 W |
| Rated Voltage | 5 V | |
| Rated Current | 2.4 A | |
| PEM Electrolyzer | Rated Hydrogen Production | 40 mL/min |
| Power Supply Voltage | 3 V | |
| Rated Current | 6 A | |
| Fuel Cell | Rated Power | <1 W |
| Rated Voltage | 0.9 V | |
| Rated Current | 1 A | |
| Load | Power | 0.019 W |
| Rated Voltage | 1 V | |
| Rated Current | 18.9 mA | |
| Complete System | Dimensions | 750 × 420 × 330 mm |
| Weight | 6.2 kg |
Reference values apply to the demonstrated configuration. Final module specifications, accessories and teaching scope should be confirmed against the selected supply configuration before order release.
Hands-On Experiments
Experiments Students Can Perform
01
Solar Irradiance vs. Electrical Output
Observe how changes in light intensity affect photovoltaic voltage, current and available electrical power.
Learning Objective
Understand PV performance under variable conditions.
02
Electrical Input vs. Hydrogen Production
Compare electrolyzer operating conditions with hydrogen-generation behavior to understand the relationship between electrical input and hydrogen production.
Learning Objective
Analyze electrolysis efficiency and gas output.
03
Gas Generation & Separation
Observe hydrogen and oxygen generation, gas flow and gas-liquid separation during PEM water electrolysis.
Learning Objective
Visualize PEM cell operation and fluid dynamics.
04
Fuel Cell Load Response
Feed collected hydrogen into the fuel cell and observe how the electrical output changes when driving the demonstration load.
Learning Objective
Understand fuel cell power delivery and mechanical output.
05
Solar-to-Hydrogen Energy Conversion
Compare electrical input, hydrogen production and fuel-cell output to discuss energy conversion across the complete renewable-energy cycle.
Learning Objective
Evaluate energy conversion losses and efficiency.
06
System Response to Changing Light Conditions
Vary the light input and observe how photovoltaic output, hydrogen generation and downstream system behavior respond.
Learning Objective
Study dynamic system behavior under variable inputs.
Discussion Topics:
Renewable Energy Integration
Hydrogen Storage
Electrochemistry
Energy Conversion Losses
Fuel Cell Utilization
Training Configuration
How to Select the Right Solar Hydrogen Training System
The right configuration depends on the teaching level, class size, experiment goals, measurement requirements and learning environment. Review these factors before confirming the final teaching package.
Institution & Education Level
School · University · Technical College · Training Center
Define the education level and teaching context so the experiment scope and supporting materials can be matched appropriately.
Class Size
Demonstration · Small Group · Laboratory Class
Confirm whether the system will be used for instructor demonstration, small-group experiments or repeated laboratory-class use.
Teaching Goals
Solar · Electrolysis · Hydrogen · Fuel Cell · Energy Efficiency
Identify which parts of the renewable-energy cycle should be emphasized in the course or training program.
Learning Environment
Indoor · Outdoor · Controlled Light Source
Confirm where the system will be used and whether natural sunlight or a controlled light source will be used for photovoltaic experiments.
Measurement & Data
Voltage · Current · Hydrogen Output · Data Logging
Define which parameters students need to observe, record or analyze during the experiments. *Data logging to be confirmed by application review.
Teaching Package
Manual · Experiment Guide · Language · Training Support
Confirm the required documentation language, experiment materials and instructor-support requirements before quotation.
Safety & Teaching Support
Designed for Supervised Hydrogen Education
The demonstration system is intended for supervised educational use. Hydrogen generation, gas handling, ventilation, operating procedures and classroom supervision should be managed according to the supplied instructions and applicable laboratory requirements.
Low-Voltage Demonstration
The platform uses low-voltage electrical modules suitable for controlled teaching demonstrations.
Visible Gas & Water Paths
Transparent piping allows instructors and learners to observe gas generation, gas-liquid separation and system flow.
Controlled Hydrogen Generation
Hydrogen is generated at demonstration scale for supervised educational experiments.
Ventilation & Ignition Control
Operate the system in an appropriately ventilated area and keep hydrogen away from ignition sources.
Instructor Supervision
Hydrogen generation and fuel-cell experiments should be performed under appropriate instructor or laboratory supervision.
Teaching & Operating Documents
Available teaching and operating materials should be confirmed according to the selected supply package.
Safety Note: Hydrogen handling procedures, ventilation, storage limits and operating supervision should be confirmed before use in the intended classroom or laboratory environment.
Education & Training
Recommended Applications
University Engineering Programs
Renewable Energy · Electrochemistry · Hydrogen Engineering
Hands-on demonstration of renewable electricity, PEM electrolysis and fuel-cell energy conversion for university engineering education.
Vocational & Technical Colleges
Practical Training · Energy Systems · Technical Education
A compact training platform for practical instruction in photovoltaic generation, hydrogen production and fuel-cell operation.
Renewable Energy Training Centers
Solar · Hydrogen · Energy Storage
Supports professional and technical training programs covering renewable-energy conversion and hydrogen utilization.
Hydrogen Technology Courses
PEM Electrolysis · Fuel Cells · Hydrogen Utilization
Demonstrates key concepts in hydrogen production, electrochemistry and hydrogen-to-power conversion.
STEM & Science Education
Energy Conversion · Sustainability · Applied Science
A visual teaching platform for structured STEM programs requiring practical renewable-energy experiments.
Product Boundary
Need a Different Hydrogen Training Platform?
This product is an educational solar-hydrogen demonstration system. It is not an industrial hydrogen-production system, hydrogen vehicle system or consumer science toy.
Inside HELE
Inside Our Manufacturing & Quality System
The kit should be checked as a complete teaching loop rather than as separate modules only. Before release, the approved PV, electrolyzer, storage, fuel-cell and load connections should be functionally checked, and the supplied instructions should state the operating and safety limits.
Approved configuration
Check the module list, connections and instruments against the order drawing.
Functional evidence
Define the test conditions, records and documents required for release.
FAQ
Solar Hydrogen Demo Kit FAQs
Common questions about the system's capabilities, educational use, and ordering requirements.
What does the Solar Hydrogen Demo Kit demonstrate?
The system demonstrates the complete solar-to-hydrogen-to-electricity cycle, including photovoltaic power generation, PEM water electrolysis, hydrogen collection, fuel-cell power generation and load operation.
Who is the system designed for?
It is designed for supervised use in universities, vocational colleges, renewable-energy training centers, STEM programs and compatible teaching or research laboratories.
What experiments can students perform?
Students can study photovoltaic output, PEM electrolysis, hydrogen generation, gas-liquid separation, fuel-cell output, load response and the relationship between light input and energy-conversion performance.
What measurements can students observe?
The system supports observation of key electrical parameters such as voltage and current during photovoltaic generation, electrolysis and fuel-cell operation.
How is hydrogen handled during demonstrations?
Hydrogen is generated at demonstration scale and routed through the system for collection and fuel-cell use. Final operating procedures, ventilation, hydrogen-handling limits and supervision requirements should follow the supplied instructions and local laboratory rules.
What information is needed for a quotation?
Please provide the institution type, student or training level, class size, experiment goals, indoor or outdoor use, measurement or data requirements, documentation language, quantity, destination and required delivery schedule.
Inquiry
Request a Solar Hydrogen Demo Kit Review
Tell us how the kit will be used: classroom demonstration, laboratory experiment or technical training. HELE can review the PV, PEM electrolysis, storage and fuel-cell modules together with the measurement and supervision requirements.
- ✓ Learner level and experiment list
- ✓ PV or laboratory light conditions
- ✓ Hydrogen storage and laboratory safety
- ✓ Teaching materials, instruments and spares
Prefer email?
sales@heletitanium.comFactory & Engineering Center
Titanium Valley, Baoji City, Shaanxi Province, China