Learning objectives
Select the electrolysis, measurement and storage experiments learners must perform.
An integrated teaching platform that makes PEM water electrolysis, hydrogen and oxygen production, process visualization and solid-state hydrogen storage accessible for structured laboratory experiments.
Configuration Note: The published values apply to the reference teaching configuration. Confirm the curriculum, student level, storage scope, laboratory utilities, local safety requirements, training and document language before ordering.
The platform presents hydrogen production and storage as an observable laboratory process: water is supplied to a PEM electrolyzer, hydrogen and oxygen are generated, gas and water paths are demonstrated, operating information can be observed where included, and hydrogen is transferred to the solid-state storage module according to the approved teaching procedure.
Water Supply · 9 V · 25 A
500 mL/min H₂ · 250 mL/min O₂
Visible Process · Separation · Defined Gas Path
>22 g H₂ · Filling & Controlled Discharge
Configuration review
Start with the application, required measurements and operating boundary. A model label alone does not establish which modules, interfaces or records are included.
Select the electrolysis, measurement and storage experiments learners must perform.
Specify storage type and capacity, operating limit and whether the supplied set includes all connections.
Confirm supervision, ventilation, electrical supply, water quality and safe venting.
Agree instructions, data displays, spare parts, functional checks and any training required.
| Module / Parameter | Specification |
|---|---|
| PEM Electrolyzer | |
| Hydrogen Production Rate | 500 mL/min |
| Oxygen Production Rate | 250 mL/min |
| Power Supply Voltage | 9 V |
| Power Supply Current | 25 A |
| Dimensions without lugs/connectors | 94 × 39 × 106 mm |
| Dimensions with lugs/connectors | 109 × 58 × 106 mm |
| Solid-State Hydrogen Storage | |
| Cylinder Diameter | 60 mm |
| Cylinder Height | 258 mm |
| Weight | 1.5 kg |
| Hydrogen Storage Capacity | >22 g H₂ |
| Hydrogen Filling Pressure | 1.0 MPa |
| Continuous Hydrogen Discharge Pressure | 0.6 MPa |
| Hydrogen Discharge Rate | >4 L/min |
| Demonstration System | |
| Dimensions excluding bracket | 1200 × 700 × 311 mm |
| Weight excluding bracket | 18 kg |
| Weight including bracket | 28 kg |
Technical Note: The values above represent the shown education configuration. Hydrogen production, storage behavior and discharge performance depend on the supplied modules and operating conditions and should not be presented as industrial hydrogen-production capacity.
Observe direct water splitting without alkaline solutions.
Measure output volumes and observe gas paths.
Analyze energy conversion and faradaic efficiency.
Demonstrate solid-state storage filling and pressure behavior.
Observe release characteristics for downstream applications.
Track operating parameters and system response.
Note: Final experiment steps, measurement channels and teaching materials depend on the ordered configuration and instructor manual.
Define the primary department (e.g., Chemistry, Energy Engineering) and course syllabus.
Determine if the system is for instructor demonstration or hands-on student lab groups.
Identify required focus areas: electrolysis principles, storage behavior, or automation/control.
Specify required data channels (voltage, current, flow, pressure) for laboratory reports.
Confirm available power supply (110V/220V), ventilation, and pure water availability.
Review needs for manuals, presentation materials, and language requirements.
This is an education-scale electrolysis and hydrogen-storage demonstration system. It is not an industrial hydrogen generator, production electrolyzer plant or unattended hydrogen appliance.
Acceptance should confirm the actual module configuration, water and gas paths, electrical functions, storage interfaces and agreed teaching functions against the approved supply scope.
Inside HELE
A teaching system should be released against its actual module list and operating limits. Assembly checks should cover the water path, electrical connections, gas lines, storage interface, displays and shutdown functions, with the agreed manuals and functional-test records supplied for supervised use.
Check the module list, connections and instruments against the order drawing.
Define the test conditions, records and documents required for release.

Inquiry
Share the intended course, student level and experiments. HELE can review the PEM electrolysis and storage modules as one teaching system, including the hydrogen-handling boundary and the instructions required for supervised operation.
Prefer email?
sales@heletitanium.comFactory & Engineering Center
Titanium Valley, Baoji City, Shaanxi Province, China