Highly integrated
Four in one integrated design; Space savings of over 50%; Modular pipeline layout; System compactness improvement
HIE Hydrogen Integrated Equipment
Modular design and integrated delivery
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It has formed standardized equipment that allows product selection and configuration based on customer needs, ready for use after integration
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specifications 500Nm³ /h The hydrogen production system below and below can achieve modular installation of containers
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specifications 200Nm³ /h The hydrogen production system below and below can be installed, debugged, and produce gas within 24 hours of equipment arrival
Application Scenarios
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Ideal for distributed energy systems in remote areas and islands, the system provides stable hydrogen supply and can be integrated with renewable power plants to realize efficient energy storage and conversion.
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Containerized Hydrogen Generation System Hydrizon’s containerized water electrolysis system adopts a highly integrated design, incorporating core components such as electrolyzers, power supply, control units, and gas purification systems within a standard mobile container.
System products
HIE-ALK 100~500
The alkaline system has a long development time, mature technology, and many practical project operation cases to support it. The supply chain of each core component is complete, the single tank scale is large, and the initial investment cost is relatively low.
| System Conditions |
30-110% Load Range |
90±2℃ Operating Temperature |
≤1h Cold Start Time |
≤4.4kw.h/Nm³ Energy Consumption (DC) |
|---|---|---|---|---|
| Out Conditions |
100~500Nm³ Hydrogen Production Capacity |
1.6MPa Hydrogen Output Pressure |
>99.9% Initial Hydrogen Purity |
>99.999% Product Hydrogen Purity |
HIE-PEM 50~200
PEM electrolyzed water has a high current density and can quickly respond to changes in power input. It is very suitable for matching with renewable energy generation systems and can flexibly adapt to the intermittency and volatility of renewable energy generation.
| System Conditions |
10-125% Load Range |
65±5℃ Operating Temperature |
≤10min Cold Start Time |
≤4.4kw.h/Nm³ Energy Consumption (DC) |
|---|---|---|---|---|
| Out Conditions |
50~200Nm³ Hydrogen Production Capacity |
3.0MPa Hydrogen Output Pressure |
>99.9% Initial Hydrogen Purity |
>99.999% Product Hydrogen Purity |
HIE-ALK 4000
Applicable scenarios:Large scale centralized green hydrogen projects, mainly in the industrial sector (petroleum refining, hydrogen metallurgy, thermal power green ammonia co firing, green ammonia/green alcohol production)
| System Conditions |
30-110% Load Range |
90±2℃ Operating Temperature |
≤1h Cold Start Time |
≤4.4kw.h/Nm³ Energy Consumption (DC) |
|---|---|---|---|---|
| Out Conditions |
100~500Nm³ Hydrogen Production Capacity |
1.6MPa Hydrogen Output Pressure |
>99.9% Initial Hydrogen Purity |
>99.999% Product Hydrogen Purity |
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Highly standardized
Standardized production process; Modular architecture compatibility; Rapid maintenance response; Cost reduction throughout the entire lifecycle
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Highly intelligent
AI driven automation control; Remote cluster operation and maintenance; Data predictive optimization; Cold start efficiency increased by 30%
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Highly secure
Redundant security configuration; Real time warning of gas leakage; Multi level interlocking protection; The purity of the entire process is stable at 99.99%
BOP module
Hydrogen Integrated Equipment -Water system
Attention to details and usage scenarios, reasonable customization of products
Fully automated welding process with low-frequency loop function and automatic duty mode.
All stages of water production are equipped with qualified control modules to ensure water quality.
High level of automation, fully realizing one-button startstop automation.
| model | processing capacity | size(m) |
|---|---|---|
| HIE-W200 | 0.2~0.25m³ /h | 1.5×1.0×2.5 |
| HIE-W500 | 0.5~0.6m³ /h | 2.0×1.5×2.5 |
| HIE-W1000 | 1.0~1.2m³ /h | 2.5×2.0×2.5 |
Hydrogen Integrated Equipment - Gas-liquid separation system-Ⅰ
Wide load range：adjust the system control strategy to effectively reduce the hydrogen concentration in oxygen during low load operation.
Low energy consumption：adopting a multi-point temperature measurement and operating load linkage control, reducing energy consumption，saving cooling water.
Zero penetration：optimizing the alkali liquid heat exchanger to eliminate the risk of alkali liquid permeation into the circulating water side.
Safer：optimizing the hydrogen and oxygen separator, eliminating potential risks caused by hydrogen and oxygen liquid level control failure on accident conditions.
| Technical parameter | |
|---|---|
| Processing scale | 1-4000Nm³ /h |
| Hydrogen purity | 99.8% |
| Oxygen purity | 99.2% |
Hydrogen Integrated Equipment - Gas-liquid separation system-Ⅱ
Optimized structural design, simpler and more compact, fully adapted to alkaline electrolysis cells.
Zero discharge of system condensate, high integration, and easy operation.
Hydrogen/oxygen cooling separator： the integration of traditional hydrogen-oxygen liquid separator and alkali liquid cooler functions.
Hydrogen/oxygen tower：the integration of traditional scrubber, cooler, gas-liquid separator, and hydrophobic functions.
| Technical parameter | |
|---|---|
| Processing scale | 1-4000Nm³ /h |
| Hydrogen purity | 99.8% |
| Oxygen purity | 99.2% |
Hydrogen Integrated Equipment-Purification system
High hydrogen purity, stable performance, and more economic.
Adopting advanced technology：less adsorption towers, pipelines, valves; easy operation and maintenance.
Regenerated gas is 100% ecycled without any losses.
Equipped with automatic drainage function for reduced personnel operation and enhanced safety and reliability.
| Technical parameter | |
|---|---|
| Processing scale | 5-12000Nm³ /h |
| Hydrogen purity | 99.999% |
| Oxygen content | ≤1ppm |
| dew point | ≤-70° |
