Solving the 'last mile' challenge in hydrogen delivery.
- Electricity Consumption: 0.9 KWh/Nm³ H₂
- Operating Ratio: 0 - 120%
- Ratio Adjustment Rate: 1%/min
- Start-up Time: 2.5~3 h
- Hydrogen Purity: ~7 N
- Residual Ammonia: < 0.01 ppm
Technology
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High Purity
99.999% high-purity hydrogen, applicable for chip manufacturing.
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Metal Membrane
High hydrogen permeability
High strength
Resistant to high pressure & pressure shock
Easy to scale up
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Catalyst
NiO based catalyst
Operating in 750-800 °C
Chemical composition: NiO, Al2O3, etc.
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Compact Design
Designed to fit inside a standard 40HQ container, facilitating convenient shipping and on-site assembly.
Featured Projects
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Pure Hydrogen Powering a Fuel CellIn 2026, KAPSOM successfully completed an ammonia cracking pilot test in the laboratory. The resulting 99.999% pure hydrogen successfully powered a fan via a hydrogen fuel cell, achieving a controllable ammonia cracking experiment.Read More
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100 Nm3/h & 150 Nm3/h Ammonia Cracking PlantsDetailed overview of the 100 Nm3/h and 150 Nm3/h ammonia cracking systems. We can also custom-build units with different production capacities tailored to your requirements.

Service Tailored to Your Needs
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Preliminary planning and performance assurance
Assess asset lifecycle value based on business cases
Provide reliability and feasibility analysis to ensure control during the design phase
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Digital spare parts management
Efficient spare parts supply and delivery
Support material requirements during the construction and operation phases
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Remote monitoring and O&M support
Online monitoring and remote troubleshooting
Assist on-site engineers to ensure smooth commissioning
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Customer service support
Full-process issue and request handling
Provide basic service support
Reasons to Choose Us
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Enhanced ScalabilityAllows for gradual expansion of production capacity, adapting easily to increasing demand or budget constraints. -
Cost EfficiencyStandardized modules often result in reduced manufacturing and installation costs, offering economic advantages over traditional plant setups. -
Faster DeploymentPrefabricated units enable quicker assembly and commissioning, significantly shortening project timelines from design to operation. -
Location FlexibilityTheir compact and self-contained nature makes them suitable for diverse locations, including remote or constrained sites. -
Lower Environmental FootprintModular designs can be more environmentally friendly, requiring less land and potentially having lower emissions. -
Simplified Maintenance and UpgradesThe modular approach facilitates easier maintenance and potential upgrades of individual components without major disruptions. -
Improved Energy EfficiencyThese designs can be optimized for better energy use, crucial for processes reliant on renewable energy sources. -
Customizable SolutionsOffers the flexibility to tailor modules to specific project needs or operational requirements.



IPv6 network supported

