CHL7-7000mL/min type PEME
CHL7-7000mL/min PEM Water Electrolyzer
Reliable, High-Purity Hydrogen Generation for Modern Industries
Experience next-generation hydrogen production with the CHL7-7000mL/min PEM Water Electrolyzer. Engineered for efficiency and reliability, this advanced system delivers clean, high-purity hydrogen to meet the evolving needs of innovative industries.
PEM Water Electrolyzer, Hydrogen Production Rate 7000mL/min
| CHL7-7000mL/min type PEME | |||
| Parameter | Unit | Value | Notes |
|---|---|---|---|
| Oxygen production | ml/min | 10500 | Hydrogen is mixed with oxygen |
| Hydrogen production | ml/min | 7000 | Pure hydrogen, single out |
| Temperature of circulating water | ℃ | 25-70 | |
| Water consumption | ml/min | 2300 | Pure Water, deionized water |
| Circular manner | / | Natural circulation | |
| Hydrogen purity | % | 99.99 | After drying |
| Water electrolysis method | / | Water electrolysis | Proton exchange membrane electrolysis |
| Maximum stress | Mpa | 3.5 | |
| Anode water TDS | PPM | ≤1 | Recommended ion-exchange resin for circulating water |
| Cathode water TDS | PPM | ||
| Single cell voltage | V | 1.75-2.5 | |
| Constant current | A | 80 | |
| Constant current voltage | V | 40 | |
| Dimensions (without lugs) | mm | 136×135×150 | |
| Dimensions (including lugs and fittings) | mm | 156×149×220 | |
| Weight | kg | / | |
| Application area | Small hydrogen production-hydrogenation machine, fuel cell backup power supply, semiconductor, electron/photoelectron, multi-energy Complementary Independent micro-network, pharmaceutical and other industries on-site hydrogen production. | ||
Core Components of an PEM Electrolyzer
1. Membrane Electrode Assembly (MEA)
The MEA is the heart of PEM electrolyzer stack design. It includes:
- Catalyst-coated membrane: Usually platinum-based
- Gas diffusion layers (GDLs): Promote gas flow and distribute water evenly
- Ionomer: Facilitates proton conductivity
2. Bipolar Plates and Flow Fields
Bipolar plates manage the flow of gases and fluids. Made from coated metals or graphite composites, they:
- Channel water and gases efficiently
- Conduct electrical current
- Provide mechanical support
3. Current Collectors and Gaskets
These ensure secure electrical connections and gas-tight seals, enabling safe and reliable operation.
4. Advanced Materials for Industrial Systems
Newer PEM systems utilize:
- Corrosion-resistant alloys
- Enhanced polymer membranes
- Heat-resistant composites
These improve durability and performance in high-demand industrial settings.
The PEM Electrolyzer Working Principle (Step-by-Step)
1. Water Decomposition at the Anode
Reaction: 2H₂O → O₂ + 4H⁺ + 4e⁻ Water is fed into the anode chamber, where an applied voltage splits it into oxygen gas, protons (H⁺), and electrons.
2. Proton Transport Through the PEM
The PEM membrane selectively allows only protons to pass through to the cathode side, while blocking electrons and gases.
3. Hydrogen Generation at the Cathode
Reaction: 4H⁺ + 4e⁻ → 2H₂ Electrons from the external circuit and protons recombine at the cathode to form high-purity hydrogen gas.
4. Gas Separation and Purification
Integrated gas management systems ensure:
- Efficient O₂ and H₂ separation
- Removal of water vapor
- Delivery of fuel-cell-grade hydrogen
Key Performance Advantages for Industrial Applications
1. Higher Efficiency (75–85%)
HPEM systems outperform many alternatives with low power consumption per Nm³ of H₂.
2. Rapid Load Response
Ideal for fluctuating inputs from solar PV or wind farms, with dynamic ramping and shutoff.
3. Modular and Compact
Space-saving design enables stackable units for scalable deployment—from 100 Nm³/h to multi-MW plants.
4. Minimal Maintenance
No corrosive alkaline liquids and fewer mechanical parts lead to lower OPEX and longer system uptime.
Technical Specifications Buyers Should Evaluate
1. Current Density
Measured in A/cm². Higher densities indicate greater output per cell but may impact lifespan.
2. Hydrogen Production Capacity
Common ranges:
- Small: 1–10 Nm³/h
- Medium: 50–100 Nm³/h
- Large: >500 Nm³/h
3. Stack Lifetime and Degradation
Modern PEM stacks last 60,000–80,000 hours, depending on operating conditions.
4. Balance of Plant (BoP) Requirements
BoP includes:
- Power electronics
- Water purification units
- Thermal management
- Gas dryers and sensors
Industrial Application Case Studies
1. Renewable Hydrogen Megaprojects
Countries like Germany and Australia are scaling up PEM electrolyzer plants >100 MW to feed green hydrogen pipelines.
2. Industrial Energy Storage
PEM systems buffer excess renewable energy in steel plants and chemical factories by converting it to storable hydrogen.
3. Hydrogen for Transportation
HPEM electrolyzers produce clean H₂ for:
- Fuel-cell buses
- Trucks
- Rail and marine fleets
Frequently Asked Questions (FAQs)
Q1: What’s the lifespan of a PEM electrolyzer stack?
Modern stacks typically last 60,000–80,000 hours, depending on usage and conditions.
Q2: Is PEM electrolysis suitable for off-grid renewable systems?
Yes. Their fast startup and flexible load response make them ideal for pairing with solar and wind sources.
Q3: How pure is the hydrogen produced?
PEM electrolyzers can deliver >99.99% purity, suitable for fuel cells and industrial uses.
Q4: Are PEM systems safe to operate?
Absolutely. Built-in sensors, automated shutoff, and leak detection ensure safe and reliable performance.
Q5: What influences the cost of an HPEM system?
Major factors include:
- Stack size and material
- Pressure output
- Required BoP components
- Operating environment
Hele Titanium Hydrogen Company Profile
Expertise:
Hele Titanium Hydrogen is a leading PEM electrolyzer manufacturer in China, boasting over a decade of specialized experience in designing and producing advanced PEM electrolyzers tailored to meet the unique demands of diverse industries.
Service Scope:
The company offers end-to-end services, from design to large-scale production, ensuring clients receive high-quality, high-performance PEM electrolyzers that support their transition to sustainable energy solutions.
Customization Services:
Hele Titanium Hydrogen provides bespoke solutions, enabling adjustments to electrolyzer stack dimensions and capacity, optimization of operational parameters, selection of appropriate electrode materials and components, configuration of efficient cell structures, and additional system customization options to align with specific client requirements.
PEM Electrolyzer Product Overview
Capacity Range:
The company offers PEM electrolyzers in various capacities, including 0.01-1Nm³/h, 1-10Nm³/h, 10-50Nm³/h, 50-200Nm³/h, as well as compact models (2000-7000ml/min and 300-2000ml/min), catering to applications spanning small-scale laboratories to large industrial operations.
Applications:
These electrolyzers are widely deployed across sectors such as fuel cells, multi-energy hybrid microgrids, power plants, semiconductor manufacturing, hydrogen refueling stations, polysilicon production, chemical industries, optoelectronics, energy storage facilities, power absorption systems, and renewable hydrogen production.
PEM Electrolyzer Operating Principle & Advantages
Operating Principle:
PEM electrolyzers generate hydrogen and oxygen through water electrolysis. At the anode, an oxidation reaction produces oxygen, protons, and electrons; protons migrate via the proton exchange membrane to the cathode, where they combine with electrons to form hydrogen gas.
Advantages:
PEM electrolyzers excel in producing ultra-pure hydrogen, operating with high efficiency, and offering rapid response times. They are ideally suited for integration with renewable energy sources (e.g., wind, solar), advancing global decarbonization efforts and enabling the transition to a low-carbon future.
Key Considerations for Selecting PEM Electrolyzers
Hydrogen Production Requirements:
Define required hydrogen volume, purity, and pressure to select the appropriate electrolyzer model.Input Power Specifications:
Evaluate current and voltage requirements to ensure alignment with production scale and application needs.System Design & Configuration:
Assess critical components (e.g., proton exchange membrane, gas diffusion layer, catalyst layer) to guarantee system efficiency and durability.Manufacturer Reputation:
Partner with reputable manufacturers delivering reliable, high-quality electrolyzers and comprehensive after-sales support.Customization Options:
Inquire about tailor-made solutions to address specific operational demands.
Hele Titanium Hydrogen’s Commitment & Strengths
One-Stop Solutions:
Beyond premium PEM electrolyzers, Hele Titanium Hydrogen provides detailed product proposals, seamless logistics, and expert installation assistance.
Strategic Partnerships:
Collaborating with Hele Titanium Hydrogen means gaining a partner dedicated to the success of your hydrogen generation project, offering end-to-end support from design and planning to delivery and installation.
Client-Centric Solutions:
The company delivers customized hydrogen generation solutions for wholesalers, brand owners, manufacturers, suppliers, laboratories, and individual users, accommodating diverse scales and requirements.
Hele Titanium Hydrogen Generator Overview
The HTH Hydrogen Generator is an advanced device utilizing Proton Exchange Membrane (PEM) technology to produce hydrogen with up to 99.9995% purity. This hydrogen finds extensive applications across various fields, serving as carrier gas and fuel gas for Gas Chromatography (GC), collision gas for ICP-MS, feedstock for hydrogenation reactors, fuel for fuel cells, and calibration gas for emission testing equipment. In laboratory settings, it serves as an ideal alternative to conventional gas cylinders, offering an optimal solution for on-site hydrogen generation.
Operating Principle
The HTH Hydrogen Generation System employs platinum catalysts and Proton Exchange Membrane (PEM) technology to decompose deionized water into its constituent elements. The PEM selectively permits the passage of water molecules and positive ions between compartments while functioning as the electrolyte within the cell, eliminating the need for hazardous liquid electrolytes such as concentrated potassium hydroxide. The PEM water electrolysis process involves the straightforward dissociation of pure deionized water (H₂O) into hydrogen (H₂) and oxygen (O₂), which are separated on either side of the membrane.
Upon application of a DC voltage to the electrolyzer, water is transported to the anode (or oxygen electrode) where it undergoes oxidation, producing oxygen, protons, and electrons. Protons (H⁺ ions) traverse the PEM to reach the cathode (or hydrogen electrode), where they combine with electrons from the external circuit and are reduced to form hydrogen gas. The two electrochemical reactions occurring within the cell are as follows:
Anode Reaction (Oxidation):
Water molecules are oxidized at the anode, generating oxygen gas, protons, and electrons.Cathode Reaction (Reduction):
Protons migrating through the PEM combine with electrons at the cathode to produce hydrogen gas.
Key Features:
Consistent Hydrogen Output: Produces up to 7,000 mL of pure hydrogen per minute (99.99% purity, post-drying) to support continuous operations in laboratories, manufacturing, and energy applications.
Efficient Oxygen Byproduct: Generates 10,500 mL/min of oxygen, maximizing resource utilization.
Low Water Consumption: Uses just 2,300 mL of deionized water per minute, optimizing operational costs and sustainability.
Safe and Compact: Built with robust safety standards, natural water circulation, and a compact footprint (156 × 149 × 220 mm with fittings) for easy integration into your facility.
Flexible Operation: Maintains stable performance across a wide temperature range (25–70°C) and supports constant current operation (80A at 40V) for reliable, on-demand hydrogen supply.
Easy Maintenance: Designed for hassle-free operation, requiring only pure, low-TDS water to protect the advanced proton exchange membrane.
Ideal Applications:
On-site hydrogen production for fuel cell backup power, hydrogenation processes, and semiconductor manufacturing
Renewable energy storage and microgrid integration
Pharmaceutical and electronics industries seeking high-purity gas solutions
Why Choose the CHL7-7000mL/min?
Delivers industry-leading hydrogen purity and efficiency
Compact, reliable, and easy to operate
Supports your transition to cleaner, low-carbon energy solutions
Empower your business with sustainable hydrogen production—choose the CHL7-7000mL/min PEM Water Electrolyzer for performance you can trust.
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Common Questions
Most Popular Questions.
PEME water electrolysis hydrogen production.
Can be customized according to the needs of professional.
It is a new technology of national energy strategy and aworld-leading technology for hydrogen production. Byproton exchange membrane pure water, hydrogen gas with a purity of up to 99.999% can be rapidly produced
A: Yes, we are a professional manufacturer and our engineers have wide experiences.
Yes, we welcome sample order to test and check quality. Mixedsamples are acceptable. Also accepted OEM/ODM service.
A: Yes, if you have other needs, you can contact us and we would try our best to help you.
A: We cooperated with DHL, UPS, Fedex, EMS, TNT and China Air Post etc. We would recommend to you according to the destination, the quantity and weight. You also can contact your appointed forwarder/agent to arrange shipment.
A: For most products, we provide 6 months warranty. We would give you new one accessories Free of Charge during the guaranty period, or to be negotiated until you are satisfied.
Custom Your PEM Electrolyzer with Easy!
No matter the specific PEM electrolyzer requirements you have, our vast expertise enables us to produce it for you. Notably, as we create our own raw materials, we have the advantage of delivering superior quality control and more competitive pricing compared to our worldwide competitors.
