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Suction Pressure

Discharge Pressure

Flow Rate

Cooling Method

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High-Strength Carbon Monoxide Compressor for Toxic Gases - China Suppliers & Factory

Introducing our advanced compressor, designed specifically for toxic gases and constructed from high-strength pressure-resistant materials like 40Cr alloy steel. This compressor is equipped with hard alloy mechanical seals, ensuring an extremely low leakage rate and high intrinsic safety. As a leading China manufacturer, we focus on integrating oil-free lubrication and intelligent monitoring systems, which not only guarantee absolute sealing but also significantly reduce energy consumption and maintenance complexity. Our compressor is an essential piece of industrial safety equipment utilized in chemical synthesis, metallurgy, and energy sectors, making us a preferred choice among suppliers for quality and reliability. Trust our factory to deliver innovative solutions that meet the highest safety and performance standards

    Carbon Monoxide Diaphragm Compressor Advantages

    1
    Absolutely Oil-Free & Zero Leakage Safety Assurance
    The metal diaphragm completely physically isolates the process gas from the hydraulic oil and the external environment, achieving 100% oil-free lubrication during compression and thoroughly eliminating the risk of reaction between lubricating oil and carbon monoxide under high temperature. The static seal structure ensures zero external leakage of the gas, fundamentally resolving the safety and environmental hazards caused by toxic gas leakage, and perfectly matching the stringent sealing requirements for carbon monoxide.
    2
    High Purity Retention & Anti-Contamination Design
    The compression chamber is completely independent with a high surface finish. The gas only contacts specially treated wetted parts, with no contamination from wear of internal moving parts. This allows the initial purity of the carbon monoxide gas to be maintained stably over the long term, meeting the raw gas purity requirements for high-end chemical synthesis.

    Key Design Points for Carbon Monoxide Diaphragm Compressors

    Strict Temperature Monitoring & Over-Temperature Prevention

    The minimum auto-ignition temperature of carbon monoxide in air is 588°C. Although its auto-ignition temperature is relatively high, temperature must still be strictly controlled during compressor operation.

    The equipment must be configured with multi-stage compression and an efficient inter-stage cooling system to ensure that the discharge temperature at each stage is far below the safety threshold. High discharge temperature alarms and a high-high temperature shutdown interlock must be provided to prevent temperature accumulation due to cooling failure or abnormal operating conditions.

    Triple Leakage Protection & Safety Interlock System
    Diaphragm Rupture Monitoring:
    A three-layer diaphragm design is adopted, equipped with a diaphragm rupture alarm device. Once the gas-side diaphragm ruptures, the pressure change in the middle layer immediately triggers a pressure switch, issuing an audible and visual alarm and interlocking an emergency shutdown of the compressor.
    Comprehensive Safety Interlocks:
    The system integrates multi-parameter safety interlocks including low suction pressure, high discharge pressure, low lubricating oil pressure, and cooling water failure to execute immediate shutdown procedures.
    Material Compatibility & Special Treatment

    All wetted parts in contact with carbon monoxide, including the diaphragm, cylinder head, valve seats, etc., must be made of corrosion-resistant high-quality stainless steel (e.g., 316L).

    During manufacturing, thorough degreasing, cleaning, and passivation treatment must be carried out to remove surface oils and impurities, preventing catalytic reactions. For operating conditions involving wet carbon monoxide, upgrading to a higher-grade corrosion-resistant alloy must be evaluated.

    Certificates

    eac
    ce
    iso
    iso2033
    atex

    Model Selection

    GZ Model
    ModelG70Z / G95Z / G110Z / G130Z
    Piston Stroke70mm ~ 130mm
    Max Piston Force10KN ~ 30KN
    Max Discharge Pressure70Mpa
    Flow Range1 ~ 500 Nm³/h
    Motor Power2.2KW ~ 30KW
    Crankshaft Speed420rpm
    Cooling MethodWater / Air Cooled
    GV Model
    ModelG70V / G95V / G130V
    Piston Stroke70mm ~ 130mm
    Max Piston Force10KN ~ 30KN
    Max Discharge Pressure50Mpa
    Flow Range1 ~ 200 Nm³/h
    Motor Power2.2KW ~ 30KW
    Crankshaft Speed420rpm
    Cooling MethodWater / Air Cooled
    GL Model
    ModelG110L / G130L
    Piston Stroke110mm ~ 130mm
    Max Piston Force20KN ~ 40KN
    Max Discharge Pressure100Mpa
    Flow Range10 ~ 1000 Nm³/h
    Motor Power7.5KW ~ 90KW
    Crankshaft Speed420rpm
    Cooling MethodWater / Air Cooled
    GD Model
    ModelG110D / G130D / G150D / G180D / G182D / G210D
    Piston Stroke110mm ~ 210mm
    Max Piston Force20KN ~ 160KN
    Max Discharge Pressure100Mpa
    Flow Range30 ~ 2000 Nm³/h
    Motor Power22KW ~ 200KW
    Crankshaft Speed420rpm
    Cooling MethodWater / Air Cooled
    MODEL CODE EXPLANATION (e.g., GZ-5/0.1-7)
    G
    Diaphragm type compressor
    Z
    Piston stroke 70mm
    5
    Flow (Nm³/h)
    0.1
    Inlet pressure (barg)
    7
    Outlet pressure (barg)
    No. Model Cooling water Flow Inlet pressure Outlet pressure Dimensions L×W×H Weight Motor Power
    (L/h) (Nm³/h) (MPa) (MPa) (≈mm) (≈kg) (kW)
    1 GZ-5/0.1-7 1000 5 0.01 0.7 1200×750×1000 600 3
    2 GZ-20/32-160 1000 20 3.2 16 1400×850×1320 1000 5.5
    3 GZ-30/7.5-25 1000 30 0.75 2.5 1400×850×1320 1000 7.5
    4 GV-5/200 400 5 Atmospheric pressure 20 1600×780×1080 750 3
    5 GV-5/1-200 300 5 0.1 20 1520×800×1060 750 3
    6 GV-11/1-25 600 11 0.1 2.5 1500×780×1080 850 4
    7 GL-20/12-160 1000 20 1.2 16 2200×1200×1300 3000 7.5
    8 GL-70/5-35 1500 70 0.5 3.5 2000×1000×1200 3000 15
    9 GL-20/10-150 1500 20 1 15 2200×1200×1300 3000 15
    10 GD-278/1.1-3 2000 278 0.11 0.3 3000×2000×1800 4000 22
    11 GD-220/11-90 4000 220 1.1 9 3000×2000×1800 4000 37
    12 GD-500/20-250 9000 500 2 25 3800×2300×2000 100000 90
    The equipment size and weight are for reference only, and the final design shall prevail.

    Case Study

    Russia Case Study
    Russia
    United States Case Study
    United States
    Spain Case Study
    Spain
    Kazakhstan Case Study
    Kazakhstan

    Frequently Asked Questions

    Why are diaphragm compressors ideal for carbon monoxide?
    Diaphragm compressors provide an absolutely oil-free compression environment and static sealing. This eliminates any risk of reaction between the lubricating oil and carbon monoxide, while ensuring zero external leakage of this toxic gas.
    How does the triple leakage protection system work?
    It utilizes a three-layer diaphragm design equipped with a rupture alarm. If the gas-side diaphragm breaks, the change in pressure triggers a switch that sounds an alarm and initiates an emergency shutdown to prevent gas leakage.
    How is over-temperature prevented during compression?
    The compressors utilize multi-stage compression alongside high-efficiency inter-stage cooling systems. The system also features high discharge temperature alarms and automatic shutdown interlocks to prevent heat accumulation.
    What materials are used for parts contacting carbon monoxide?
    All wetted parts (diaphragms, cylinder heads, valve seats) are made from corrosion-resistant, high-quality stainless steel (such as 316L) which undergoes degreasing, cleaning, and passivation.
    Can these compressors handle wet carbon monoxide?
    Yes, but wet carbon monoxide requires evaluation for upgrading to higher-grade, corrosion-resistant alloys to prevent the formation of corrosive acids.
    What safety interlocks are integrated into the control system?
    The control system integrates critical parameters including low suction pressure, high discharge pressure, low lubricating oil pressure, cooling water failure, and diaphragm rupture to trigger immediate emergency shutdowns if abnormalities occur.