Customization: | Available |
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Manufacturing Process: | Casting |
Surface Treatment: | Oxidation |
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Structural Types
Wire Mesh Demister: Made of multiple layers of metal wire mesh (e.g., stainless steel, titanium alloy, copper) compressed together, forming dense pores and tortuous pathways to capture and coalesce droplets.
Vane-Type Demister: Consists of parallel corrugated or baffle plates that separate droplets by altering gas flow direction.
Hybrid Demister: Combines wire mesh and vane structures for high liquid-load or high-velocity applications.
Common Materials:
Stainless Steel (304/316L): Corrosion-resistant, suitable for most industrial environments.
Titanium/Nickel Alloys: Used in highly corrosive media (e.g., chlor-alkali industry).
Galvanized Steel or Aluminum: Cost-effective for mild conditions.
Inertial Impaction: Gas carrying droplets passes through the mesh or vanes, where droplets collide and adhere to the surfaces.
Coalescence Effect: Tiny droplets merge into larger ones on the mesh surface and fall due to gravity.
Centrifugal Separation (Vane-Type): Repeated changes in gas flow direction force droplets to separate by centrifugal force.
High Efficiency: Removes droplets as small as 1μm, with separation efficiency exceeding 99%.
Low Pressure Drop: Optimized design minimizes airflow resistance, reducing energy consumption.
High Temperature/Pressure Resistance: Metal construction withstands harsh conditions (e.g., hot flue gas, high-pressure reactors).
Long Service Life: Resistant to corrosion and wear, requiring minimal maintenance.
Chemical Industry: Gas-liquid separation in distillation towers, absorption columns.
Petroleum Refining: Gas treatment, natural gas dehydration.
Environmental Engineering: Mist elimination after flue gas desulfurization (FGD).
Power Generation: Air filtration for gas turbines.
Pharmaceutical/Food Industries: Sterile air purification.
Gas Properties: Flow rate, temperature, pressure, corrosiveness.
Droplet Characteristics: Particle size distribution, viscosity, concentration.
Installation Space: Layout in vertical or horizontal vessels.
Pressure Drop Requirements: Choose structure based on energy constraints.
Regular Cleaning: Prevents clogging (especially with solid particles).
Corrosion Inspection: Periodic replacement needed in acidic or high-humidity environments.
Installation Orientation: Ensure proper alignment with gas flow direction (e.g., vane-type has specific flow requirements).