Energy-Efficient Electrostatic Precipitation Technology

Technology Overview

• Low-Energy Electrostatic Precipitation Technology That Ensures Both Fire Safety and Energy Efficiency

• A highly stable, intelligent dust collection solution capable of treating high-moisture, flammable exhaust gases

Technology Configuration

• Axial-Flow Cyclone

  • Selective removal of coarse particles and moisture droplets at the shear zone of the space-charging unit, which uses high voltage (removes 99.9% or more of particles 20 μm or larger)

  • Improves operational stability and prevents the occurrence and spread of fires by separating coarse particles and moisture droplets (flammable materials) from the spatial charging device (ignition source)

• Spatial Charging Device

  • Technology that electrically ionizes exhaust gas to generate high-concentration gas ions and imparts static electricity to the material being treated

  • Structural stability technology ensures stable operation without spark discharge, even under conditions of excessively humid exhaust gas

• Wet Electrostatic Precipitator

  • Utilizes the electro-wetting phenomenon to charge dielectric-coated electrodes with electrical energy

  • Generates and maintains a strong electric field using the stored electrical energy

  • The use of dielectric-coated electrodes maintains excellent dust collection performance while suppressing fires caused by spark or arc discharges

Key Features of the Technology

• Minimized Fire Risk: The combination of a co-current cyclone, spatial charging, and dielectric-coated electrodes eliminates the possibility of fire at the source

• Easy Maintenance: Dust collection plates can be cleaned at any time during operation thanks to the dielectric-coated electrodes

• High-Moisture Gas Treatment: Stable operation even in environments with high-moisture droplet inflow, such as downstream of a scrubber

• Minimized Operating Costs: Utilizes the phenomenon of electrical wetting to minimize the energy required to generate an electric field

• Maximized Treatment Efficiency: Treatment efficiency is maximized by forming and maintaining a high-intensity electric field

Experimental and Demonstration Data

• Experimental Environment — Target Gas: Exhaust gas from a textile dyeing plant in Daegu / Treatment Capacity: Exhaust gas flow rate of 10 m³/min

• Demonstration Experiment Configuration — Co-current cyclone + spatial charging device + wet electrostatic precipitator