See how a heating unit uses fluid-filled chambers between the housing and connecting member to
Airflow-powered ion release in the condensate pan suppresses biofilms, corrosion, and drain clogging in air-handling units.
Electrochemically activated water replaces surfactants with membrane-based ion activation to clean and sanitize surfaces without residue.
A three-position output switch isolates or shorts the coalescence power supply without disconnecting high-voltage cables, speeding fault checks.
Electromagnetic pulses applied to feed and retentate streams curb biofilm and scale buildup, preserving membrane permeability and output.
Pulsed electromagnetic treatment in the feed conduit limits biofilm and scaling, helping cross-flow membranes maintain flux and last longer.
Structural embossments on pleated filter media improve fuel-water coalescence while lowering pressure drop and limiting water buildup.
Voltage-assisted dehydration and staged hydrotreating remove impurities while limiting ammonium salt and particle adhesion.
This case uses controlled EMAT fields and acoustic energy to separate water from hydrocarbon emulsions with less chemical treatment.
Angular radiation sources reduce hydraulic pressure loss and oscillation while treating large fluid volumes.
A magnetic treatment apparatus applies critical field strength and duration to hydrocarbon fluids, inducing dipolar interactions that reduce apparent viscosity.
Segmented channels eliminate dead zones and boost inclusion capture efficiency by twenty percent without increasing flow resistance.
Multiple injection headers allow flexible placement of oil emulsions relative to electric fields, resolving adaptability versus complexity trade-offs.
Graphite electrode array replaces chemical flocculation with electrokinetic floatation to separate solids from paint sludge water.
Ultrasonic cavitation in electrochemical cells generates customized oxidant mixes, reducing electrode maintenance and improving contaminant destruction.
A metal fitting with matched thermal expansion seals ceramic electrodes through a base plate, preventing fluid leakage into the electric enclosure.
A wastewater treatment plant uses electrocoagulation to separate fat from aqueous dispersions.
An electrolytic cell applies oscillating magnetic fields to alter redox reaction probabilities at the working electrode surface.
Electrostatic dehydration removes water from pyrolysis oil, preventing ammonium salt formation during hydrotreating.
Scott-T transformers generate synchronized two-phase high voltage signals for electrostatic coalescers.
Bipolar membrane electrodialysis recovers ammonia from wastewater while reducing energy consumption and improving efficiency.
Porous electrodes apply alternating voltages to deposit nanoparticles, eliminating organic solvent waste from iterative precipitation.
A modified desalting process uses ionic liquids and increased water volume to form a temporary oil-in-water emulsion for phase separation.
Resonance tracking circuit applies alternating current at resonant frequency to electrode plates for enhanced liquid droplet coalescence.
Turbulence-inducing pipe geometry increases dispersed phase droplet size, resolving high energy consumption in remote oil water separation.
A variable impedance driver adjusts RF power to ultrasonic transducers, enabling continuous particle separation in fluid mixtures.
Electrical discharge creates shockwaves that detach viscous oils from sand without thermal desorption or hazardous hydrogen sulfide gas formation.
Electrophoretic pumping moves water toward electrodes where sorption elements trap moisture in dielectric fluid.
Inlet electrode assembly forces fluid through pipes, resolving short settling section bottlenecks.
Alternating electrodes apply voltage to decompose oil water emulsions, eliminating chemical additives and reducing energy consumption.
Applying voltage-assisted dehydration to waste plastic pyrolysis oil prevents ammonium chloride salt formation during subsequent hydrotreating.