Electrostatic Separators TRIZ Cases

Alternating magnetic field actuation positions particles on sensor surfaces.

A bridging membrane enables electrokinetic fluid transport in microchannels.

An electrocoalescence system uses an electron trap to ionize oil/water emulsions and drive droplet coalescence.

Recurrent fluid flow creates dynamic trapping zones that guide submicron particles, reducing flow disturbances while maintaining separation precision.

A connector assembly secures current collectors within a capacitive electrode stack housing.

Electromagnetic fields disrupt water clusters in rare earth alloy pipes, reducing boiler scale without harsh chemicals.

Metallic mineral complexes prevent hydrogen ion reversion, extending alkaline water shelf life for commercial distribution.

An electric field establishes a structured hydration layer around charged particles to orient water molecules for extraction.

Cylindrical electrostatic filtration units capture sub-micron insoluble contaminants from dielectric fluids using alternating charged electrode plates.

Row and column voltage control reduces electrode count while enabling precise droplet transport, merging, and splitting in digital microfluidic arrays.

Aerosol capture device concentrates particles using a dedicated concentration part with magnetic beads and electrodes.

A three-stage filtration system removes mercury and hydrocarbons from aqueous streams using specialized media.

Concentric electrodes drive dielectrophoretic separation within spiral microfluidic channels.

Varying frequency electromagnetic field controls scale, bacteria, and corrosion without harmful chemicals.

Continuous inkjet system separates metallic and semiconducting carbon nanotubes using electrostatic deflection.

A nanocarbon separation device uses upper and lower electrodes to fractionate dispersion liquids based on real-time physical state evaluation.

A gravity-fed blood purifier uses an electrode to generate a negative potential across a porous tube, repelling red blood cells while allowing waste particles to pass through.

An annular flow channel between a reference tube and cylinder enables streaming potential measurement, quantifying outer surface charge for tubular membranes.

A connector allows electrode movement relative to a power terminal, preventing damage from compressive forces during stack manufacturing.

Staged mixing valves break stable emulsions and coalesce water droplets, reducing salt carryover in heavy crude desalting.

Hydrophobic media particles collect fine minerals through attraction, enabling fluidized bed recovery of coarse ore fractions.

A segmented electrode generates dielectrophoretic force to attract suspended particles along an edge under liquid flow for precise positioning.

Segmented analysis zones within a single chamber enable parallel compound testing, reducing animal study requirements while maintaining single-cell resolution.

A filter uses electrostatic attraction to capture colloidal particles from fluids.

Traveling wave grids transport particulates to collection walls within a flow cell for bio-agent concentration.

Optoelectronic tweezers manipulate microparticles using dynamic light-induced dielectrophoresis patterns.

Positioning electrodes generate electric fields to confine target cells near recording sensors.

A reverse diffusion system uses a scrolling electric charge pattern to move ions across a hydrophobic membrane for desalination.

Segmented electrodes create spatially varying electric fields to confine DNA, resolving manufacturing difficulties while enabling rapid genome sequencing.

A continuous flow centrifuge uses a positively charged core to capture pathogens from large water volumes.

Self-assembled carbon nanotube electrodes overcome lithography resolution limits to create strong electric field gradients that manipulate single molecules.

Current integration monitors electrode saturation in a flow-through capacitor, preventing unnecessary voltage application during regeneration cycles.

A three-dimensional laminate device with interleaved conductive layers enables high-throughput separation of suspended particulate matter.

A water treatment system combines ozone, hydrodynamic cavitation, acoustic cavitation, and electrolysis to break down contaminants.

Oscillating fluid flow through charged plates directs ion transport via periodic electric fields, reducing energy consumption and preventing membrane fouling.

A microfluidic device aggregates nanoscale particles using dielectrophoretic trapping and characterizes them via surface-enhanced Raman spectroscopy.

Scanning probe microscopy detects local ion displacement through mechanical strain measurement for nanoscale spatial resolution.

Manifold distributes fluids to flow cells via electrowetting, reducing reagent loss during biological sample analysis.

Conjoined rare earth magnets on sucker rods expose crude oil to intense magnetic flux, preventing paraffin precipitation without extensive retrofitting.

Hydraulic coupling replaces complex circuitry to control electrorheological fluid flow for scalable parallel computation.

Planar electrodes trap target cells via dielectrophoresis to enable integrated lysis and PCR, reducing diagnostic time and contamination risks.

A dielectrophoresis apparatus uses a concentration gradient generating unit to selectively delay target material flow through spatially nonhomogeneous electric fields.

A microfluidic device embeds non-volatile memory to store structural data and fault maps for external control adaptation.

A microfluidic device uses hygroscopic fluid and electrical fields to stabilize liquid volume.

Electrode current ionizes metal impurities in treated liquid, removing nonmagnetic contaminants that cause short circuits.

Segmented mixing valves create diverse droplet distributions that boost coalescence rates in heavy crude desalting.

Alternating supercapacitor desalination units feed a common precipitation unit to maintain steady-state operation.

A filter uses pseudocapacitive binding sites to adsorb trace ions from electrolytes.