Electrostatic Separation TRIZ Cases

A movable magnet probe checks paramagnetic wear particles through a sealed reservoir orifice, avoiding fluid drainage, downtime, and fluid loss.

Magnetic and centrifugal forces move beads inside one reaction tube to speed mixing, enable waste discharge, and cut consumables and contamination.

Individually actuated electromagnets create 3D field gradients to mix and separate magnetic particles across sample volumes with less loss.

An alternating electric field replaces mechanical thrashing to break fibre-granule clumps faster and separate granules through a screen with lower energy use.

Magnetic and buoyant microspheres form sandwich complexes that remove empty beads, cut false positives, and support faster cell growth monitoring.

A telescopic magnetic enclosure and in-tank rinsing cycle remove tramp metals from liquid raw materials while limiting airborne metal contamination.

A capped pole piece and aligned magnets spread field strength evenly for assay particle handling while reducing size and power needs.

Electrostatic charging and electric-field separation isolate glandular trichomes at high purity and yield while avoiding wet-process compound loss.

Magnetic levitation and controlled flow channels concentrate and separate fragile cells with minimal damage and low sample waste.

A rotatable magnetic sphere and sealed screw cap remove magnetite sludge during cleaning without shutdown, water loss, or contamination.

Triboelectric charging and multiple electrode pairs improve single-pass granule separation while limiting device footprint.

Sludge-content measurements adjust magnet-drum speed and liquid flow to sustain removal efficiency and reduce separator failure risk.

A confinement grating retains fibers and granules until charged, improving electrostatic separation and reducing fouling and component wear.

Magnetic-field separation chambers split magnetic and non-magnetic solids, enabling biocatalyst recycling in continuous manufacturing.