Dispersed Particle Separation TRIZ Cases

Segmented baffle ribs separate small oil droplets from crankcase gases, reducing engine oil consumption and emissions.

Radial support channels drain captured water droplets from the baffle, eliminating external filters and reducing housing length.

Axially offset plates create an entrapment chamber to capture solid particulates, preventing flame trap clogging and maintaining venting capacity.

Infrared sensors measure lance tip temperature to adjust nozzle position relative to the molten metal bath.

Partitioning the housing into primary and secondary separation chambers reduces device volume while maintaining high separation efficiency for blow-by gas.

Real-time viscosity sensing enables automatic pump speed adjustments, eliminating manual operator intervention and maintaining optimal mud properties.

A horizontal gas scrubber uses spiral jet nozzles to create an unrestricted liquid contacting zone.

A downhole separation system uses cyclonic vortex flow to remove sand and gas from wellbore fluids before they enter the rod pump.

Copper salt and tertiary amine activator compositions enhance hydrogen sulfide scavenging efficiency while reducing required copper compound quantities.

Regional cell density reduces flow velocity differences in a catalytic converter, increasing contact area between exhaust gas and catalytic layers.

Ammonia evaporator waste water feeds residual gas cleaning to reduce nitrous gases, eliminating ammonia discharge.

A pressure equalizing conduit with an upper aperture above the liquid level allows gases to escape from the collection chamber.

Porous silica particles adsorb impurities from polyalkylsiloxane vapor, preventing polymerization and gel formation during synthetic quartz glass production.

Integrated baffle plate and cam spray plate design directs separated oil through a gutter-shaped passage to prevent backward flow into the intake system.

Oscillatory sliding motion unpins contact lines from surface irregularities, reducing hydrodynamic drag forces on small droplets without oil matrices.

Vacuum water vapor compression extracts moisture from hygroscopic desiccants, reducing energy consumption compared to conventional mechanical dehumidification.

Partial manganese dioxide coating on metallic regions converts ozone while minimizing material usage and flow resistance.

Limiting alkali metals to 1,000 ppm in the glass insulating layer prevents hazardous substance generation from reactions with the metal can.

Segmented amine solvents boost mass transfer rates while maintaining low regeneration energy to reduce absorber size.

Microstructured channels on a rolled film maintain consistent fluid flow and separation efficiency in analytical chromatography.

Radial support legs hold the cover without welding, preserving end wall integrity.