Flow Mixers TRIZ Cases

A single sheet metal mixer body uses deflection ridges to create turbulence, resolving the trade-off between mixing effectiveness and device complexity.

A bubble column reactor bottom compartment uses a flushing medium to remove reactive material.

Dual-conduit atomizer disperses viscous hydrocarbons into fine droplets via segmented orifice patterns.

An extension portion on the mixer cone induces 360-degree rotation, preventing deposit formation while maintaining back pressure in compact exhaust systems.

A multi-layered micro-channel mixer uses baffles to induce vortex flows for rapid fluid mixing.

A multi-path manifold mixes ozone and water using integrated fluid mixers and flow switches to generate oxidation reduction potential.

An elongated gap in the metering unit controls gas flow rate, preventing compressibility issues and preserving thixotropy during mixing.

Dual spinners create a smooth vortex cavity, eliminating shear layers that destabilize plasma compression interfaces.

Tabs on a sheet metal exhaust gas mixer engage housing lug openings to secure the component, simplifying production while ensuring reliable fixation.

A closed system uses a cyclone separator to capture airborne dust during pneumatic conveying of dry components into liquid mixtures.

A fine-array porous membrane with controlled pore sizes generates uniformly sized super-fine gas bubbles in liquid.

A handheld fire extinguishing nozzle generates a two-phase bubble stream by mixing pressurized water with ambient air through a specialized mixing chamber.

Radial swirler guides swirl peripheral gas into the main stream, ensuring accurate NOx sensing without increasing back pressure.

A spiral-shaped disinfection reactor guides water through a curved path to ensure uniform exposure time.

A jet propulsion dissolution unit disperses dry powders into liquids using a submersible actuator.

A partial spiral flow passage injects diesel exhaust fluid directly into its inlet opening to generate high velocity swirl and turbulence.

A microfluidic device with stacked layers forms high-aspect-ratio channels to produce monodisperse droplets.

A continuous mixing reactor uses a segmented circulation tube to improve fluid flow distribution.

Offset microchannel entrances and tapered fillets streamline fluid flow, preventing cavitation damage in fluid homogenizers.

A tubular fluid mixer uses a segmented mixing promotion body to direct exhaust and warming gases through distinct flow paths.

A needle-free capillary blood collection device integrates a stabilizing buffer reservoir to mix biological samples immediately upon extraction.

Partition walls divide the mixing nozzle into compartments, creating a zig-zag flow path that prevents backflow and reduces device complexity.

A segmented manifold mixes ozone with water in staged chambers to maintain high pressure safety while generating 600 mV to 1000 mV ORP.

Angled sheet metal vanes create turbulence to mix exhaust gas and additives, ensuring homogeneous temperature distribution for selective catalytic reduction.

Lobed diffuser throat geometry delays boundary layer detachment to enhance fluid mixing and pressure recovery.

Hydraulic governor adjusts rotatable body speed in large tanks, solving mixing homogeneity issues without external motors.

A multistage plate mixer uses angled guide blades to deflect exhaust gas flow and enhance educt mixing within a flat cross-sectional device.

A mechanical dilution apparatus uses water pressure to siphon concentrate into a stream, creating precise mixtures without electrical components.

Intersecting laminar fluid streams at acute angles in separate planes to generate transverse concentration gradients.

A conical reaction vessel segments ozone gas bubbles in water to increase oxidation reduction potential.

A mixing flange with a specific opening ratio enhances exhaust gas and treatment fluid distribution within aftertreatment systems.

A steam shower device uses a nozzle assembly to atomize mixed water into steam without electrical power.

Under-over baffles in a multi-chamber tank eliminate slipstream effects and ensure uniform polymer hydration.

An interference element generates turbulence to mix reduction agents, reducing consumption and vehicle weight while maintaining denitriding efficiency.

Centrifugal dispersion eliminates backpressure from static mixers while ensuring ammonia distribution.

A pressurized dissolution tank uses a liquid spray nozzle to absorb gas into fluid near saturation.

A mixer stator flush line delivers high-pressure fluid to pre-wet additives within the mixing chamber.

A static mixer supports the crosshead within an annular extrudate device to homogenize polymer melt flow.

Staged homogenization increases emulsion viscosity, preventing gas bubble migration and coalescence for reliable detonation.

An eductor draws hydrophobic powders into a liquid stream while an auger assembly mixes the slurry, eliminating wall adhesion and reducing mixing time.

A plunger with a helical groove directs liquid mixtures into a forward space to enable first-in first-out injection.

Integrated mobile mud mixing system protects additives from harsh environments while ensuring homogeneous consistency through continuous circulation.

Separating elements with arms sever the film between storage areas, reducing opening force while preventing premature leakage.

A multi-path manifold mixes ozone with water using fluidic flow switches and integrated mixers to generate oxidation reduction potential.

An internal shear mixer maintains multi-phase fluid homogeneity in a sealed sampling container, preventing phase separation and stratification.

A compact mixing pump integrates a shear rotor and impeller to eliminate bulky external feeding equipment by recycling mixture through a return conduit.

Deformable piston dome modulates chamber volumes via venturi mixing to lower production costs while maintaining packaging size.