Flow Mixers TRIZ Cases

A dispersion means adds inhibitor to bulk explosive streams on demand, converting material properties dynamically.

Vertical channel stacking interleaves fluid layers in micro-mixers, overcoming diffusion limits and reducing workspace requirements.

Tangential spray nozzles generate rotational flow that disperses floating fats and greases, preventing pump clogging and reducing maintenance labor.

Airfoil swirlers in a perforated vane module create controlled turbulence, reducing energy consumption while maintaining natural flow pressure.

A pressurized laboratory foam-cement test system mimics wellhead pressures to produce foamed cement with controlled gas bubble characteristics.

Suction apparatuses draw headspace gas into liquid jets to prevent explosive phases and polymerization without external gas supplies.

Opposing swirls increase shear force and residence time, ensuring complete urea decomposition while preventing solid deposits on system surfaces.

Rotating deflectors break up solids and enhance gas distribution, increasing saturation while reducing energy consumption.

A triaxial magnetic field generates complex vorticity orbits to mix particle suspensions without mechanical contact.

A mesh device intercepts reductant spray in a decomposition tube, preventing solid deposits from forming on housing walls.

Micro-channel devices generate uniform micro-droplets that evaporate into solid microspheres for precise particle formation.

Integrally formed venturi apparatus accelerates gas-liquid mixtures to generate shockwaves that force oxygen dissolution.

A venturi bypass system uses a separation tube to extend fluid flow downstream of the joint, keeping streams separate until recombination.

A fluidic component introduces oscillating flows to create turbulence and achieve high mixing quality in a compact chamber.

A spiral hydration apparatus mixes hydratable materials with water inside a compact cylindrical chamber.

Vertical fluidics cartridges use electrowetting electrodes to transport droplets, eliminating head height restrictions and tilt sensitivity.

Segmented deflection panels with windows and crossing directing sections resolve viscous fluid maldistribution while maintaining heat transfer efficiency.

A feed hopper mixes plastic particles with a liquid jet to create a uniform suspension, reducing water consumption and energy demand.

Hydraulic nozzles create cavitation bubbles that collapse on a metal catalyst, producing hydroxyl radicals to eliminate chlorine-related health risks.

A static mixer incorporates a sealing element between the housing and mixing inset to block unwanted material flow.

A microfluidic device uses a porous matrix to mix assay reagents with biological samples via capillary action.

Countercurrent injection creates turbulent flow to disperse syrup into liquid, eliminating syrup slugs and removing the need for averaging tanks.

A fluidic device measures lateral diffusion of components in laminar flows across distinct channel sections.

An asymmetric flow splitter prevents phase segregation in micro-reactors, enhancing mass transfer coefficients.

Direct water feeding via a bypass line improves CO2 admixture efficiency while avoiding complex spraying mechanisms that limit saturation levels.

Segmented diverging tabs generate vortices to destratify flow, resolving pressure drop and improving meter accuracy.

Angled microchannel segments rotate fluid flow to achieve three-dimensional hydrodynamic focusing, reducing motion blur in low Reynolds number applications.

A continuous solvent extraction process mixes paste with liquid to dissolve solid fillers, followed by phase separation.

A V-section mixing element creates complex fluid vectors to distribute additives into aqueous streams.

Alternating wing units with mirror-symmetric blades create partial vortices that resolve laminar flow bottlenecks while minimizing pressure loss.

Nested cylinder pressure reducer apertures use non-circular shapes to increase wetted perimeter, reducing aerodynamic noise while maintaining flow capacity.

Segmented flat trays reduce temperature differences by 1-2°C while simplifying installation and maintenance compared to complex conventional distributors.

A resin composition preparation apparatus uses a spirally formed internal flow channel to generate uniform micrometer-sized air bubbles.

Vented atmospheric vessel strips dissolved gases from beverage blends, reducing foaming and extending shelf life during high-speed filling.

Radial expansion and integrated passages prevent reactant deposits while ensuring uniform mixing efficiency.

Separate pumps and inlet detectors synchronize fluid arrival in a microreactor, eliminating timing deviations that cause solid formation and contamination.

A splitting wall divides exhaust gas into coaxial streams to enhance urea spray evaporation in SCR dosing modules.

Nested tubes and guiding channels mix exhaust gas and urea solution, resolving poor NOx reduction caused by uneven mixing.

Segmented mixing pipes with strategic cutouts prevent urea solution residence and crystallization around the injection nozzle.

Segmented orifices direct fluid to collide on a plate, generating microbubbles at low pressure without complex high-pressure systems.

Replacing electromagnetic coils with permanent magnets cuts power consumption to 0.72 kW/ton while eliminating expensive three-phase current requirements.

Mesh rotor-stator stages pulverize fluid via cavitation, solving the trade-off between high productivity and low energy consumption.

Dual conical sections with varying angles maintain a constant mixing ratio despite carrier liquid pressure fluctuations.

Multiple condensers connected in series process non-azeotropic working fluid to lower condensation temperature progressively.

Segmented reusable pump units paired with disposable cartridges resolve contamination risks while maintaining adaptability across diverse product formulations.

A cylindrical mixing device with circular arc divider walls creates a spiral flow path to cool and redistribute fluid between catalyst beds.

An inclined blade mixing member directs reducing agent through a base passage to prevent upstream adhesion and white deposit formation.

Segmented internal baffles create turbulence zones that suspend settled particulates, resolving inadequate mixing from simple shaking.