Flow Mixers TRIZ Cases

A cooking vessel heats starch slurry with steam while applying shear forces to enhance cohesiveness.

Curved walls in the mixer create double swirl flows to increase urea evaporation time, resolving uneven ammonia distribution and preventing crystallization.

Calibrated orifices in a tubular inner body create proportional dosing through hydraulic pressure drops, eliminating complex mechanical pumps.

An adapter uses a nested venturi tube to mix extinguishing agent with water, boosting cooling power in standpipe systems.

Shield eliminates crevices between injector and side wall to prevent liquid accumulation, crystallization, and thermal insulation gaps.

A pneumatic bypass feeder diverts chemicals into fluid streams using kinetic energy from flowing water without electrical power.

Aspiration fluid injection system uses venturi pressure differential to divert flow and control product dispensing rates.

Continuous slurry circulation in a dual batch system produces calcium hydrogen carbonate, resolving slow dissolution rates and large equipment footprints.

Automated recirculation loop mixes acid powder and water while a pH sensor continuously adjusts concentrations to prevent manual handling errors.

A rotor cylinder with interlocking blade notches supports a front bearing to stabilize mixing components.

Split chambers in a microfluidic device induce secondary flows to maximize heat transfer while minimizing pressure drop.

Segmenting fluid flow through concentric conduits controls droplet size and nesting levels, resolving consistency issues in multiple emulsion manufacturing.

Serpentine flow distribution channels generate high pressure drops to resolve uneven flow distribution and pressure variations in microchannel arrays.

Blunt-edged turbines and segmented baffles reduce shear in solvent extraction mixers to promote droplet coalescence.

A hydrodynamic trapping zone immobilizes particles in a dissolution vessel for sequential optical imaging without mechanical contact.

Rotating auxiliary intake unit enhances air suction for efficient deep water aeration without increasing power output.

Multi-directional flow passages in the nano cell block module induce shear forces and cavitation, resolving insufficient particle collision under high pressure.

Replacing mechanical scales, the dosing piston measures filling quantities by displacement volume to improve mixing efficiency.

A biological fluid collection device uses an inline mixer to capture and redistribute high concentration fronts within the sample flow.

Hollow insert exerts outward pressure against housing inner surface, eliminating separate fasteners and reducing manufacturing complexity.

Radial spacing between the mix pipe and sheath positions a heater in the gap to reduce chemical deposits while minimizing power consumption.

Widening the conveyor pipe reduces fibre stream speed, resolving non-homogeneous adhesive application and clogging in wet gluing processes.

Elongated water passages create negative pressure to draw air into the mixing chamber, resolving insufficient air suction in conventional designs.

Conical spiral channels in a vortex chamber increase rotational speed and induce cavitation, killing microorganisms without external power.

A co-current contactor injects liquid as fine droplets into a gas stream to enable efficient mass transfer and purification.

Swirling baffles create turbulence to increase heat transfer rates, eliminating uneven temperature distribution in hydroprocessing reactors.

Multi-axis nozzles on a floating vessel resolve visibility and directional control conflicts, while hydraulic hitches simplify transport.

Jet pump agitation separates hydrocarbons from tailings slurry, reclaiming land by eliminating large storage areas required for persistent ponds.

Segmented U-shaped guide plates create swirl and deflect flow to eliminate dead water areas, ensuring homogeneous reductant distribution in exhaust systems.

Three-sided vanes redirect slurry counterflow while the expeller accelerates sand delivery, boosting fluid pressure in downhole fracking operations.

Triangular plates with orifices create intense cavitation to disrupt bacteria cell walls while maintaining minimal pressure loss.

Variable speed impellers maintain suction force at depth, resolving energy loss while generating controlled micro and nano bubbles.

A filtration filter concentrates fine bubbles in liquid by separating them from larger components to achieve target density levels.

Segmented injection units feed components into a mixing tube to resolve metering accuracy trade-offs during continuous polyurethane foam application.

A micro atomizer forms a precise liquid-gas contact space using a thick-wall channel and cap to generate reproducible aerosols at microliter flow rates.

Static mixing body generates turbulence in exhaust gases to enhance ammonia dispersion while reducing pressure drops.

An atomizer return system routes flushed residues away from the booth to eliminate VOC emissions while allowing parallel cleaning that shortens cycle time.

Inline mixer draws air into flowing adhesive via pressure differentials, eliminating external power needs while reducing material volume.

A counterflow mixer injects gas opposite to the main flow to resolve insufficient diffusion time and prevent radical recombination.

A two-stage gas-liquid separation device uses conical spiral fields to generate centrifugal force for rapid phase separation.

A conical mixing manifold and static mixer combine stock components to achieve homogeneous consistency in fiber web production.

A mixing assembly uses a peripheral wall mixer to generate swirl flow for exhaust gas and reactant interaction.

A fine bubble generator uses a venturi portion and recirculation flow path to refine gas-dissolved water into high-volume fine bubbles.