Flow Mixers TRIZ Cases

This high-shear chamber uses stepped depth zones to preserve shear while increasing flow area and reducing cavitation severity.

A segmented nozzle mixes components and air for uniform foam at lower pressure.

This nozzle uses angled liquid ejection and collision to create mist containing microbubbles and ultrafine bubbles without gas supply.

Branching and merging flow groups generate swirling flow while suppressing reverse vortices, improving mixing and dilution.

Area-ratio-controlled branch and merging openings suppress reverse vortices, improving mixing uniformity while reducing pressure loss.

Real-time analysis and inline mixing remove storage tanks, turbulence, and settling before high-pressure pump injection.

This case combines microfluidic capture with TIRF imaging to detect tumor-specific proteins at trace levels for early cancer detection.

A suction-driven CIJ mixer uses imbalanced jet momenta to simplify flow control and produce narrower particle size distributions.

A nanogas solution injected into a pipe shears oily slurry, reducing residual oil below 200 ppm without high-energy impellers.

A pumped mixing circuit uses optical feedback and robotic dispensing to reduce batching time, floor space, errors, and waste.

Offset orifices and sequential chambers enable uniform mixing, gas-bubble trapping, and residence time independent of flow rate.

A switching mechanism combines wine and air extraction, then leaves a compact wine plug to preserve vacuum sealing during storage.

A flow guide separates injection and mixing zones, improving urea distribution while limiting deposits and exhaust-flow disruption.

Orifice plates create low-pressure zones for treatment-fluid injection, enabling simpler fuel blending at standard pressures.

Flow sensors trigger inline treatment or substitution, expanding faucet liquid options without extensive plumbing changes.

Peristaltic pumps feed separate base products into a single-use static mixer for accurate, contamination-free on-demand dosing.

A fluid mixing insert and downstream tube combine liquid, gas, and additive streams to limit perturbations in UHP waterjet cutting.

A helical guide groove replaces current-control plates to produce ultra fine bubbles while maintaining flow and reducing debris buildup.

Baffles create turbulence in the funnel to prevent foam separation, improving gypsum board core formation, density, and strength.

Transition conduit assemblies deliver new water to the reservoir top, promoting downflow and mixing without pumps or added equipment.

A mixer, downstream flow disrupters, and perforated plate improve reductant distribution while limiting pressure drop and deposits.

Lobed transition sections generate swirl, while removable pipes ease cleaning and help prevent blockages without welded spiral sheets.

A helical mixer cuts ozone bubbles while float-piston degassing removes excess gas and maintains solution flowrate.

Angled inlets drive turbulent mixing for smaller, more uniform lipid nanoparticles.

This case uses fluidly separated conduits and a spout mixing chamber to blend water and additives on demand while limiting contamination.

A guide creates a laminar carrier flow around the doser, preventing reactant accrual without compressed air.

Expanding cross-section static mixers prevent gas-liquid segregation by deflecting marginal flows to maintain homogeneous distribution.

Tangential inlet swirl and nozzle turbulence dissolve gas in liquid, preventing bubble formation during underwater discharge operations.

Controlling liquid levels via circulation prevents slurry from contacting the shaft seal, eliminating particulate damage and extending component lifespan.

Vortexing chamber structural impediment objects create turbulence to disperse gas into liquid without active moving parts.

Differentiated cavity coatings prevent fluid settlement in air cavities, reducing friction and improving mixing performance.

Segmented ultrafine bubble generating units operate independently with dynamic switching mechanisms to prevent supply interruptions during maintenance.

Electric fields replace mechanical valves to sort and fuse droplets, resolving the trade-off between manipulation precision and device complexity.

A baffle system redirects exhaust gas flow to enhance urea mixing within the decomposition tube.

A spring-loaded clearing piston moves within the water passageway to regulate ozone flow through a venturi mechanism.

A nozzle switches between single fluid and binary fluid spray modes based on liquid pressure levels.

Spray nozzles atomize dilution water into 300-micron droplets, improving contact efficiency with brine to enhance crude oil desalting performance.

Precision slots in ceramic sections generate micro-bubbles via shear, eliminating porous media blockage and wear.

A flow exchanger system transfers pressure energy from clean fluids to sand slurry using a fluid interface separator.

Radial elevations in the heating section enhance evaporation and reduce counterpressure, resolving deposit formation during cold starts.

Water flow vacuum siphons chemicals into RV supply lines, eliminating manual metering errors and ensuring consistent wastewater treatment.

Zig-zag microfluidic channels induce hydrodynamic fusion of surfactant-stabilized droplets, resolving the trade-off between precise control and high throughput.

A venturi evacuation device uses nebulized water to create negative pressure for gas transport.

An articulated guide structure rotates 360 degrees and articulates 180 degrees to remove residues from tank bottoms without complex sealing.

Bent blades in a single row create swirling flow patterns that vaporize reductants and reduce deposits while maintaining low pressure drop.

Curved flow channels reduce downstream turbulence and noise while maintaining measurement precision.

Segmented turbulence elements on a carrier rod enable retroactive assembly, resolving the trade-off between adaptability and device complexity.

Cleaning boxes with screw conveyors remove glued fibers from suction systems, preventing caking and maintaining production efficiency.

Nanoemulsion collector agents reduce droplet size to improve selectivity, lowering silica content in iron ore concentrates.

Cool hydrogen propels swirling vanes to generate three-dimensional cyclonic flow within the mixing chamber.