Flow Mixers TRIZ Cases

Turbulence-generating elements mix blood components and additive solutions, preventing filter clogging from suboptimal viscosity.

Waisted web geometry lowers pressure loss while maintaining mixing quality in laminar flow.

A spatially controllable eductor adjusts motive fluid profiles to control solid additive distribution within a mixing chamber.

Concave corner fillings direct flowable components toward outlets, reducing stagnation and pressure gradients to extend service life.

A helical exhaust mixer defines the flow path with a partition plate, achieving homogeneous mixing while reducing pressure loss.

A distribution tube premixes fluids upstream of static mixer elements to improve homogeneity across varying flow rates.

Stationary cavitation plate with segmented flow elements replaces rotating impellers to deliver uniform bubble distribution across the entire fluid volume.

A ceramic-surrounded metal diffusing member mixes exhaust gas while maintaining thermal insulation.

A pipe assembly mixes ozone gas into circulating water using parallel flow paths and control valves to generate negative pressure.

Intelligent differential pressure transmitter detects incipient flooding to trigger antifoam injection pumps only when needed.

A microfluidic device uses herringbone grooves to generate chaotic mixing for rapid extracellular vesicle capture.

A dispersing apparatus applies tensile stress to agglomerated particles via a nozzle and channel jet.

A microfluidic chip generates controlled shear stress between opposing rotating surfaces to form uniform biologically ingestible particles.

A mixing nozzle injects water aerosol into dry shotcrete streams to optimize rheology and composition before spraying.

Jet pump generates turbulence to homogenize fluid substance, eliminating external agitators and reducing shipment volume.

Dynamic pressure alternation cleans microchannel entrances, preventing blockages and ensuring reliable high-volume emulsion production.

Side inlet pipes generate rotating flow in the center channel, ensuring uniform reactant distribution while preventing urea deposits.

Modular stator design enables quick replacement without full disassembly, resolving maintenance complexity in liquid polymer dosing systems.

Flat-shaped cellulosic materials combine with sodium bentonite clay to reduce bulk density by sixty percent while maintaining clump strength.

Multiple liquid jets reduce turbulence and energy consumption while maximizing gas absorption in fermentation broths.

Continuous media dispersing and homogenization resolve the contradiction between fine grinding yield and storage stability in aqueous pigment dispersions.

Segmented supply lines enable on-line lubricant mixing, eliminating storage tanks and reducing conversion time between transmission types.

Radial flow passages in a static mixing device generate vortex motion, reducing pressure drop and internal hold-up volume compared to dynamic mixers.

Replacing dynamic rotors with a static mixer eliminates mechanical seals, resolving reliability issues in high viscosity adhesive foaming systems.

Central and off-centered nozzles create upward jets and swirl movements that homogenize shear-thinning fluids without high-torque mechanical stirrers.

A tubular housing with a threaded shaft circulates non-homogeneous fluids through its exterior surface to improve mixing.

A surface mixing device uses staged housing and static mixers to blend carrier fluids with chemicals.

Segmented screen slits create intermittent jets that boost shear force, refining particles while preventing crystal damage.

Porous inlet and outlet structures in a diffuser assembly redistribute supercritical solvent flow to prevent channeling through packed matrices.

Pressure reduction mechanism in blending chamber passageway creates high velocity airflow that prevents urea crystal formation and corrosion.

A radial injection device feeds liquid into a swirling gas stream to break droplets against the mixing cylinder wall.

Radial vanes in a static mixer assembly create turbulent flow to homogenize fluid components within a wellbore.

A Venturi tube fluid mixer uses a divergent section contour with at least two inflection points to shape the flow path.

Concave spinning disc geometry controls reactant residence time to solve nanoparticle size distribution challenges.

A microfluidic device measures fluid viscosity by monitoring lateral diffusion of a tracer component across laminar flows.

A mixing connector merges exhaust gas recirculation flow into an intake passage using a specific merging section geometry.

An internal injector directs fluid into a descending loose material stream to ensure uniform distribution.

Radial blades on a gasket interrupt fluid flow to prevent vortex formation, reducing air ingress and maintaining tank capacity during agricultural spraying.

Sensors detect abrasive media density variations in cavitated fluid, enabling automated redistribution to resolve inconsistent surface finishing.

Segmented cannula channels prevent premature mixing, while a spinner tip ensures thorough blending at the nozzle.

Adding organic iron compounds and inorganic salts to ozone microbubbles extends half-life to three days at 40°C, solving rapid decomposition.

Centrifugal impeller drives cement-water mixture through a pierced wall to generate pressure and reduce flow speed within the mixing chamber.

Valved segmentation in a solution mixer isolates discrete fluid volumes, resolving accuracy issues in micro-total analysis systems.

A spring-loaded clearing piston actuated by water pressure prevents ozone and water flow into the injector housing.

A sealed cyclone mixing tank blends two independently diluted solutions to achieve uniform homogeneity without toxic gas generation.

Segmented rotating diverter allows maintenance without dismantling piping, resolving sealing reliability trade-offs.

Segmenting the injector from the piping system allows quick replacement without disassembly, resolving maintenance access constraints.

Discharge conduits with orifices create water currents and introduce gas bubbles to oxygenate aquatic environments.

A foam generating device uses a movable sleeve to adjust jet type and orientation.

A convex-concave spray target directs liquid reductant against exhaust flow to accelerate vaporization before the SCR catalyst.