Flow Mixers TRIZ Cases

Segmented half-shells with radial projections create vortex flow, resolving material usage versus connection stability.

A recirculation stage creates under-pressure to facilitate particle introduction into a mixing device.

Arc guiding plates separate and recombine colloid streams to form a whirlpool, preventing air bubbles and clots during mixing.

A spiral mixing chamber induces turbulence to blend contrast and flushing fluids, resolving backflow issues in angiographic procedures.

Inclined outlet channels inject secondary gas into a main flow at 15 to 75 degrees, preventing local hot spots from uneven oxygen distribution.

A diesel exhaust fluid nozzle uses a converging-diverging flow path to atomize reductant solution.

A mixer assembly uses a deflector wall to create swirling exhaust gas flow for thorough reducing agent distribution.

A Venturi tube uses a ring-shaped fluid passageway to create smaller gas bubbles and enhance dissolution rates.

Dual swirl promoting means create a swirling motion in the gaseous flow to enhance reactant mixing within the exhaust aftertreatment system.

A tapered air inlet structure guides external gas into liquid flow channels for smooth convection and stable extraction.

Mechanical pressure agglomeration replaces lengthy chemical polymerization to increase average particle size without introducing impurities into ABS copolymers.

High-pressure extrusion through a die assembly breaks up agglomerates, reducing conching time and energy consumption.

Recessed mixing chamber surfaces aerosolize repair liquid and compressed air, eliminating sequential injection delays and reducing tire repair time.

Flow splitting regions with directing capes divide microchannels into subpassages, eliminating dead zones and reducing pressure resistance.

A vortex cylinder creates a low-pressure zone to draw air into aqueous streams, enhancing oxygen dissolution.

A fluid mixing system circulates water through a submersible pump and diffusers to homogenize reservoir contents.

A spray gun air purge system cleans nozzle residue between cycles to maintain consistent atomization.

Supersonic gas injection through a Laval nozzle generates shock waves and turbulence, eliminating mechanical pumping needs while improving oxygen solubility.

Infrared radiation reduces interfacial tension during emulsification, eliminating surfactant emissions while maintaining stability.

Periodic flow reversals in a curved channel sustain Dean vortices to balance high velocity mixing with extended residence time, reducing energy consumption.

Unequal channel lengths release fluid portions at discrete intervals, reducing methane concentration from 45,000 ppm to 4,000 ppm.

A Venturi pump integrates a non-return valve in the dilution air circuit to prevent powder infiltration into pneumatic components.

Helical ribs generate swirling fluid motion to fill the outlet channel, preventing obstructions and maintaining flow rate without adding pressure drops.

Extended troughs with aligned outlet spouts distribute liquid evenly across deck zones, preventing maldistribution and improving mass transfer efficiency.

Tangential liquid injection creates a vortex in the mixing bowl to prevent clogging, enabling rapid pneumatic powder aspiration without manual handling.

A nozzle design generates micro bubbles from gas-saturated liquid using a discharge channel with an increasing diameter.

An exhaust gas mixer integrates an external electric heater on the mixing body wall to heat reactants for rapid evaporation during cold engine starts.

Pressure sensor detects endpoint during droplet generation in microfluidic chip, eliminating sample wastage and ensuring uniform emulsion formation.

Segmented porous inlet vanes generate swirl flow to mix DEF with exhaust gases, resolving residence time and volume trade-offs.

Centrifugal pump stator and rotor generate cavitation away from equipment parts to reduce manufacturing costs.

Recirculation pumps circulate low-VOC colorant slurries back to canisters via a rotating table, preventing pigment settling and clogging.

Nested mixing levels with bifurcated and merging junctions achieve precise fluid dilutions while reducing apparatus size for lab-on-a-chip applications.

Magnetic actuation moves surface structures to disrupt clogs, reducing reaction times during nucleic acid extraction.

A nozzle-based apparatus atomizes liquid solutions into mist using carrier gas to create a separable mixture.

A vehicle exhaust mixer uses baffles to create a rotational flow path for reducing agent distribution.

A fluid eductor entrains microingredients into a liquid stream for rapid mixing using non-compartmentalized vibratory trays.

A static mixer uses angled segments and deflector plates to direct multi-component material flows through parallel passages.

Radial redirection via vortical swirling flow increases residence time and ammonia distribution across the SCR catalyst surface.

A homogenizer back flushing structure reverses raw material flow direction to clear nano cell block passages.

Concentrated amino formaldehyde resin production uses continuous plug flow reactors to achieve high solid content solutions.

A mixing tank dissolves solid electrolyte components in water to produce a homogeneous liquid acid concentrate for hemodialysis machines.

Helically cut conical member inside frustum housing generates swirling liquid motion, resolving insufficient bubble fineness in traditional gas mixing.

A gravity-driven paddle wheel rotates to meter falling feed and drive a mechanical additive dispenser.

Pressurized water enters a coned reactor where gas injection creates supersaturation, resolving low dissolved oxygen limits in hydroponic cultivation.

Widened conduit portion positions additive injector to enhance spray dispersion, maintaining exhaust gas velocity while preventing crystal formation.

Radial particle distribution via annular ring prevents sticking and reduces losses in vacuum blending.

Throttle acceleration increases exhaust velocity over a thickened wall section, preventing solid urea accumulation by ensuring complete vaporization.

Magnetic coupling eliminates friction during scraping while sensor arrays detect resin accumulation and flow errors.