Flow Mixers TRIZ Cases

A syringe-based mixing device generates therapeutic foam using a porous mesh screen and plunger mechanism.

A portable sprinkler device integrates a solution chamber and Bluetooth communication module for customized lawn care.

An injection plate uses a secondary channel to deliver auxiliary fluid that triggers self-breakup of the primary flow into uniform microdroplets.

A mixing nozzle redirects pressurized diluent against a blocking surface to generate turbulence for uniform beverage blending.

Lance-based grids discharge oxygen into flue gas streams to maintain 21-23.5% concentration, reducing material costs and auxiliary power consumption.

Separate lumens deliver reagents to a spiral mixer chamber, enabling efficient mixing and precise control without increasing device complexity.

A flexible tip transitions between dispensing and non-dispensing states to manage fluid flow.

Tapered gas feed chamber with cut-away parts generates stable high-speed loop flow for efficient fine bubble production.

A reaction mixing pump drives continuous flow aldol condensation to produce alpha, beta-unsaturated aldehydes while minimizing starting material loss.

A dissolver tube with Venturi-structured mesh screens contracts and shears fluid to enhance hydroxyl radical production.

A gypsum slurry mixer gate uses a perpendicular injection port to mix foam additives directly into the flow path for uniform distribution.

An inert fluid layer acts as a wall between reactive sub-flows in a micro-reactor, preventing clogging and fouling while maintaining high throughput.

Offset inlets induce swirl and flow constrictions enhance turbulence, achieving uniform fuel-water mixtures that lower NOx emissions.

A radial flow steam injection heater uses a regulating member to control steam exposure through a central mixing tube.

A floating manure agitator uses slurry pump jets to create vortices that suspend settled solids into the supernatant layer.

Transportable pipe assembly creates negative pressure to draw ozone into high-pressure water flow for in-line mixing.

A bi-stable flow restrictor mechanism stabilizes gas/air mixing in burner devices.

Segmented cascade of partial volumes with helical flow prevents back-mixing and turbulence, resolving throughput and reaction control contradictions.

Internal baffles segment rising air bubbles in a submersible aerator, creating turbulence that breaks up wastewater contaminants without mechanical parts.

A mobile combination unit integrates vacuuming, mixing, and centrifugation to manage drilling fluids on-site.

A foam dispensing device uses a variable cross-section nozzle to generate pressurized adhesive foam through fluid interference.

Radial inlets on a mixing nozzle generate spiraling turbulence to triple pump flow rate and reduce vessel turnover time.

Feedback control adjusts CO2 injection to maintain target pressure, preventing over-carbonation and preserving volatile aromas.

Segmented mixing sections and an intermediary valve prevent liquid backflow into the powder feed channel when rotor speed drops, eliminating blockages.

Tilting the propeller shaft axis by 3 to 5 degrees reduces energy consumption while maintaining effective mixing in wastewater treatment tanks.

Nozzles at upstream bends inject oxygen into circulating exhaust gas to overcome low CO2 diffusivity and achieve uniform mixing.

Foamed plastic inserts lower mold cavity pressure and prevent sink marks, enabling thin-walled static mixers with high length-to-thickness ratios.

Rapid connection means on a rotatable platform enable non-specialized personnel to assemble the dispenser without tools, reducing maintenance costs.

A rotating high shear element disperses gas into fine bubbles within slurry flow through a dedicated sparging unit.

A recirculation system circulates liquid through a porous carbonation stone to dissolve CO2 at controlled pressures.

Offset vanes in a Venturi body generate swirling flow to improve exhaust and reductant mixing uniformity.

Deployable projections in a flow duct create secondary flows to enhance mixing efficiency while minimizing flow resistance through periodic actuation.

A pipe-in-pipe mixing device generates tangential flow in an annular space to blend liquid substances efficiently.

Skewed upward jets destratify temperature gradients in reservoir tanks, ensuring uniform disinfectant distribution without underwater maintenance.

A two-tank atomizing system directs gas through nozzles to mix with liquid in a second treatment tank for stable droplet generation.

A shapeless alphabet encodes data through the entropic state of mixed ingredients to enable robust reading from any direction.

A hydraulic fluid injection system controls nutrient flow rates using solubility and weight parameters to dispense saturated solutions without electricity.

Enclosed drum mixer uses distributed impellers to entrain stagnant boundary layer fluids, eliminating rigid mounting requirements.

A reaction apparatus uses a bypass pipeline to feed materials directly from the pump discharge to the kettle bottom.

Segmented double-walled elements reverse exhaust flow direction to increase urea residence time without extending chamber length.

An integrated tank merges rainwater and greywater sources, using a jet pump to mix fluids for irrigation while eliminating separate pumping systems.

Segmented urea mixer divides exhaust flow into parallel paths, preventing ammonia crystallization while reducing system volume.

A jet apparatus expands motive fluid volume to stir viscous media, reducing momentum loss and eliminating mechanical wear.

Replacing mechanical compressors with a solid-state concentrator reduces system complexity while generating oxygen nanobubbles.

Nested duct sections generate turbulence to break liquid droplets, resolving insufficient mixing in exhaust systems.

Segmented injection outlets distribute flocculating agent across the pipe cross-section, resolving poor mixing in non-Newtonian mature fine tailings streams.

A turning vane positioned upstream of the bypass inlet redistributes fluid flow uniformly, reducing entrance effects and improving instrument range.

Segmented angled air holes produce microbubbles that extend residence time, resolving low mass-transfer efficiency in existing generators.

Radial blades swirl exhaust gas through a mixer body to disperse treatment fluid, preventing deposit accumulation that reduces mixing efficiency.

A cylindrical chamber diffuses gas into liquid using a porous sparger to create fine bubbles within a spiral flow.