Flow Mixers TRIZ Cases

Segmented outlet mixer pipe generates turbulence to homogenize exhaust streams, resolving measurement errors and reducing DEF consumption.

A dispersion apparatus combines rotor-stator and piston homogenizers to prepare pigment and wax dual dispersions.

A gas dissolving device uses a tapered tube-shaped passage to form laminar flow and prevent pressure variation during discharge.

Negative pressure drives fluid across a porous membrane to shear gas, maintaining ozone stability while boosting nanobubble production efficiency.

Real-time wax injection stabilizes coating asphalt viscosity, reducing material waste and ensuring consistent shingle thickness.

Varying cross-sectional shapes and distributed obstacles in a flow reactor channel improve mixing performance while reducing pressure drop.

A mixer stator and slinger assembly channels fluid radially to disperse additives.

Segmented seat rings reduce thermal stress in desuperheaters by allowing independent expansion of each segment during high temperature differentials.

Ultrapure water washes the ammonia storage tank interior to remove fine particles, preventing substrate contamination during RCA cleaning.

An integrated storage tank maintains additive flow while exchangeable cartridges empty, eliminating system shutdowns required for complete cartridge evacuation.

Multi-hole injection minimizes pressure drop and prevents de-gassing while improving mass transfer quality.

A slurry pressurizer forms high pressure slurry using clear fluid, reducing pump wear from abrasive flow.

An integrated injection grid merges tempering air and ammonia nozzles to cool the gas stream, reducing system complexity while ensuring uniform distribution.

Radial apertures distribute urea via diverted exhaust flow, preventing wall accumulation and reducing backpressure.

A compact sludge transfer apparatus uses a remote stirring mechanism to crush and move radioactive waste.

Angled guide vanes on a flat plate mixer enhance educt vaporization and mixing while reducing back pressure in internal combustion engine exhaust systems.

A self-contained ozone injector device uses a spring-loaded clearing piston to automatically remove calcium deposits from the injection port.

Segmented supply channels deliver lubricating and cooling media to distinct piston regions, preventing slurry contamination while reducing wear.

A passive chemical injection system uses process line pressure differentials to drive solution flow through calibrated capillary tubing.

A turbulent flow generation film creates mixing by forming and bursting bubbles as fluids pass through its through-holes.

In-line mixing systems divert fluid flow through spillback loops to maintain pumps at optimal efficiency points, resolving energy productivity trade-offs.

Infusing inert gas into ozonated water extends shelf life by four orders of magnitude while maintaining disinfection effectiveness.

Simultaneous injection of elastomer emulsion and silica slurry forms a vortex that prevents agglomeration.

An upstream mixer with impingement floor and vanes prevents reductant condensation on cool walls.

Segmented jets impinge on channel walls to resolve poor coaxial mixing efficiency, reducing reaction times and minimizing back-mixing.

A homogenizer back flushing structure reverses raw material flow direction to clear internal passages.

A perforated tube housed in a mixing chamber improves urea homogeneity and reduces deposits while accommodating varying exhaust passage geometries.

A portable hydrodynamic cavitation manifold uses angled baffle units to induce uniform fluid mixing at high flow rates.

Segmenting the flow distributor into a baffle plate and collar resolves structural durability conflicts while minimizing backpressure in exhaust systems.

A modular gas injection apparatus uses segmented chambers and pressure regulators to control flow parameters.

A static mixer assembly uses notched base tubes and interlocking tabs to secure mixing blades without internal weld surfaces.

Segmenting flow into coaxial inner and outer venturis reduces friction losses while maintaining accurate pressure signal generation.

Diagnostic channels with micro-projection arrays increase surface area to enhance fluid mixing and diffusion.

A ceramic powder mixer uses a vibrating perforated baffle and ionized air injection to distribute colorants uniformly across granules.

Segmented mating surfaces on a single doser mount accommodate multiple mixer shell sizes, reducing part proliferation and assembly complexity.

Hydraulic torque from flowing suspension drives automatic rotation of a distributor element, preventing particle sedimentation without active motors.

A forced recirculation mixer uses a turbine-driven loop to circulate gas and vaporizable liquid.

Segmented perforated walls homogenize flue gas velocity profiles to reduce ammonia slip and improve NOx conversion efficiency.

Segmented grinding chambers and adjustable gaps reduce oversize material while maintaining high throughput without pump blockages.

A double vortex mixer sustains intensive mixing of reactants to produce supersaturated solutions.

Jet nozzles and baffle plates emulsify drilling mud in a single pass, eliminating multiple treatment cycles for optimal rheology.

A pipe mixer uses a circulation pump to boost fluid velocity through static mixing segments.

Segmented mixer housing resolves manufacturing complexity by combining two interconnected parts to ensure structural stability.

A multi-interface syringe system mixes and delivers bone cement using a detachable handle and pressure delivery device.

A cross-flow apparatus uses a stationary tubular membrane to detach droplets via continuous phase flow.

Segmented mixing devices prevent wall deposits and reduce backpressure by creating targeted swirl patterns for complete urea decomposition.

A hybrid mixer uses a central rotor and valve arrangement to enable axial and radial medium flow for efficient processing.

Angled gas injection ports create turbulence in a mixing chamber to prevent particle aggregation and ensure accurate measurement readings.

Nozzle devices charge dilution medium to acid streams before the inlet, deflecting flows by 90 degrees to eliminate static mixers and reduce pressure loss.

A microchannel device uses surfactant-treated fluorine polymer bases to enhance solvent resistance and bondability.