Flow Mixers TRIZ Cases

Vortex tubing and pressure gradients break injected gas into stable microscopic bubbles that stay suspended in water with lower energy use.

Flow-driven gear pumping and blade mixing keep additive injection proportional to fuel flow for homogeneous mixing and corrosion prevention.

Intersecting rotated webs create a one-piece static mixer insert that simplifies molding while preserving mixing efficiency and low pressure loss.

Chemical precipitation removes salts from seawater before saturation, cutting energy use and membrane fouling in potable water production.

A rotary pump run against its normal flow path enables precise inline bioprocess mixing while limiting pressure rise and improving reproducibility.

Open channels inside a tubular flow path turn dissolved gas into nanobubbles at high concentration while keeping pressure drop below 2 psi.

Concurrent dosing through 40+ mass flow meters and optical recirculation feedback cuts batching time, floor space, and manual error.

Integrated snap hooks, projections, and recesses keep static mixing elements secured in the housing, easing assembly and reducing discarded parts.

Split-and-rejoin channels with T-junctions enable fast homogeneous mixing at low or intermittent laminar flow without harming biological components.

A riser pipe, pump, and mixing pipe keep tank contents and settled particles suspended during draining, improving downstream filtration.

A pressure-compensating flow restrictor doses hypochlorous acid into dispenser water lines to reach effective sanitising concentration and remove pathogens.

A removable flow control insert lets solution applicators be cleaned or swapped quickly, reducing clogging downtime and pressure-related performance loss.

Continuous mixing, enclosed hydration, and dilution replace large tanks to produce fracturing gel with less footprint and easier transport.

A Venturi air-lift with spray nozzle and air guide raises dissolved oxygen while improving tank water circulation at lower operating cost.

Venturi mixing, nanobubbles, and recirculation keep plasma-activated gas dissolved in water to limit recombination and improve PFAS treatment.

A buoy or plate breaks propeller vortices so a liquid circulator can run near the surface with less slurping noise and bottom dredging.

Inner-wall mixing elements split and recombine multiphase streams to improve passive mixing, heat transfer, and dispersion in immiscible flows.

A dual-inlet mixing chamber blends compressed air and repair fluid evenly to prevent coagulation and improve puncture repair in low temperatures.

A high-velocity pre-emulsion jet replaces high-shear mixing to create fine oil droplets with simpler equipment, easier cleaning, and scalable output.

A rotating wheel disc with aligned flow passages creates unsteady hydrodynamic cavitation that stays intense and can discharge bubbles for material processing.

A split-flow shear inducer accelerates a secondary stream to impinge on the main flow, resuspending drilling-fluid solids with low pressure drop.

Angled nozzle flow and an annular cavity create swirling gas that carries dust through pipes without heating zones or frequent cleaning.

Controlled air entrainment and late accelerator addition create pumpable tunnel gap mortar with stable open pores, drainage, and strength.

Controlled cavitation mixes liquids with varying viscosities at lower energy use, enabling ultra-homogeneous blends and repeat-loop reprocessing.

A stacked meander duct path enables gentle floc growth with less flocculant, lower residual carryover, and a smaller treatment footprint.

Angled nozzle gas flow carries dust through process pipes to prevent wall buildup and replace costly heating zones.

Parallel microchannels and controlled pressure distribution improve droplet size uniformity while raising emulsification throughput for scale-up.

Rapid shear mixing and expansion form silk fibroin fibers or aerosols under ambient conditions without electric fields or compressed gas.

Pulsed marker and gas streams create turbulence in vehicle fuel reservoirs, enabling fast homogeneous hydrocarbon marking for immediate testing.

A static mixer below the ESP intake disperses free gas into small bubbles to prevent gas slugs, cavitation, and repetitive pump trips.

Gaps between lump ring segments shorten gypsum slurry residence time, cut the water:stucco ratio, and reduce drying energy demand.

A spray transforming device feeds reductant as a wall film on evaporator surfaces, cutting sub-23 nm urea particle emissions without added back pressure.

Gas-assisted static mixing disperses treatment polymer uniformly without high shear, improving effluent separation and tallow recovery.

Real-time flow monitoring and control improve polymer hydration and mixing uniformity while limiting shear-driven chain scission.

Sequential chambers and offset through-openings improve mixing of pasty components while avoiding unmixed streaks and ratio inconsistency.

Localized reactions at converging liquid fronts create detectable signals for low-concentration analytes without complex fluidic layouts.

Parallel mirror-symmetrical flow channels improve exhaust and urea mixing, boosting evaporation and pollutant reduction in engine exhaust systems.

Agitated reaction gas is directed to damaged turbine areas to remove tenacious oxides faster while limiting exposure of undamaged surfaces.

Sharp-edged conditioning plates split injected gas into nano-bubbles that curb biofilm and scale in water distribution equipment.

Spheroidal bodies create turbulence for consistent NO and O3 mixing, enabling compact NO2 conversion with less length and material.

A nested inner and outer pipe injects water into fish tanks while saving tank space, reducing turbulence, and preserving stable flow conditions.

Recirculating a fixed water volume through a solids dispenser creates a uniform concentrate for reliable CIP cleaning and sanitizing dosing.

Microbubble in-line carbonation enables countertop beverage dispensing at ambient conditions while improving CO2 dissolution and mixing consistency.

Micropost-generated vortices in a microfluidic mixing channel improve hydrophobic-hydrophilic mixing for uniform, reproducible nanoparticle production.

Staggered multi-cell flow paths improve fluid homogeneity while simplifying manufacture and resisting corrosion and high temperatures.

A passive inspirator blender entrains grid gas to mix unconventional gas for grid injection, cutting propane use and control complexity.

A spiral winding flow path alternates reagent and diluent supply to improve dilution accuracy, reduce sedimentation, and cut bottle-change downtime.

Parallel flow paths and flow-rate ratio control adjust submicron bubble concentration precisely while maintaining usable liquid flow.

A venturi-driven mixing cavity improves gas-liquid distribution and tray levelness tolerance for more uniform catalyst wetting.

Pressurized gas and solenoid valves automate dual-cartridge drug mixing and injection, improving homogeneity and reducing user steps.