Flow Mixers TRIZ Cases

Atomizing solvent creates a mist that traps airborne nanoparticles, eliminating dispersion risks while maintaining high recovery efficiency.

Pneumatic injection through distribution plates fluidizes fine bulk solids, reducing back pressure and enabling efficient recirculation flow.

A microfluidic flow focusing device generates monodisperse microbubbles through a gradually thinning jet of dispersed phase fluid.

Deoxidizing amino compounds quantify trapped oxygen in clathrate hydrates, resolving detection limits at high temperatures.

A chemical liquid injector adjusts mixing ratios across multiple injection phases using independent piston mechanisms.

Segmented fluid passages prevent orifice clogging while maintaining high-pressure microbubble generation efficiency.

Segmented alternating plates create controlled shear layers that mix NOx and NH3 while maintaining velocity uniformity and reducing pressure drop.

A biscuit element static mixer induces rotational angular velocity to enhance fluid mixing efficiency.

A fluid dosing nozzle injects reagent counter to exhaust flow direction.

Helical mixing elements on the center tube ensure uniform delivery of fuel and black water streams, preventing re-agglomeration at the injector tip.

A drain tube mixes powder with liquid metal under controlled underpressure during transfer between equipment.

A jet ejector and vaporizer mix pumped fuel with ullage gas to create a rich fuel-air mixture for tank inerting.

An integrated capillary vent controls pressurization by sealing upon full insertion, ensuring consistent sample volume delivery.

Quick-connect eductors replace permanent pipe threads to eliminate disassembly time while maintaining seal integrity under high pressure.

A seed treatment method injects powdery substances into aqueous media using vacuum pressure to ensure uniform dispersion and automated mixing.

Standardized modular flow cells accommodate diverse functional elements, resolving the trade-off between system adaptability and device complexity.

Circumferential urea injectors ensure uniform mixing in ship exhaust pipes, preventing local concentration and catalyst precipitation.

A U-shaped exhaust gas mixer disperses recirculated gas into intake air via a dedicated pre-mixing cavity.

Segmented lumens prevent cross-contamination while a spinner region ensures thorough mixing of surgical sealants.

A coaxial reactor generates spiral flow to extend reactant contact times within an annular channel.

A nozzle member with a helical groove creates an upward swirl to recirculate semiconductor fluids.

A high-pressure cleaning device uses pressure detection to switch between detergent and high-pressure modes.

Introducing aggregation compositions prevents formation collapse during cavitation, allowing higher sand-free production rates without co-produced particulate.

A cleaning method uses micro-nano bubbles to peel off residual resist films from substrates.

A submersible accelerator disperses active flocculents into large water volumes using hydraulic shear forces.

A plasma-based wastewater purification device generates turbulent electromagnetic flows to remove metallic and non-metallic pollutants.

A gas turbine intake manifold uses a converging nozzle to mix flue gas and air streams.

Alternating electrode plates in a lamella structure drive electro-coagulation and flotation to remove turbidity and PAHs from ship scrubber wastewater.

Recirculation mixing chamber rotates blades to blend chemicals, eliminating manual dosing errors and rig damage.

Degassing devices remove dissolved oxygen from chemical solutions to prevent foaming and oxidation in semiconductor wafer wash water.

A pulsed metering pump injects viscous concentrate into a diluent stream through a mixing chamber with an enlarged cross section to ensure thorough liquid blending.

Segmented mixing zones resolve the trade-off between rapid polymer activation speed and molecular integrity by applying controlled shear stress.

A sanitary armature mixing device splits inlet flows into interleaved partial streams to achieve rapid temperature homogenization.

Segmented jacket and insert elements reduce manufacturing complexity while enhancing viscous fluid mixing through angled web channels.

A shuttling Venturi controls fluid flow through linear movement.

A submersible aerator uses vertical baffle plates to fragment waste materials while weep holes on the air supply hose vent excess pressure.

A centrifugal dispensing port directs fluid flow within an embalming reservoir to promote rapid mixing.

Tube inserts augment heat transfer in multistage tubular reactors during methylolalkane synthesis.

Radially extending slots in the insert member mix bioadhesive components via fluid dynamics, reducing preparation time during endoscopic procedures.

Segmented hoods and baffles separate gas carry-over to prevent pump cavitation in up-flow reactors.

Spiral swirl flow in the working trough maintains uniform fluid temperature and facilitates scrap discharge during wire cutting.

Central liquid introduction via a spreader creates uniform gas distribution, overcoming uneven mixing limits.

Segmented blade modules simplify additive manufacturing while maintaining high mixing efficiency.

Fine granular ice melts within bentonite to ensure homogeneous moisture content, preventing granular lump formation and shrinkage cracks during drying.

A compressor storage flap adjusts its opening angle through a mechanical transmission system driven by dynamic pressure changes.

A homogenizer uses a center stud to align valve plates, eliminating spring-induced misalignment and crevice contamination during cleaning.

High-pressure emulsion streams collide to create cavitation that relaxes surface tension and enables mechanical separation of ultra-fine solids.

Sequential baffles partition the microchannel to increase the exfoliation effective region and maintain uniform shear stress during graphene production.

A hydraulic venturi mixing device draws concentrate into pressurized water streams to create homogeneous solutions without mechanical agitation.