Flow Mixers TRIZ Cases

Baffles in an elongate cylindrical tube create turbulence zones that mix air into water, raising dissolved oxygen levels without expensive mechanical aerators.

Segmented nested tubes resolve microreactor complexity limits by enabling high-pressure industrial production with precise temperature control.

Microporous diffusers generate microcellular food structures by dispersing gas through static mixers, preventing large cell collapse.

A transportable plant integrates static mixing elements with a control unit to produce homogeneous chemical mixtures at user premises.

Interleaved deflector blade grids join via uncut side edges forming transverse strips, eliminating welding labor while maintaining structural strength.

Liquid-permeable membranes regulate additive release rates to prevent equipment damage from sudden chemical slugs in cooling systems.

Parallel chokes segment liquid streams to maintain diffusion efficiency at high flow rates.

A guide structure channels side flow via pressure difference to form a laminar carrier flow, preventing urea accrual on the doser tip without compressed air.

Slot-shaped apertures in honeycomb cell walls induce secondary fluid flows to improve heat exchange and mixing efficiency.

Segmented aerator chambers maintain flow rate while preventing over-oxidation.

Venturi apparatus dissolves oxygen into water without colloidal minerals, eliminating ingestion hazards while maintaining high dissolved oxygen concentrations.

A hand-held dispenser uses a rotatable spool valve to regulate water flow rate and chemical injection.

Three symmetrically arranged helical springs form an inner cavity to process larger fluid quantities while maintaining turbulence characteristics.

Spray devices direct liquid raw materials toward inner walls to maintain hygiene standards while reducing cleaning time between product batches.

Oppositely twisted mixing elements reduce swirls in ultrasonic flow meters, improving measurement accuracy without increasing pressure drop.

A method increases ferric chloride concentration by adding hydrochloric acid and iron substances.

A variable cross-sectional mixing zone injects supersonic steam into process liquid, resolving wall-flow bottlenecks that prevent slurry penetration.

Recirculation pipe returns hydrogen water to the mixing device, extending dissolution time and stabilizing concentration without increasing volume.

Sequential temperature-controlled reactors in a continuous emulsion aggregation system reduce processing time and improve batch-to-batch consistency.

Tangential inlet orifices drive a vortex mixer that equilibrates temperature and composition in hydroprocessing reactors.

Helical baffles induce rotational fluid flow in a cuvette tube, ensuring uniform UV exposure and preventing overheating during pathogen inactivation.

Sulfur-free polymer stators prevent curing inhibition and minimize material loss during low viscosity silicone foam dispensing.

Segmented blades with distinct geometries resolve insufficient mixing efficiency by generating counter-spiral flow and shear stress between facing portions.

A water discharge device uses a segmented rectifying chamber to maintain linear flow transparency.

A dissolved air flotation system draws ambient air into a circulation pump to generate micro bubbles.

A gas injection nozzle absorbs pressure peaks in liquid flow, reducing pump vibrations that degrade projection accuracy in immersion lithography.

Segmented divergent cone generates separated premix jets to resolve insufficient foam expansion and limited jet range in fire hose nozzles.

Angled sheet metal part on deflection element redirects exhaust gas and injected fluid to resolve mixing non-uniformity in curved pipes.

Axial vane divider segments liquid flow to create turbulence, resolving the trade-off between aeration effectiveness and manual decanting convenience.

Hydraulic agitation reduces solubilization time while maintaining solution temperature for immediate deicing.

Flow guide assembly prevents wall impingement, ensuring uniform droplet distribution for effective NOx conversion.

A weldless in-line mixer uses a conical flow member to generate turbulence for efficient fluid mixing.

A turbine-driven pump meters chemical concentrate into pressurized diluent flow using mechanical rotation.

Liquid-liquid ejectors mix motive and suction fluids to produce stable emulsions, eliminating batch instability and storage degradation.

Non-axial symmetric injector geometry minimizes pressure loss while increasing suction pressure and dissolved gas concentrations in liquid streams.

Segmented perforation plates create nested mixing zones that resolve the trade-off between reduced system volume and deteriorated mixing efficiency.

Baffles segment the common discharge tube to prevent backflow and pressure imbalances between selected and non-selected eductors.

Flexible vapor hoods capture high Reid vapor pressure fluids while one-way valves prevent escape through the proppant entrance port.

Folded guide blade pairs form an annular mixer that reduces flow resistance and enhances reactant mixing efficiency in exhaust systems.

An overflow pipe mixer injects liquid reductant into hot exhaust gas, using swirl components to ensure complete vaporization and uniform distribution.

A micromixer uses non-through grooves in channel plates to form fluid passages while maintaining structural integrity between thin channels.

Strategic retrieval of large particles during recirculation cuts production time and energy consumption.

Segmented inlet baffles direct exhaust gas through multiple pathways to minimize backpressure in compact mixer configurations.

A bubble implosion reactor cavitation device processes fluids using a nested tube-shaped body and generator subassembly to induce micro-bubble collapse.

A mixing ring uses a perpendicular diffuser to direct solvent flow toward solute, creating automatic proportional mixing through fluid dynamics.

Inverting fluid flow through deflector plugs generates high shear rates, reducing energy waste converted into heat during particle breakdown.

A nozzle assembly mixes plural component materials with nucleation air to produce aerated foam.

A static emulsification device mixes jetted water and oil phases without mechanical stirring.