Flow Mixers TRIZ Cases

An asymmetric guide element creates tangential exhaust flow to prevent urea deposits and maintain SCR catalysis efficiency.

Intersecting micro-channels linked by communicating parts divert fluid around blockages to maintain treatment efficiency.

A variation system adjusts channel volume to coordinate fluid flow, reducing satellite drop formation during high-speed emulsion production.

A dispensing device uses a trigger-controlled flow regulator to switch between froth foam and film-forming fluid applications.

Regulation valve maintains constant pressure difference across static mixer, preventing clogging and ensuring uniform chemical mixing in fiber suspensions.

An asymmetric diverging cone injector adaptor expands flow area to mix diesel exhaust fluid with exhaust gases.

A porous mixing element with a three-dimensional lattice structure creates tortuous flow paths to blend component streams.

Tangent fluid introduction and perpendicular discharge isolate flow paths, reducing kinetic energy loss for nanometer-scale bubble generation.

A vortex blender mixes asphalt cement and polymer additives using fluid dynamics without moving parts.

A feed nozzle assembly atomizes heavy hydrocarbon feeds using staged mixing chambers and steam injection to create fine droplets.

Vortex members create reverse flows to produce uniform bubbles, resolving uneven mixing in standard venturi devices.

Tangential spray nozzles create rotational flow to disperse floating sewage material, preventing accumulation that causes pump clogging.

Gas injection flexes the skirt to break up adhered cement cakes and maintain mixing quality.

An eductor unit mixes additives into wellbore fluids using hydraulic suction.

Segmented plates partition the housing to generate fine bubbles, eliminating blank areas caused by uniform nozzle arrangements.

A mineral drainage unit rapidly discharges residual minerals to prevent micro channel clogging in drinking water supply devices.

Bent distal gas tubes direct angled flow to mix reacting fluids, resolving incomplete coverage and irregularities when spraying near a target surface.

Intersecting capillaries collide gas-enriched liquid streams to create localized convective mixing within a flowing liquid conduit.

A static mixing element and perforated plate segregate fluid flow into parallel streams to eliminate velocity profiles.

Pressurizing the diluent via a dedicated pump enables precise additive timing and amount control, resolving low-flow dispensing bottlenecks.

A flow channel structure merges fluids and alters their direction to enhance mixing efficiency.

A UFB generating unit switches liquid circulation flow velocity to maintain optimal temperature for consistent gas dissolution.

Offset angled inlets prevent crossover events by minimizing back pressure, ensuring reliable foam generation.

Multi-chamber silo mixer homogenizes crushed bath material using mass-flow discharge.

A static mixer uses angled correction fins to divert exhaust flow for uniform distribution across the pipe profile.

A microbubble generator uses a downstream-facing gas supply path to inject gas into liquid flow.

Introducing compressed air into liquid cleaning media generates piston bubble flows that dislodge contaminants, reducing cleaning time and agent consumption.

A fluid delivery device uses an expandable cover to collapse the mixing area and a pin to block the exit orifice when idle.

Interleaved heat exchange circuit channels enable efficient thermal management within a chemical reactor mixing structure.

A continuous mixing system dissolves binder in liquid before sequentially adding conductive and active materials to produce homogeneous electrode coatings.

A concentric nozzle system injects liquid streams to generate horseshoe vortices and turbulent structures within a pipe.

A foam production plant generates high-expansion foam using surfactants and active products to create a durable protective barrier.

A gel reduction mechanism generates extensional flow through squeezing flow paths to disperse impurities in polymer kneaded compounds.

Segmented passageways redirect exhaust gas flow to enhance reductant mixing, reducing backpressure and deposits in aftertreatment systems.

Segmented web geometry reduces installation depth and pressure loss in static mixers for viscous polymer melts.

Replacing crank mechanisms with hydraulic pistons eliminates vibration and pulsation, removing hygienic risks from dampers.

Porous mixing discs create pressure gradients to blend thrombin and fibrinogen, resolving viscosity mismatch issues.

An externally mixing nozzle design blends fluids with different viscosities by adjusting outlet channel cross-sections to match volumetric flow ratios.

A co-extrusion device combines and splits dissimilar material flows to produce interdigitated structures with micron-scale precision.

Intermodal containers enable rapid deployment of a mobile drilling fluid plant, avoiding permanent installation requirements.

A motorized hair coloring appliance uses a pump assembly to dispense dye and developer into a mixing chamber for direct application.

A liquid dispensing system uses a collapsible bag to expel viscous fluids via pressurized diluent flow through unrestricted conduits.

A solvated nanocluster generator uses magnetic surfaces to emit spatial force distributions that create local density undulations in the solvent.

Internal web element channels provide direct heat transfer to prevent polymer decomposition from uneven residence times in high-throughput processing.

External draft tube inversion eliminates internal baffle scaling while variable speed impeller entrains settling solids to reduce blade erosion.

A vacuum valve system hydrates particulate bone graft material by removing gas pockets to ensure uniform liquid absorption.

An external mixing duct enables closed-circuit circulation via a non-invasive pump, eliminating cross-contamination risks from reusable immersed mixers.

Offset curved fins create vortices that improve mixing while reducing head loss.