Flow Mixers TRIZ Cases

Controlled agitation prevents bead crosslinking, extending resin life during factor VIII purification.

Cavitation replaces high-pressure homogenizers to boost bioalcohol yield while lowering energy input.

Electrodes detect droplets via electrical conduction, eliminating expensive vision systems to reduce device complexity.

Segmented tube inserts and staged reactant injection control temperature spikes in methylolalkane synthesis, reducing unwanted byproduct formation.

A flexible pack uses a moveable insert to mix pressurized fluid and air, reducing headspace volume while maintaining foaming quality.

Lateral inlets induce rotary exhaust gas motion to prevent wall deposits, while inclined dosing outlets promote rapid reducing agent evaporation.

A fluid reactor introduces a laminar rinsing flow to deflect the collision disk and prevent nanoparticle rebound.

Deflection walls in rest reservoirs slow faster fluid streams to match slower component speeds, enabling uniform mixing of disparate rheological properties.

Segmented housing halves pivot open to access baffles, resolving cleaning contradictions in reusable fluid mixing systems.

Removable nozzle inserts prevent condensation interference, maintaining droplet size consistency across varying water temperatures.

Closing members force fluids into a meandering path within a porous partition, increasing contact time and preventing rapid reactions in laminar flow.

Angled air inlet profile creates vacuum pressure to inject high-velocity gas, resolving poor mixing and sediment buildup in liquid tanks.

Segmented blades with detent hinges fold for small manway access while maintaining laminar flow during operation.

A dispersion device regulates gas bubble size by adjusting the volume flow ratio between gaseous and liquid fluids.

A mixing screw tip generates helical melt flow to equalize temperature distribution without extending residence time.

A powder mixing apparatus uses gas flow to blend particulate materials.

Variable flow-through cavitation devices reduce energy consumption and processing time by dynamically aligning inner and outer annular bodies.

Segmented mixing chambers guide exhaust flow to blend reaction agents, reducing condensation and pressure loss in SCR systems.

Integrating a ball mill grinder inside the toroidal mixer vessel eliminates external piping, simplifying installation and operation.

Branch channels distribute continuous phase to shear dispersed phase, resolving fluid distribution issues across parallel microchannels.

A rotating surface apparatus atomizes liquid compounds into aerosols for deposition onto a spinning medium.

Alternating fin sets induce counter-rotary gas flows to enhance reagent mixing efficiency while minimizing pressure drops in SCR systems.

Adjustable overflow weirs and conductivity feedback resolve contradictions between volumetric flow control and target concentration precision.

A mixing chamber uses sequential flow deflection regions to create turbulence for efficient exhaust gas and reactant blending.

A dispensing strainer prevents clumping while a chilling system controls temperature to automate gelatin production.

Pre-diluting aqueous polyacrylamide concentrate to 0.01-2 wt% resolves insufficient hydration speed in oil recovery fluid production.

Optimized web plate geometry reduces pressure loss while increasing heat transfer efficiency for high-viscosity fluids.

Cross intersection microchannels sequentially produce uniform microdroplets from multiple dispersion phases.

Segmented static mixers reduce residual volume and manufacturing complexity by handling viscous materials through tapered sections.

Turbulent jet inlets mix fluid in storage tanks while low-loss contraction nozzles prevent stagnation and ice cap formation by ensuring uniform drainage.

Corona discharge drives ionic wind to pump water droplets into oil, replacing mechanical homogenization and reducing energy consumption.

Concentric bayonet assemblies form annular nozzles to simplify maintenance in gasification systems.

Spiral vanes and protrusions in the pipe generate micro bubbles to improve cooling and lubrication.

A powder dosing device uses an extruder screw to convey disinfectant concentrate into a mixing chamber for solution preparation.

A mixing reactor introduces a heated second fluid perpendicular to the precursor flow to ensure uniform mixing and consistent nanoparticle precipitation.

Multiple dosers inject fuel at varied locations to ensure uniform heating, reducing thermal stresses on particulate filters.

A jet disperser uses a rotatable piston to adjust gap openings and control fluid flow cross-sections.

Moveable mixing elements pivot from a simple manufacturing shape to a complex lattice configuration, reducing assembly complexity and tolerance requirements.

A venturi system disperses treatment fluids into continuous phases to form stable emulsions for wellbore delivery.

Internal air channels between a booster and tube draw air via the Venturi effect, eliminating external holes that compromise streamlined appearance.

Axial urea injection nozzle paired with radially angled plate mixer for uniform exhaust gas mixing.

Segmented fins fragment fuel injection to prevent catalyst damage from unburnt hydrocarbons.

A modular tip injection device uses concentric conduits and cooling channels to remove heat from its outer surface.

An eccentric impeller generates a rotating liquid ring to create high suction capacity, preventing lump formation and ensuring homogeneous powder wetting.

Turbine paddles extract power from brine flow while seawater dilutes salinity, offsetting desalination energy consumption and protecting marine ecosystems.

Segmented static mixers replace fixed packed beds to resolve the trade-off between high reaction yield and system reconfigurability.

Gas discharge sections remove bubbles from fluid mixing lines before concentration sensors measure the mixture.

A liquid mixing apparatus circulates pure water before adding sulfuric acid to manage the exothermic reaction.

Segmented stream dividers create spiral flow patterns that reduce pressure drop and dead volume while maintaining high mixing efficiency.