Shaking/Oscillating/Vibrating Mixers TRIZ Cases

Detector monitors container vibration state while control unit adjusts motor speed to suppress agitation variations and ensure complete sample mixing.

Low-frequency acoustic agitation replaces mechanical impellers to eliminate dead zones, ensuring uniform mixing in continuous material processing systems.

Vertical reciprocation of an oval stirring blade through a flexible diaphragm eliminates rotary shear forces that damage fungus bodies in culture media.

Conformal coatings and dry film lubricants shield electrical and mechanical parts from CO2-induced corrosion, extending useful life without complex sealing.

An eccentric tray shaft mounted in a hollow drive shaft isolates the mechanism from liquid contamination while balancing mechanical inaccuracies.

Seesaw lifting units utilize buoyancy to transfer gas into liquids, eliminating energy-intensive pump systems.

Concentric nozzle structure with mechanical probe prevents blockages during continuous precipitation of uniform particles.

Independent oscillator segments eliminate intensity dispersion across sealed tubes, ensuring consistent supersaturation treatment per container.

External pressure cycles compress and expand the container volume, resolving contamination risks while ensuring thorough reagent mixing.

Passive air bag utilizes internal pressure changes to stir ink and prevent sedimentation without external compressed air supply.

Non-cavitational ultrasound controls nucleation and crystal habit in metastable liquids, avoiding cavitation damage while ensuring uniform crystal size.

Rotational oscillation of the sample probe eliminates concentration gradients, ensuring uniform mixing and accurate test results.

Atomizer pump pressurizes oxygen-blended return sludge to create ultra-fine bubbles, solving high aeration costs and excess sludge production.

A thermal processing apparatus uses alternating high and low temperature baths to rapidly cycle reactors for nucleic acid amplification.

Ultrasonic waves disintegrate particle clumps in slurry treatment, eliminating contamination from dispersion media while maintaining homogeneous dispersion.

An eccentric rotor shaft drives a compression assembly to generate reciprocating motion in vibration mixers.

Hydrodynamic cavitation breaks down agglomerates to reduce particle size while preserving polymer morphology for additive manufacturing.

AC power induces electrokinetic instability in microfluidic channels to mix fluids rapidly.

A mixing bottle employs a vertically movable agitator to generate fluid vortex motion, resolving powder clumping and leakage issues during manual shaking.

A metallic narrow tube with a rectangular drawer generates ultrafine bubbles through pressure dissolution and turbulent flow crushing.

A mixing device uses an asymmetric cartridge holder and proximity sensors to automate clamping and torque transmission.

A fluidically powered linear motion mixer uses a remote drive assembly to generate reciprocating shaft movement.

A microchip solution sending system uses a pump to move specimen material through a reaction field at controlled speeds.

Segmented mixing components prevent contamination risks during manual bone cement preparation.

A sequencing device reagent cartridge uses pressure cycling to eject mixed solutions through internal openings.

A mixer shaft moves in a multi-directional angular pattern to create circular flow.

Cassette secures sample tubes via centrifugal retention, eliminating manual tightening and accommodating varying heights.

Disposable flexible container eliminates frequent cleaning and sanitizing of frozen confection machines.

Blending structures create vortex phenomena in a reaction cassette, resolving uneven sample-reagent mixing and improving assay precision.

Liquid detectors in the mixer trigger alarms upon detecting bag leaks, preventing contamination and preserving sample integrity.

Mechanical vibration accelerates equilibration in reference liquids, reducing hours-long delays to minutes by enhancing diffusion through the flexible bag wall.

An eccentric wheel shakes a block holding cosmetic tubes to homogenize suspensions and prevent solid-liquid separation.

Elongate ultrasonic waveguide assembly energizes flowing phases to form stable emulsions, replacing manual batch mixing that causes inconsistencies.

A battery-powered concrete vibrator uses a flexible shaft to transmit torque from an electric motor to a vibrating head.

A cam-driven contact member reciprocates a rotatable container holder to agitate blood samples within a compact apparatus.

Deformable reservoir container tilts to open monomer liquid ampoules, preventing conduit kinking and air inclusion during bone cement preparation.

A reagent container pack employs a sliding lid and hollow tubes to automate access and sealing for clinical analyzers.

Flow cycling through a Tesla valve creates turbulence to produce 110 nm nanobubbles, reducing energy consumption compared to ultrasonication.

Disposable flexible bags and a static mixer use gas pressure to force liquids, eliminating cleaning complexity while ensuring precise small batch mixing.

Ultrasonic vibration disrupts boundary layers around solid catalyst particles, boosting conversion rates of synthesis gas into liquid hydrocarbons.

An eccentric actuator drives a multi-element spring system to create vortex mixing, resolving sterility and consistency trade-offs.

Ultrasonic cavitation disperses hydrophobic nanoparticles into surfactant solutions for stable compound dispersoid formation.

Synchronous eccentric shaking of multiple mixing assemblies reduces mixing time, increasing immunoassay analyzer throughput.

Sealed compounding system uses disposable tubing to contain hazardous drug ingredients, minimizing operator exposure while maintaining sterile conditions.

A bone cement mixer gun uses a bias-loaded piston to infuse and dispense components through a single mixing chamber.

Simultaneous rotation and vertical reciprocation eliminates flow layering in viscous biochemical samples.

Non-circular rotating bars generate oscillation without eccentric mass imbalance, avoiding structural damage while settling container contents.

Acoustic streaming replaces mechanical stirring to mix nano-scale particles, preventing aggregation and improving semiconductor manufacturing yield.