Shaking/Oscillating/Vibrating Mixers TRIZ Cases

A chemiluminescence measurement apparatus uses a ventilator to dissipate motor heat outside the dark space.

A porous solid support and elastic membrane resolve manufacturing complexity while enhancing capture efficiency in microfluidic systems.

Manual actuation replaces complex motors to transmit pressure forces to deformable capsules, reducing device volume and cost.

Displacing the gripper perpendicular to the coupling pin axis generates preload force that prevents contact interruptions during liquid mixing.

A pulse flow mechanism withdraws and returns liquid at varying speeds to homogenize paint colorants without mechanical stirrers.

Resonant acoustic mixing of toner and carrier particles in sealed containers eliminates cross-color contamination and reduces production time.

Distributed pressing force ensures full contact between a cover layer and curved carrier body, preventing uneven bond fronts in anodic bonding.

Acoustic mixing replaces mechanical agitation to achieve uniform temperature distribution, reducing sterilization time and preserving particle integrity.

Ultrasonic sonication disrupts pathogen cells to release identifying material, enabling accurate diagnosis from small sample volumes without lengthy incubation.

A closed mixing cartridge uses gravity to transfer monomer liquid into powder, eliminating external vacuum pumps.

Acoustic cavitation collapses nanobubbles into rising microbubbles that generate a water mist aerosol, accelerating evaporation rates by one thousand times.

A bone cement mixing cartridge uses a gas-permeable discharge plunger to create vacuum and mix components manually.

A looped ultrasonic dispersion instrument circulates hydrophobic nanoparticles through surfactant solutions to drive molecular adsorption.

Mechanical agitation of lipid carrier solutions near phase transition temperatures forms stable microbubbles with controlled size distribution.

Perpendicular drive shafts eliminate complex gears and bearings, reducing device size and maintenance costs while preventing plugging.

Mechanical vibration reduces low-shear viscosity of the additive, enabling 96wt% recovery and consistent dosing without manual intervention.

Pre-filled dispensing cartridges enable on-site color matching without factory wait times or high costs through simultaneous mechanical agitation.

Sprayable polyurethane foam with graphene or iron particles absorbs radiation to shield irregular components without dismantling.

A biological sample grinding unit uses precession movement to homogenize specimens in tubes of varying volumes.

Cyclic pump action moves reagents through a serpentine channel to mix fluids with different specific gravities and viscosities.

Integrated spring wings eliminate separate latching components, reducing device complexity while ensuring reliable locking for bone cement mixing.

An oscillating flow minireactor uses directional channel changes to induce secondary flows that enhance mixing of liquid suspensions.

Oscillating orifices segment fluid into colliding droplets, resolving mixing uniformity contradictions in high-throughput reaction analysis.

Electromagnetic acoustic transduction disperses particulate matter in fluids without physical contact.

A cryogenic fluid mixing device deagglomerates actinide powders using gyroscopic agitation and inert gas evaporation.

Mechanical paddle drive eliminates rotary seals to prevent contamination while improving mixing performance in disposable bioprocess systems.

A bone cement mixer uses an oscillating mass to generate mechanical vibrations within a sealed chamber for efficient component blending.

A microfluidic mixer uses a flexible membrane to create chaotic flow patterns for efficient fluid mixing.

Grippers compress flexible containers to mix fluids while reducing shear stress on biological materials.

Magnetic beads modified with octasaccharides capture cholangiocarcinoma cells via specific carbohydrate recognition.

A sonication chamber with walls within three centimetres of the sonotrode ensures uniform ultrasonic energy distribution across a beverage suspension.

Positioned inlets introduce fluids into the cavitation zone to eliminate time delays between mixing and sonication, enhancing reaction quality.

An integrated applicator uses a retractable mixing rod to combine components, eliminating external vacuum pumps that cause air bubbles.

An ultrasonic generator replaces bulky drive motors to transmit pressure forces, resolving the contradiction between mixing power and device volume.

A nucleic acid detection device uses a magnet to attract a magnetic element for reagent mixing.

A displacer apparatus creates a V-shaped channel that prevents material compaction in the lower mixer region.

Polymer beads mediate acoustic cavitation to shear genomic material, preventing sample overheating and splashing during rapid processing.

A piezoelectric substrate generates surface acoustic waves to disperse or concentrate suspended particles within fluid droplets.

Dynamic stirring prevents static conditions that reduce metabolic activity and cause cell death in small volume receptacles.

Elastic wall deformation maintains particle suspension homogeneity, resolving reproducibility issues in diagnostic analyte detection assays.

An ultrasonic transducer generates acoustic energy to nucleate supercooled beverages within containers.

Vibrational mixing eliminates grinding media separation steps while preventing pigment damage and reducing dust emissions during production.

Nested fluidic channels in a planar substrate enable long effective lengths for acoustic separation without increasing overall chip length or fragility.

Ultrasonic probe generates transient cavitation in cement suspension to reduce heat treatment time and carbon footprint.

An elastic plate creates a liquid chamber that simplifies filling and emptying while maintaining reliable wetting.

Integrated mixing and discharge device reduces leakage risk during vertebroplasty by merging functions into a single unit.

Oscillatory pendulous movements loosen cohesive powder before dispensing, preventing clogged orifices and ensuring homogeneous flow.

Segmented gas chambers and laser-ablated slits reduce polymer tension during compression, preventing structural failure while moving fluids.

Offset eccentrics drive a plunging paddle to vibrate solids into a uniform layer, resolving the trade-off between high feed rates and product damage.