Shaking/Oscillating/Vibrating Mixers TRIZ Cases

Segmented reservoir design enables turbulent flow to re-suspend settled particles, ensuring consistent dosage delivery from inverted storage positions.

A dissolution apparatus reciprocates dosage forms against beads to induce mechanical stress and enhance polymer erosion.

Adjustable flanges and a magnetic base secure vessels to shaker platforms, eliminating time-consuming screw attachment processes.

A pneumatic mixing machine uses compressed air to exert pressure on deformable capsules for formulation blending.

A torsionally flexible tube transfers oscillatory rotary motion from an external motor to an internal impellor while maintaining a sterile seal.

A rotary throttle assembly with enclosed linkages protects internal components from concrete splatter during operation.

A vibratory grout consolidator clamps onto reinforcing bars to transmit mechanical vibrations directly into the surrounding wet grout.

Piezoelectric transducer vibrates an air cavity to disrupt microvortices during droplet generation.

Acoustic and electrothermal mixing mechanisms enhance reaction kinetics in microfluidic flow cells, resolving slow passive diffusion limits.

Vertical electromagnet movement overcomes viscous resistance in small wells, achieving rapid mixing without thermal damage.

An elastomeric foot with an internal lattice improves peel resistance without surface treatment, reducing manufacturing complexity.

A pivotable tray integrates into a vertical paint mixer stand to serve as a pounding station for friction-fit lids.

Segmented reagent vessel geometry balances stirring efficiency against operational volume constraints, enabling effective magnetic bead processing.

Immunosensing device uses integrated sample dilution and verification to determine analyte concentrations rapidly.

A mixing head uses vertical and horizontal channels to secure test tubes in perpendicular or parallel orientations alongside microplates.

A single chamber device mixes and dispenses components via a piston-driven mixing rod.

A bone cement cartridge uses a movable plunger to generate vacuum pressure for monomer transfer.

An asymmetric guide recess enables self-locking of positioning stops with low actuation force, resolving displacement risks from manufacturing tolerances.

A dual plunger cartridge integrates elastomeric seals and pivotable blades to mix and deliver multiple components within a single barrel.

Alternating clockwise and counter-clockwise substrate rotation drives fluid mixing within microchannel structures.

Segmented transparent mixing chambers and self-service vacuum valves resolve visibility versus complexity trade-offs in bone cement preparation.

Acoustic transducers generate cavitation to mix fluids, preventing lime deposits and bacterial growth that plague conventional mechanical systems.

A pivotable mixing device uses a standardized receptacle system to secure containers during horizontal rotation.

Three-mass resonant system transmits cyclical linear forces through resilient members to achieve high acceleration mixing while reducing driver wear.

A prepacked mixing device uses a pump plunger to press monomer liquid into cement powder for controlled paste formation.

A sample crusher uses a swing mechanism to grind test samples rapidly.

Automated ultrasonic mixing system replaces manual handling to resolve batch inconsistency and improve ingredient transfer reliability.

Hydrodynamic cavitation de-agglomerates polymer mixtures to produce uniform powders without mechanical damage.

Ultrasonic vibration breaks up hydrophobic carbon black agglomerates in a coagulation chamber, ensuring stable filler morphology during elastomer blending.

A flow measurement system uses multi-point displacement sensing on a serial cartridge to detect media deflection.

A mixing apparatus uses filter paper to retain liquid and separate components within a cartridge.

A single actuator drives tilting movements to mix and extract samples from biological liquid tubes.

A rotating turntable and variable volume pump distribute pizza sauce over dough, eliminating dedicated apparatuses for different varieties.

Continuous agitation of dry plant-based proteins ensures uniform hydration, eliminating batch processing inefficiencies and manual transfer risks.

A floating aerator introduces air bubbles into wine to release aromatic compounds while emitting synchronized lighting effects.

A compact apparatus generates and delivers cold slurry to subcutaneous fat using agitation and external cooling.

A cavitation mixer adjusts drilling mud viscosity and rheology by replicating downhole shear and heating conditions in real time.

A vibrational mixer stem incorporates internal ducts to supply gas and liquid media directly into the reactor interior.

An ultrasound horn vibrates in resonance to mix oxygen and saline into a therapeutic spray.

A pretreatment device uses a vortex oscillator and container holding mechanism to automate food sample mixing.

Angled vessel surfaces narrow in the flow direction to prevent backflow and chugging, ensuring complete mixing of pastes.

Insulators at inflow and outflow sides block current leakage, ensuring efficient power use during bactericidal purification.

A nonlinearly reciprocating agitation mechanism drives sample tubes through a curved trajectory to generate grinding shear action.

A hydrogen rich water generator uses a nanometer dividing tube and vibrator to form micro bubbles.

Rotating fittings automatically close fluid paths when cannulae are removed, reducing manual valve management and preparation time.