Shaking/Oscillating/Vibrating Mixers TRIZ Cases

A rotational sample analysis substrate uses a dedicated reagent chamber to mix diluent and analytes before measurement.

Segmented impeller edges with specific angles scrape cartridge walls to eliminate dead zones and ensure uniform sealant homogeneity.

A motorized mixing device uses a pivoting lever and weight to cyclically impact bag surfaces for automated liquid agitation.

A biological material extraction apparatus rotates tubes to mix solutions, eliminating manual handling and reducing worker exposure to viral contaminants.

Bulged support holes in a vessel rack induce liquid vortex formation, preventing particle precipitation and reducing operation complexity.

A three-mass vibratory system generates linear oscillation to homogenize fluids and solids with minimal mechanical stress.

Variable additional mass parts on the crankshaft create speed-dependent imbalance, eliminating bearing wear and reducing structural complexity.

An integrated locking device on the delivery piston allows manual unlocking without tools, preventing air pockets in bone cement.

An eccentric disc drives a gimbal-mounted substrate to create 8-shaped tube trajectories, delivering high-throughput grinding in a compact design.

Disposable polymer tube isolates mixer elements from curable composition, preventing cured material buildup on reaction chamber surfaces.

A flexible blade device with rocking shaft-mounted units generates forward and upward forces to enhance liquid mixing in wastewater systems.

Replacing liquid baths with high thermal conductivity powder eliminates adhesion and drift while accelerating PCR ramping rates.

An automated clamping mechanism adjusts pressure based on container type to secure vessels during mixing without damage.

Rotational and lateral mixing elements temporarily miscibilize immiscible cosmetic phases, enabling single-step application without multiple topcoats.

A dispensing machine uses translation means to move a receptacle vertically below stationary containing units for precise fluid metering.

Segmented ingredient containers enable a robot arm to mix custom cosmetics, resolving inventory constraints.

A two-part plunger system mixes bone cement using a gas-permeable sterilization component and a gas-tight sealing component.

Replacing mechanical mixing with fluidization eliminates dust generation while ensuring homogeneous additive distribution in polymer pellets.

A bottom intake port forces mixture liquid upward through the ultrasonic horn irradiation area, eliminating bypass flow and ensuring full cavitation coverage.

A cog-based mechanism generates orbital motion via an eccentric drive shaft and coupling body to mix fluidic samples.

Segmented rubber and shaft support maintains cuvette positional accuracy during transport, preventing sample misalignment.

Segmented grooves in a biological reaction device enable vigorous convection, preventing cross-contamination between adjacent samples during parallel analysis.

Segmented spokes create partial flows to detach wall-bound components, resolving uneven mixing of varying densities and viscosities.

A bone cement applicator uses a three-way valve to manage fluid flow between the cartridge and application opening.

Refracting surface acoustic waves via phononic crystals mechanically disrupts cells without chemical agents, preserving molecule integrity.

Photocatalytic oxidation breaks down trihalomethanes while converting natural nitrogen into antiseptic nitrite ions.

Targeting resonant frequencies avoids ultrasonic cavitation while accelerating alcoholic beverage aging through efficient mechanical agitation.

A flexible mixer tube expands its cross-sectional area to mix small liquid volumes through elastic deformation.

Vibrating deformable walls transition laminar flow to turbulence, reducing mixing time and pressure drop without external actuators.

A mixing machine uses a cam and ball joint mechanism to drive deformable capsules for formulation blending.

A crank and connecting linkage convert auger rotation into oscillating motion for a baffle within the hopper.

Diverging microchannel walls guide fluid droplets via surface tension to merge, reducing reagent consumption and eliminating complex flow balancing.

Deformable sidewall projections and biasing members fix the syringe barrel and plunger position, preventing axial movement during shipment.

Grommet-lined plate on oscillating tool generates 5,000 to 30,000 rpm vortex mixing, reducing sample homogenization time by up to 50 times.

A floating undulation reduction portion swings with ink to stabilize fluid motion inside the cartridge.

An automatic analyzer controller generates approximation curves from reaction data to calculate shape descriptors for precise measurement.

A flexible container holder with pockets for active heat transfer members manages biopharmaceutical freezing.

A foam cleaning system mixes pressurized gas with liquid agents to scrub internal surfaces.

An electromagnetic fluid mixer integrates a sensing mechanism to measure viscosity directly within the mixing element.

External container movement mixes SPME samples without inserting stirrers, reducing contamination risk and equipment damage.

Passive balancing device with movable masses and damping mechanism automatically compensates rotor imbalance forces during orbital shaking.

Adjustable power transmitter positions relative to receiver to maintain temperature stability without bulky water baths.

An adjustable eccentric in the gearbox synchronizes rotation and oscillation, preventing flight pin collisions while enabling versatile screw configurations.

A kneading device blends samples in sealed bags using a movable support that lifts the container off its base.

A low-frequency high-energy ultrasound system uses a liquid layer to protect the sonotrode surface from cavitation damage.

An unbalance motor drives a support plate via elastic bearings to create non-torsional shaking, ensuring homogeneous mixing across all sample containers.

Nonconcentric masses rotate to vibrate a pipette, breaking paramagnetic particle clusters in immunochemistry assays.

Segmented ultrasonic elements with dynamic impedance matching resolve stirring performance versus sample scattering trade-offs.

A piezoelectric substrate excites surface acoustic waves to generate mist and fine bubbles without mechanical pumps.