Shaking/Oscillating/Vibrating Mixers TRIZ Cases

A bone cement mixing system uses a sieve element and discharge baffle to control monomer injection.

Segmented annular guard with blade-receiving grooves prevents bag puncture during mixing while maintaining fluid sterility.

A sample processing apparatus adjusts agitation cycles based on tube type identification to ensure proper mixing of fluid samples.

Rotating cavitation element with trilobular chamber geometry accelerates liquid flow to generate intense local turbulence and high gas dissolution rates.

Oscillatory rotation drives displacement balls to roll along the vial bottom, mechanically displacing settled first particles to break electrostatic aggregates.

An ultrasonic transmitter integrated into fuel pipework generates waves to break ice particles.

Ultrasonic rotating magnetic fields disrupt surface tension between immiscible liquids to form stable emulsions without chemical additives.

Elastic bellows display pressure changes in component chambers, verifying emptying and preventing blockages during vacuum mixing.

Attaching the spout and agitation member to the same edge allows free bag movement, preventing pigment precipitation when ink levels drop.

A bone cement applicator integrates a retractable mixing rod and extrusion plunger within a single cartridge for direct manual dispensing.

Saw-tooth grooves on a transport surface minimize contact area to prevent product adhesion, resolving sticking issues in weighing apparatuses.

Rotating discs drive axial stirring elements in a dual drum setup, preventing powder aggregation and ensuring uniform mixing.

A mixing pack with a swirl shake weight temporarily blends immiscible cosmetic components within the container.

A shape memory alloy mixing element changes geometric dimensions through thermal expansion to agitate fluid media without external power.

A chemiluminescence measurement apparatus positions the motor outside a light-shielded dark space to isolate heat from the detection zone.

Segmented mixing device allows individual component replacement to resolve trade-offs between manufacturing simplicity and customization capability.

Dynamic frequency adjustment resolves the trade-off between control precision and power capability during sample processing.

Oscillating a porous gas discharge head prevents shock-wave instability, enabling higher gas dissolution beyond solubility limits.

Ultrasonic agitation accelerates analyte transport in the sensing chamber, resolving slow diffusion response times for accurate downhole monitoring.

Acoustic mixing preserves original grain size distribution and reduces energy consumption while avoiding pore formation in cemented carbide powders.

A rotating actuator drives an eccentric load through a multi-element spring system to induce chaotic swirling motion in sealed pharmaceutical vials.

Varying the deposition angle through base vibration or feed movement reduces segregation while maintaining high throughput efficiency.

Oscillating gas pressure at the liquid interface induces mixing in capillary channels, resolving low sample-reagent contact efficiency.

Dynamic frequency adjustment resolves the contradiction between mechanism wear and mixing efficiency by enabling safe operation at resonant points.

A manufacturing apparatus uses distinct capsules and a receiving device to mix cosmetic formulations.

A microfluidic apparatus selects additive quantities from reservoirs and mixes them with a base substance to create customized cosmetic compositions.

A pipette tip presses against a mixing vessel inner surface to occlude its orifice and build internal pressure.

A combined paint container lid integrates a perforated straining area with a movable cover to enable controlled pouring through the integrated mesh.

Hydraulic agitation reduces heating time and energy costs for viscous liquids.

Film boiling creates stable ultrafine bubbles with high gas-liquid interface energy, preventing disappearance during long-term storage.

A dispensing unit mixes biphasic compounds using a remotely controlled piston and deformable cartridge.

A manual cement mixer uses a parabolic trough to create eddies and turbulence for rapid mixing.

Oscillating a microfluidic cartridge creates turbulent mixing that accelerates bacterial growth rates compared to static liquid culture methods.

A shaker drive uses magnetic members to transmit rotation between eccentric shafts without physical contact.

Reciprocating agitators create radial turbulence in tubular reactors, resolving the trade-off between mixing uniformity and plug flow consistency.

Controlled shear-force application replaces ultrasound agitation, ensuring reproducible prion protein aggregation without vessel position dependence.

Contoured bearing shaft rollers replace sliding contact to minimize wear and energy loss in reciprocating drive assemblies.

Direct coupling eliminates complex cams, reducing device size while maintaining mixing efficiency.

Automated dye-meter retrieves commercial bottles, inclines them, and pumps components into a mixing container for precise batching.

An active microfluidic mixing device uses axially asymmetric inertial pumps to deflect fluid flow and create a wiggling path for enhanced mixing.

A cartridge-based system processes heterogeneous samples using a separation fluid and rotational device to sediment particulates.

Sinusoidal waveform generation eliminates third harmonic modes in acoustic transducer systems, reducing electrical noise and power consumption.

Reciprocating suction-discharge mixing prevents flexible wall damage and maintains effectiveness during freezing processes.

Offset motor shaft with meshing helical gears prevents unsteady movement during high-speed stirring to ensure accurate analysis results.

A closed-loop system adjusts power to maintain desired horn amplitude, resolving manual precision errors and improving homogenization efficiency.

Silane coupling agents and ultrasonic cavitation stabilize basalt fibers during processing, preventing porosity and improving hardness by 30%.

Selective engagement of a reciprocating drive with a rotating turntable generates rapid acceleration for mixing small fluid amounts without additional sensors.

Segmented cylindrical sections create annular gaps that maintain constant contact with wet concrete, resolving poor consolidation caused by nose displacement.