Centrifuges TRIZ Cases

Two-phase washing method cleans centrifugal separator lamellar disks by dynamically switching overflow openings to direct fluid flow through separation zones.

A centrifugal separation chamber uses a flexible membrane to vary volume without sliding parts.

A one-piece thrust bearing secures to an umbilicus midsection and engages a liner for smooth rotation.

Sol-gel silicon oxide coating on centrifugal separator discs minimizes fouling while alumina particles enhance wear resistance in abrasive media.

Thickness-reduced parts in diverging branch arms alleviate stress concentration at holding pin bases, extending rotor lifespan under heavy centrifugal loads.

Air guides direct intake from the lower housing past heat-emitting components, preventing sample heating while cooling the motor.

A centrifuge unit dynamically changes the transfer order of processed samples to optimize downstream processing sequences.

A centrifuge control unit displays rotor acceleration time to streamline sample extraction workflows.

Radial recesses in the centrifuge bucket base body halt crack propagation, extending service life under high-speed mechanical stress.

A centrifugal separator uses diagonal particle guide troughs to direct separated solids toward the outlet.

Replacing compressor cooling with magnetocaloric materials eliminates rotor vibrations while maintaining precise temperature control.

A computing device determines tube weights and calculates optimal rotor positions to automate centrifuge loading.

A centrifugal separator uses a two-part rotor housing and an exchangeable cartridge to deposit dirt particles radially outward.

Removable threaded weights eliminate repetitive drilling cycles that damage rotor structural integrity, preserving mechanical lifespan during maintenance.

Radial clamping rings intensify pretension on centrifuge filter screens, preventing loose fixation at low speeds.

An air cut disc separates radial and axial flow paths to reduce noise emission while maintaining compact centrifuge design.

A centrifuge cools the rotor chamber using a Peltier element before activating a vacuum pump.

Segmenting discharge into a diverted path supplies continuous samples to density sensors, resolving discontinuous flow bottlenecks in drilling operations.

Separable waste collecting part rests on bearing circumference via centrifugal expansion to maintain rotor balance.

A centrifuge chiller uses a transformer with multiple secondary taps and a voltage switching unit to select the correct driving voltage.

A centrifuge washing control device uses a spectrophotometer to detect filling material absorbance for real-time process monitoring.

Welded flexible straps secure filter cloth in wringer baskets, eliminating metal strap deformation and assembly complexity.

Annulus cavity rotor constrains sample containers between base and sidewall to enable rapid radial loading.

A movable weight repositions along the shaft to balance varying sample masses, reducing vibration and extending equipment lifetime.

A centrifuge control system uses a sound transducer to capture acoustic signals from the rotor for automated processing.

A filter centrifuge uses a spring-elastic clamping ring to secure the filter cloth inside the drum.

Centrifugal separator mixes blood components with preservation liquids using integrated flow paths and static mixers.

A retaining ring arrangement encloses centrifuge tubing within a base and lid cavity to secure the assembly during high-speed rotation.

Sheet metal joint elements provide differential rigidity to allow axial movement while maintaining radial stability in the separator drive system.

An inverter control system adjusts motor power distribution to maintain rotor acceleration and temperature precision across varying voltage frequencies.

A centrifuge insert uses a detachable carrier with elastic snap hooks for tool-free sample holder fixation.

A thermally conductive tube holding device integrates a transparent viewing panel with measurement markings for precise fluid level observation.

A centrifuge motor mounting device absorbs dynamic forces to relieve the motor shaft.

Pivoting the inner housing with the shaft prevents misalignment damage during cake removal while maintaining gas-tight seals at the bearing interface.

Segmented mounting grooves and an elastic cover plate secure liquid containers against vibration, preventing leakage and machine pollution.

Helical grooves in the rotor hub guide axial cooling air through the centrifuge body, reducing device complexity and installation volume.

An expansion device spreads metal sheet edge regions to press the filter element against the housing wall for secure attachment.

A centrifuge loading system uses a common bucket insert to hold processed and unprocessed sample containers simultaneously.

Weight measurement system balances specimens to prevent rotor vibration and rotation abnormalities.

A centrifuge controls supernatant discharge by dynamically adjusting test tube angles during rotor acceleration.

Electromagnetic induction charges a battery via rotor motion, enabling real-time contaminant detection without external power or operational downtime.

A flotation method uses sodium thiosulfate as a depressant to separate arsenic minerals from copper-bearing materials.

Rotor arm recesses allow hangers to immerse, reducing inertial mass and energy consumption while increasing sample capacity.

Vapor-compression cooling prevents product heating while dual-hand control ensures operator safety.

Spiral flow guides transition turbulent air into laminar patterns, resolving the trade-off between heat dissipation and noise emissions in centrifuges.

A centrifuge turntable rotates continuously while a transfer mechanism synchronizes with the rotation speed to move test tubes between holders.

Sensor units measure pressure and acceleration within rotational system compartments.

Axially extending leg with conicity prevents O-ring warping and ejection during high-speed centrifugation.

Segmented tubular cavities bonded into a solid shell reduce mass while maintaining strength for higher rotational speeds.