Centrifuges TRIZ Cases

Centrifugal force drives an eccentric mass body along a ramp surface to lock the rotor, removing manual intervention risks.

System management unit allocates samples to centrifuges based on operational states, reducing idle time and overall processing duration.

A centrifuge light emitting part guides rotor mounting via color changes, preventing collisions and protecting sample integrity.

Self-ventilating rotor spaces in centrifugal separators reduce explosion risks by circulating air through the separation chamber using rotational forces.

A movement mechanism circulates multiple centrifugal separators along a base route, eliminating idle wait times during large-scale sample processing.

Radial detection element moves under centrifugal force to signal filter clogging, enabling timely maintenance without stopping the separator.

Moving the rotation axis through the receiving space reduces container diameter, allowing more honeycombs in the same footprint while preventing breakage.

A centrifuge rotor handle integrates a movable retaining element to control the locking mechanism position.

Gas extraction maintains negative pressure to reduce aerodynamic friction, thermal warming, and noise generation.

A centrifuge rotor flow path incorporates a throttling point to dampen pressure peaks and maintain separation efficiency.

A centrifuge cartridge holder uses a resilient locking assembly to secure processing cartridges within its through-going passage.

Autonomous centrifuge data transmission reduces server load by eliminating manual address registration and continuous polling requests.

Flame-tight motor housing encapsulation prevents internal flame spread, eliminating complex inert gas devices while maintaining explosion safety.

A centrifuge calibration spike uses a piston and spring mechanism to measure G-force displacement directly within the specimen tube.

A continuous centrifuge flows liquid chemicals through the specimen line while rotating the rotor to perform in-situ sterilization.

Segmented centrifuges on a turntable process single tubes immediately, eliminating batch waiting times in laboratory automation.

A vertical centrifugal separation apparatus recovers remaining liquid through a support apparatus that overturns the cylindrical rotational tube.

An inclined ramp coupling element increases axial locking force with rotational speed, resolving assembly time and reliability trade-offs.

A programmable dispenser injects gradient material beneath whole blood to reduce turbulence, then a fixed-distance probe harvests cells with lateral movement.

A centrifuge rotor cover lifts automatically using a connecting device attached to the centrifuge lid.

A low-angle rotor attachment aligns separated blood components orthogonal to the container axis during centrifugation.

Winding carbon fiber around swing bucket supports enhances structural integrity to withstand dynamic stresses during high-speed rotation.

A modular rotor mechanism processes fluidic samples by switching between orbital shaking and rotary centrifuging modes.

Penetration holes in a centrifuge chamber allow cooling gas flow to reduce rotor temperature after steam sterilization.

Adaptive centrifuge module initiates processing based on sample attributes, resolving STAT sample delays without routine efficiency loss.

Local cutouts on the rotor outer wall widen spaces between adjacent sample containers, enabling easy removal without increasing rotor volume.

Asymmetric locking elements with localized sealing lips prevent gas leakage and contamination risks during high-speed laboratory centrifuge operation.

Assign centrifugation parameters based on requested analysis and determine the highest intensity to run mixed samples together, reducing equipment complexity.

Clevis pin mounting distributes load evenly across the rotor, eliminating lubrication needs and reducing maintenance frequency.

A centrifuge rigid displacement bar moves reaction vessels between rotor positions using a linear drive mechanism.

Segmented curved panels form a durable filter screen that passes through small openings, reducing replacement frequency in sugar processing.

Variable-speed compressor adjusts rotation frequency to maintain rotor temperature in centrifuges.

Single motor drives yoke and chamber through gear train, reducing drive system complexity while maintaining angular velocity relationship.

Replacing flexure joints with a gravity-actuated hinge joint eliminates elastic deformation, increasing holding reliability while simplifying assembly.

Segmenting the housing allows crash energy absorption through plastic deformation, preventing rotation and reducing clearance space requirements.

A centrifuge control system maintains a positive pressure cascade across seals to prevent operating fluid leakage into the product stream.

Retractable specimen holders create a seamless rotor surface that eliminates air entry and reduces power consumption at high speeds.

Segmenting the sieve allows replacing high-wear inlet parts while retaining functional outlet sections, extending service life and reducing material waste.

Continuous imbalance measurement triggers automatic speed reduction, protecting bearings and preventing honeycomb damage during centrifugation.

A centrifuge adapter uses a separation joint to expand its side wall region radially for sample container insertion.

A partition wall segments the drive and sanitary chambers, decoupling vibration transmission to maintain sterility during high-speed operation.

A centrifuge design uses dual conduits to enable continuous fluid introduction and removal during high-speed rotation.

Overlapping protective and closing walls secure the centrifuge loading opening, resolving stability risks from large robot access points.

Venturi arrangement creates suction to drain the sump, resolving installation height constraints while spring-loaded valve protects against pressure extremes.

Eductor uses separator outlet flow to drive cleaning fluid, eliminating external pumps and reducing system weight.

Micro-thrusters replace heavy motors to reduce mass while maintaining separation reliability.

A centrifuge separator integrates a direct drive motor with an elastically supported oscillating unit.

A centrifuge heating element directs warm air into the chamber via a blower unit for rapid sample processing.

Segmented rotor end face increases air friction to suppress sonorant generation, eliminating through holes that cause wind loss and sample leakage.

Replacing reciprocating units with rotary compressors reduces remixing rates by over 55%, ensuring better sample segregation.