Servers TRIZ Cases

Segmenting the power socket from the fixed chassis structure eliminates unused space behind cabling and reduces maintenance time.

A hinge mechanism enables minimal connector separation, reducing disassembly time and misassembly risks during blade server maintenance.

A network interface device dynamically adjusts power utilization based on real-time environmental conditions.

A heated air staging chamber channels and diffuses server rack exhaust to heat removal cabinets, reducing fan workload in back-to-back configurations.

Spring-loaded ground lugs and thumb screws eliminate manual wire disconnection, reducing online insertion removal time to under five minutes.

Skeleton frame structure supports modular electrical components with integrated liquid cooling radiator.

Removable divider with flex tabs converts full-height bay to half-height configuration, eliminating permanent supports that restrict chassis adaptability.

Segmented bezel modules with standardized connections enable rapid reconfiguration of electronic device layouts, eliminating redesign costs.

A supporting member holds a server substrate vertically, eliminating horizontal space needed for temporary part storage during maintenance operations.

Asymmetric handles on opposite sides of the fixing frame prevent connector gaps during tilting, maintaining stability without complex mechanisms.

A spring-loaded door closer mechanism uses a belt and pulley assembly to move sliding doors between open and closed states automatically.

Corrugated metal pipes absorb slot tolerance variations during insertion, reducing joint size and preventing dislocation.

An adapter assembly mounts to a server riser board to provide hot-pluggable storage drive expansion.

A pluggable mm-wave module uses dielectric waveguides to transmit high-speed data between server connectors.

Horizontal busbars extend through equipment racks to deliver power directly to electronic devices, eliminating overhead cabling and hot aisle space.

Sliding positioning components apply counteracting forces to prevent expansion card sway during shipping, maintaining stable electrical connections.

A suspendable assembly uses a torsion spring and limiting frame to secure terminal devices on brackets with stable engagement.

A rotatable cable holder module with a hinged clip and releasable latch.

A modular fan enclosure adjusts rotational speed based on power consumption to manage airflow within computing device clusters.

A server chassis employs a rotatable rack to access storage devices, reducing casing length while maintaining high capacity.

A testing container uses a movable heat exchanger to dissipate transformer heat.

Segmented cooling modules and dimensionality changes reduce floor space occupancy while maintaining system flexibility for dynamic IT equipment loads.

A modular computing device architecture replaces traditional PCBs with segmented optical, power, and thermal base layers to distribute signals and energy efficiently.

A pivoted operating element actuates a sliding stopper to release an expansion card from its bracket without tools.

A rack management unit determines optimal processor clock rates and coolant pump speeds to balance thermal conditions against energy consumption.

A container heat dissipation apparatus uses a nested cooling cavity filled with liquid to cool electronic devices via direct gas exchange.

Rotating the cap handle converts motion to linear force, resolving stability versus removal trade-offs.

Rotating fan compartment slides into server chassis to eliminate cable management arms that block airflow and impede PDU access during maintenance.

A side rack design with multiple horizontal supports enables vertical equipment mounting for efficient space utilization.

A data centre cabinet uses a pressure spray system to circulate cooling liquid oil directly onto servers for heat removal.

A pivoting rail component and sliding unit secure expansion cards without occupying permanent server space.

Rack controller detects occupied spaces and updates inventory tables, eliminating manual tracking errors.

Partitioning plates separate high and low temperature areas inside the housing to simplify maintenance access without raising the unit above water.

A server cabinet integrates detachable first and second mounting flanges to lock ODCC and OCP servers simultaneously.

A hollow security bezel with a honeycomb structure restricts unauthorized access while enabling airflow for thermal regulation.

A server chassis lock uses a three-position slider and latch element to hold the door open during removal without manual force.

A retractable handle mechanism exposes a grip for safe expansion card removal while keeping the receiver compact inside the chassis.

Adapter blocks mounted to rack rails accept spring-loaded latches, eliminating mounting slides in space-restricted carrier packs.

Segmented plate members with locking mechanisms adapt to 1 U to 3 U gaps, eliminating the need for multiple fixed-size plates.

Factory-built reconfigurable utility modules reduce deployment time from two years to months while maintaining high operational reliability.

Alternating guiding plates and a dustproof net prevent water ingress while maintaining airflow for heat dissipation.

A server rack cable access hatch uses a ratcheting mechanism to secure cables within the enclosure.

A rack backplane with a power panel and main controller detects component insertion to provide precise power delivery.

Segmented elastic components simplify mechanical locking to reduce structural complexity while maintaining reliable positioning stability.

Rotating arms and detachable supports resolve the contradiction between cable stability and module detachment ease.

A rotating spring element presses a cooling mass against a hot-swappable component, reducing insertion force while keeping thermal resistance low.

Guiding members on the frame engage locating pins to position racks precisely, eliminating manual visual alignment and reducing weight imbalance risks.

Adjustable mounting units with repositionable rails resolve EIA and OCP standard incompatibility without hardware replacement.

An electrically connecting module merges circuit board and connector functions to link a sliding chassis directly to rack terminals.