Servers TRIZ Cases

A server casing bracket provides positive deformation to counteract negative deformation from circuit board members.

Removable storage tray module with pivotable handle routes cables to devices, eliminating specialized assembly fixtures for field upgrades.

PDUs encode identification signals onto power cables to balance loads and prevent equipment failures.

Movable mounting structures and universal interfaces enable the cooling unit to accommodate diverse server configurations without custom designs.

Multi-surface mounting resolves limited depth and poor power distribution by enabling versatile equipment placement.

Rotating lever arms actuates camming features to disconnect heavy server sub-chassis, reducing manual lifting effort.

A server connecting rod assembly pivots rods to extend fastening length, eliminating interference between adjacent servers and securing the unit.

Adjustable shockproof members absorb vibration energy to protect servers from damage during container transportation.

Embedding an antenna within a dielectric latch assembly enables wireless remote management while avoiding metal enclosure interference.

Linear sliding plates replace rotational handles to reduce rack volume and simplify hard drive replacement.

A fan module mounts a printed circuit board perpendicular to the main board using a supporting frame.

Rotational cable sleeves clear power socket barriers to maximize internal space utilization.

Tensioned cables modify the chassis arch shape to counteract weight-induced sagging and prevent interference with adjacent server berths.

A power bus interconnects uninterruptible power supply batteries across data center resource zones to enable parallel DC power sharing.

A casing assembly uses a movable engagement mechanism to secure the unit onto a carrier post.

Bent plates fix the circuit board to eliminate screw creepage distance, reducing product size and assembly complexity.

Spring-loaded rollers guide cables through a nested storage device to resolve excess length messiness in rack reconnection.

Relocating KVM switches to the exterior front surface and merging cables increases available installation space for information processing devices.

Front drive bays rotate horizontally about hinges to expose inner components, reducing downward force moments on hardware.

Segmenting processing components into a pocket-sized unit prevents data theft and virus corruption on shared readers.

A detachable rotating mechanism guides a server door to stop at predetermined angles via a pivoting component and blocking structure.

Extensible supporting members redistribute weight between components, preventing excessive sagging of cables while simplifying installation.

A power system disperses inrush currents by switching multiple devices at different times based on addressing signals.

A removable power supply and circuit module assembly slides into a cage to enable independent component access.

Segmented liquid and air channels resolve heat dissipation limits in high-density power supplies.

An L-shaped backplane structure with sliding grooves aligns server signal plates for precise insertion.

Adjustable shelf modules form customizable slots to receive electrical computing components, resolving space utilization trade-offs in large-scale data centers.

Segmented dividers and friction-mounted trays increase storage capacity by twenty percent within standard 1U dimensions.

A gravity spray system directs cooling liquid downward through an oil distributor to cool server housings in a data centre cabinet.

A flexible chassis partition bends to accommodate modules of different sizes within a single computer enclosure.

An exterior heat sink on a pluggable network module dissipates heat from high-power components while preventing cable entrapment.

Segmenting server infrastructure into universal standardized racks resolves inefficient capacity expansion and costly hardware utilization in AI workloads.

Rounded latch tips eliminate sharp edges that cause user injury during drive removal.

Pivoting latches with resilient components secure expansion cards in crowded racks, preventing collisions and simplifying manual assembly.

Guide holders direct input-output sled pins to lock the motherboard assembly without obstructing airflow.

A planar module tray handle mounts on side panels to transition between horizontal and vertical positions.

Segmented latch protrusions activate upon adjacent module insertion, enabling narrower partitions and higher density without compromising retention strength.

Door-mounted power supply units use a latching mechanism to enable detachable maintenance without fully opening the cabinet door.

Turnbuckle-tensioned cable linkages anchor server racks to subfloors, eliminating precise alignment requirements and reducing installation labor costs.

A four-bar linkage connected to a grip bar pivots and slides to mechanically disengage a server sled from its chassis.

A server sled uses sliding conductive elements on a power tray to maintain continuous electrical supply during movement.

Wedge-shaped mechanical contact between the power supply and cold plate facilitates heat transfer without thermal interface materials, preventing coolant leaks.

A riser assembly uses a cable to electrically connect the card to the motherboard, enabling flexible placement of the expansion card.

Elastic members enable stretchable cable management arms to adapt to varying slide rail lengths while blocking portions prevent component separation.

A movable temporary bulkhead supports a server printed circuit board during transport, then retracts to clear the airflow path for cooling.

Vertical stacking of a shared power supply and network switch reduces rack volume by eliminating internal server power units.

A controller detects server-rack door movement using microphone sound data and acceleration sensor waveforms to automate closure.

A pivoting engaging member secures interface cards parallel to the main board without adapting circuit boards.