Servers TRIZ Cases

A sliding buffering assembly and handle slow heavy server modules before mating, protecting connectors and motherboards during installation.

Integrated ATS inside the PSU form factor cuts redundant AI server power supplies, reducing energy waste while preserving fast failover.

A restoring member pops the server cage handle away after latch release, giving wider opening clearance and easier host insertion or removal.

A restoring member lets the server cage handle pop open to a wider angle after latch release, reducing rack interference during insertion and removal.

Rotating external and internal heat exchangers cut AC power use in edge data center containers while keeping IT exhaust heat under control.

A screw-driven abutting mechanism extends hard disk or circuit board travel in partitioned racks, making removal easier and less labor-intensive.

Flexible cable channels keep furcation tubes organized and movable, preventing tangling that disrupts tray sliding in telecom chassis.

Movable positioning columns replace screws to secure storage drives faster, cutting assembly time and avoiding screw loss during service.

Angled board and front-panel placement help optical interconnect modules raise chip-package I/O capacity beyond electrical link limits.

Spring-loaded moving pieces automatically lock and release server expansion cards to prevent misalignment and simplify PCIe card installation.

An internal bolt-and-lever locking structure secures a TEMPEST shielded electronics crate while limiting radiation leakage and brute force access.

A bidirectional sliding support with fan and component compartments improves cabinet cooling, maintenance access, and space use.

Slot-level power protection, PCIe switching, and status lights let failed GPUs be identified and swapped without shutting down the chassis.

A two-panel optical adapter mount suppresses panel deformation and limits front protrusion, keeping identification numbers visible.

Protected front-to-rear cable conduits organize rack cabling without blocking airflow, wasting housing space, or causing cable bunching.

A non-coplanar main and auxiliary board layout lets one mounted unit switch between forward and rearward cable routing.

Independent floating retention arms let vertically stacked OCP network cards be secured, serviced tool-free, and protected from electrostatic discharge.

A laterally moving captive screw latch cuts 1U server cover cost and space while spring bias prevents accidental disengagement.

Movable vertical frames and lockable brackets let one rack fit Open Rack and EIA servers, improving data center rack utilization.

An adjustable bezel matches different chassis opening lengths to block intrusion, secure hardware components, and maintain airflow.

A rotating buckle and elastic assembly let a server hanging lug release the fastener with one hand while keeping cabinet mounting stable.

Interposer cards turn each drive into an independent server node, improving chassis density and limiting failures to a single storage device.

A sliding locking rod secures stacked circuit boards without extra fasteners, easing server assembly, connector release, and maintenance.

Independent liquid cooling units let single-node servers plug in or out without draining the cabinet, cutting liquid use and maintenance time.

Insulated front-rear chambers combine air cooling and selective liquid links to handle AI rack heat without facility-wide liquid infrastructure.

Fixed connector positions in a cable manifold enable robots to align, insert, and remove rack cabling in one step for automated server handling.

A segmented center wall stiffens the chassis carrier tray, reducing sagging, bowing, and mechanical interference while supporting accessory options.

Dynamic coolant flow control cuts data center cooling power waste at low server loads while keeping processor temperatures within safe limits.

Fixed connector positions in a cable manifold enable simultaneous server tray cabling removal and precise robot-guided reinsertion.

Dedicated switch mounting and cable-passing assemblies organize wiring in immersion cooling cabinets, easing installation and maintenance.

Independent cooling units connect to each server cavity, reducing coolant volume and allowing plug-out maintenance without draining the cabinet.

A movable over-rack track lets modular data center components be repositioned as IT needs change, reducing custom engineering effort.

A rail-mounted battery backup acts as a tuned mass damper to limit rack earthquake oscillation while maintaining power to installed electronics.

A movable linkage lock enables smooth hot-plug installation and release of chassis components without sacrificing locking reliability.

Movable hinged or slidable panels open deep cable spaces for faster service and fewer misconnection risks in multi-node chassis.

An insulated matching connector enables simultaneous voltage checks on high-power rack supply conductors without handling live leads.

A dual-latch riser mechanism secures both the assembly and expansion cards, cutting chassis footprint and motherboard routing issues.

A notched cable holding tool preserves port order during multiport network device replacement, cutting manual tracking effort and reconnection errors.

A floating bracket and limit member keep electronic components securely fastened despite motherboard thickness and connector height variation.

An elastic bent insert lets one bracket fit different electronic device sizes on larger frames while enabling secure tool-free installation.

A slidable wall and inlet structure enclose the riser assembly to route cooling air over expansion cards while minimizing leakage.

Distributed connectors replace the system backplane, opening airflow paths between nodes while preserving reliable hard-disk and power connections.

Internal restriction members prevent a rack-mounted electric device from falling without adding external structure or complicating insertion.

Separate supply and exhaust ducts, sensors, and dampers target cooling at hot rack components while reducing airflow mixing.

A two-body memory case fits constrained in-vehicle server slots while conducting heat, blocking dust, and preserving structural strength.