Digital Processing Power Distribution TRIZ Cases

Partition panels extend a vented rack blanking tray into the slot to baffle cooling air while a conductive layer maintains EMI containment.

Vehicle AC-fed cooling and insulated polymethacrylimide walls keep a housed computing unit within a safe temperature range and limit vibration.

Standardized compute modules and connectors cut ECU redesign and reprogramming, enabling scalable in-vehicle updates across domains.

Different-modulus insulating layers reinforce and flex a COF package, enabling thinner films without increasing display panel detachment risk.

Different-modulus insulating layers reinforce and bend a COF film, cutting bezel length while reducing panel detachment risk.

Input-state combinations at multiple terminals identify and register mounting positions, reducing part variation and registration effort.

Sensors trigger an electromagnet folding joint to sever the server coolant circuit when leakage is detected, preventing coolant ingress damage.

Rear removal of the air mover enables hot swapping in a modular compute chassis without deconstructing the processing unit or shutting down.

An autonomous robot aligns with liquid cooling tanks, secures computing hardware, and transports it safely to storage with less manual handling.

Front-removable processing units let rear air movers be hot-swapped, improving rack cooling maintenance without system disassembly.

Autonomous handling aligns with immersion cooling tanks, secures computing devices in an enclosure, and automates protected transport to storage.

Pseudo-random multi-clock modulation spreads clock harmonic energy, reducing ROC digital-analog interference and protecting sensitivity and EVM.

A single fan, heat sink assembly, thermal tubes, and a thermal plate cool non-coplanar heat sources while saving space and maintaining sealing.

A movable fastener with swinging arms and a reciprocating piece replaces screws to secure hard disks quickly while adding vibration damping.

A modular OCP mounting bay uses guide slots and floating retention to stack cards vertically for front access, secure servicing, and ESD protection.

A battery compartment nests a detachable data module to add storage access without external connectors, preserving waterproofing and portability.

A transparent reflecting layer on a display panel improves wireless signal reflection while preserving light transmittance and display appearance.

A guided vapor path, condensing coil, and gas-liquid separation improve server immersion cooling while limiting fluorinated liquid leakage during maintenance.

A sealed connection box encloses power and signal wiring in a slide-out computing chassis, improving safety, appearance, and maintenance access.

A rotatable fan module with gear-driven lift movement simplifies server chassis assembly and removal while preserving stable cooling structure.

A rigid reinforcement sheet paired with a waterproof strip strengthens the foldable display connection while preserving water resistance.

An elastic retaining member and guide seat replace screws to lock and release M.2 SSD cards with lower assembly cost and stable connections.

A slotted retention bar and pins stabilize tall memory modules, reducing connector stress, dislodgment, and vibration-related failures.

Variable support bar spacing evens winding stress and prevents bar interference, helping protect rollable display modules from damage.

A thinner folding protection portion between thicker supports absorbs impact and preserves flexibility in foldable display panels.

Horizontal busbars replace centralized vertical distribution to raise rack power capacity, lower current density, and keep loads powered during PSU failure.

Stacked expansion modules and adapter boards add industrial I/O in limited space without enlarging the motherboard footprint.

A cooling fluid bypass routes airflow around the processor to cool shadowed memory modules and reduce thermal throttling across channels.

A thin low-reflection metal layer suppresses visible metal reflection while lowering conductive-layer impedance and preserving display aperture ratio.

An adjustable chassis adapter extends cabinet mounting depth to create cable routing space without replacing existing cabinets.

A unified backplane with protocol-flexible EMC slots connects Ethernet and legacy field devices without adding separate I/O hardware.

Magnetic attachment lets a card reader box stay on an electronic device during data transfer, improving convenience without adding separate mounts.

Sliding snap-fit modules replace screws in a peripheral display, improving repair, upgrade, and recycling without sacrificing structural stability.

Push-fit fasteners and resilient grommets let storage drives be installed without tiny screws while improving shock resistance and vibration isolation.

A heat exchanger placed near dedicated vents and fan-driven airflow shortens circulation paths for more uniform chassis cooling.

A RISER card reads board type signals and switches GPIO-selected modes so Ampere servers can support both Yinshan and standard PCIe cards.

A hinged 3D-printed shade blocks disruptive medical device light while preserving visibility, locking access, and device compatibility.

Carrier grips, guides, and a hinged bay cover make dense removable expansion cards easier to insert, identify, and service safely.

Shielding members between the hinge and digitizers curb magnetic interference, keeping pen inductance stable through folding.

A board-routed power connection feeds high-power graphics cards without bent external cables, reducing case interference and poor contacts.

A grid-based mixed-signal layout shares power rails and capacitors to shrink SERDES footprint, pin count, and support circuitry.

A unified support frame holds the light module and display panel, enabling thinner, lighter large monitors with lower manufacturing cost.

A sealed connection box hides power and signal wiring, improving safety and appearance while keeping the computing module easy to slide out for service.

A movable midplane with self-locking rails adjusts chassis depth automatically to fit pluggable modules of different lengths securely.

A bi-stable flexure plate replaces screws and cables to secure and release a motherboard for faster disassembly, reuse, and recycling.

A hinged cover, angled sidewalls, and magnetic stylus storage improve tablet stability, reduce bulk, and keep the stylus charged and secure.

A modular backplane card and swappable VPX cards decouple static chassis interfaces, cutting redesign and retesting time while preserving interoperability.

Adjustable openings and air-zone partitioning cool larger expansion cards more efficiently, cutting fan RPM and noise while improving support.

Optically transmissible supports reinforce large electronic display layers against air-pressure bowing and optical layer separation.

Sliding stop modules with elastic positioning members secure different-length 5.25-inch devices without side-wall deformation or unclear positioning.

A slide-in motherboard and contact-pad battery layout removes screws and cables, enabling faster robotic disassembly for reuse and recycling.

A single chassis with multiple computing blades enables seamless PACS access and peripheral switching while reducing workstation space and cost.

Angled device bays on a card assembly enhance air flow and heat transfer, reducing component temperatures without repeaters.