Digital Data Processing Details TRIZ Cases

A hollow stand shaft routes cables stably while enabling adjustable display rotation, lower electromagnetic interference, and higher stiffness.

A sliding-part and protrusion coupling constrains hinge fixing pins to cut friction, seaming, and dust in foldable electronic devices.

A microcontroller lowers scanner regulator voltage in suspend mode to cut current draw, extend battery life, and meet USB 3.0 suspend limits.

Guiding rails, grooves, and a locking connector align display screens in one step, cutting installation time and visible seams.

A rack-and-pinion rollable display uses a two-part rack gear to expand screen area while keeping the housing compact and portable.

Rotating rollers and extendable supports let a rollable display retract compactly yet deploy with stable edge support for portable use.

A spiral-groove swing arm and slider replace bulky gear trains to keep foldable hinge rotation synchronized with fewer parts and less clearance.

A dual-stop hinge layout blocks the support plate from entering an avoidance slot after a fall, preserving smooth unfolding and display protection.

Chain units, driving sprockets, and balanced springs stabilize rollable display panel winding and unwinding to reduce sway and uneven force.

Multiple balance valves and vent channels equalize device air pressure through backup paths, reducing noise and avoiding venting failure.

Direct power monitoring lets a CDU adjust coolant flow in real time, cutting overcooling and thermal lag in D2C server cooling.

Real-time server power monitoring lets a D2C cooling controller raise flow and temperature response before thermal lag causes chip overheating.

An anti-lock link guides hinge-arm motion to prevent binding at full extension and reverse rotation in thin folding devices.

A slider-hook mount with spring and magnetic fastening lets a display head detach securely while supporting flexible angle and height adjustment.

Elastic members preload hinge cam arms and a slide bracket to absorb assembly gaps and keep foldable housings rotating smoothly.

A side-stored sensor uses rotational and bending motion to reach the display surface, preserving a narrow bezel and smooth optical measurement.

A linear-driven central support and rotating edge supports adjust flexible display curvature while lowering panel tensile stress.

A gear-interlocking hinge uses internal gears and supported shafts to keep foldable housings stable while enabling compact, lightweight motion.

Threshold-triggered rotators smooth foldable hinge motion, reducing bracket stress and improving durability during folding and unfolding.

Swing arms, sliding blocks, and connecting assemblies maintain housing distance during folding to prevent flexible display squeezing and pulling.

Pre-cooling, precision machining, clamping, and simpler welding keep liquid dispenser manifolds accurate without repeated processing or vacuum brazing.

Pre-machined clamping positions and adapter welding keep liquid dispenser manifold dimensions accurate while cutting rework and brazing cost.

Sensors convert leak and flow-rate conditions into fan-tach proxy signals, enabling automatic valve and coupler reconfiguration in liquid cooling.

Dynamic CPU-GPU power reallocation balances fan noise, battery drain, and thermal error to improve multi-processor performance.

A rear metal plate with hinge-linked recesses and protrusions limits shear and torsion in foldable displays while keeping the folding part thin.

An external rotation member moves a supported display module vertically, simplifying height adjustment and avoiding thermal expansion damage.

Detachable rotating support units let large low-profile displays switch stand positions while preserving stability, aesthetics, and viewability.

An eccentric link gear and gas spring help a rollable display unroll stably, synchronize both links, and raise the panel reliably.

Elastic packing elements compensate hinge fitting gaps, enabling stable torque module assembly with lower machining precision and cost.

A movable attachment body with retention members lets laptop accessories lock into multiple ergonomic positions while staying stable and portable.

Segmented support and reinforcement plates distribute hinge stress across the folding area to preserve display durability and visual quality.

Nested damping plates, a friction plate, and a compression spring shrink foldable phone hinge volume while maintaining smooth rotational friction.

Asymmetric magnets and spring-loaded contacts let a display switch between portrait and landscape while staying securely docked and connected.

A guided push-pull linkage replaces bulky latch handles, cutting server housing space while preserving low operating force.

Multiple rotating assemblies with slit shaft sleeves and friction self-locking raise folding torsion force and stabilize larger flexible displays.

A floating support and elastic reset hinge shifts the display away from contact points in folded devices, reducing friction and collision damage.

A shaft-linked arm mechanism replaces multi-stage gears to keep foldable housings rotating synchronously with fewer parts and higher precision.

Staggered force-bearing surfaces in a sliding hinge improve rigidity while reducing hinge thickness, volume, and space use in foldable terminals.

Surface contact between damping plates and a friction plate cuts foldable phone hinge volume while maintaining damping and rotational friction.

A buckle-fit plastic nut simplifies heat sink assembly, cuts metal parts, and helps prevent debris-related short circuits on the mainboard.

Balances operating and cooling power by setting a target cryogenic temperature from operating frequency and learned device data.

A circumferentially sliding support plate adapts fold geometry to reduce screen stretching and squeezing, extending display life.

A rotatable store display triggers automatic mode changes by angle, letting one terminal switch between settlement and other applications.

A latch-and-pin rotatable hinge lets one display stand switch between standing and recline positions without detaching the display.

A single elastic fastening structure joins the chassis, PCB, and heat sink to cut part count, simplify assembly, and free circuit space.

A sliding hinge with an elastic member compensates panel length changes during folding to prevent creases and keep the flexible display flat.

Synchronous sliders and guide tracks keep foldable display frames aligned during opening and closing, reducing hinge timing deviation.

Multiple sensors in moving housings let the processor adjust temperature calculation by slide state, avoiding overheating or unnecessary throttling.

A rotator between the cover assembly and support bar reduces friction and noise while preventing cover bending during opening and closing.

A roller-pulley belt layout guides display panel motion to avoid tilting, friction noise, belt folding, and drive wear.