Digital Data Processing Details TRIZ Cases

A harness-driven carriage lets one operator lower and remove a high-mounted gaming machine monitor without manual lifting.

Measured liquid temperatures and flow data estimate rack thermal load, enabling fan and pump control that improves datacenter cooling efficiency.

A repositionable wire feeder interface improves control visibility and access in portable welding without fixing the panel in one location.

A sliding support and stopper shift unfolding force from the screen surface to edge supports, expanding display area while reducing panel stress.

Independent friction bands balance torque on hinge drive gear shafts, reducing rotation mismatch, backlash, and uneven gear wear.

Integrated wire routing through the hinge removes extra protector casing, improving space use and enabling thinner foldable electronics.

A sliding clamp and rotatable counterweight let one fixing clip securely fit thin and thick monitor frames with better stability.

A spaced lower substrate with hole patterns reduces folding stress transfer, limits panel separation, and improves impact absorption.

A harness-driven lift lowers heavy EGM monitors from high mounts, reducing manual effort during installation, servicing, and removal.

A floating support shifts during folding to keep the screen clear of the hinge base and reduce friction or collision damage.

An inward-fold hinge uses floating support and elastic reset members to shield the display from friction and external collision when folded.

Motion and motor data feed a statistical model that detects pool cleaner stalls early, cutting wasted power, motor wear, and delay.

A rack-and-gear drive with elastic supports stabilizes tension and spring back, preventing idle motion and display damage.

Protruding hinge features distribute bending load and align surfaces, helping foldable displays avoid circuit damage at small bend radii.

A three-support hinged structure guides flexible display deformation during folding to distribute stress and prevent creasing damage.

A counterbalanced rotating display mount enables smooth 90° orientation changes with damped motion and a stable visual reference frame.

Sliding shielding members cover the hinge main shaft while easing replacement, blocking dust and vapor, and reducing shielding complexity.

An asymmetric hinge creates triangular display space to reduce fold creasing, limit light-shadow defects, and protect the flexible display.

Rotating middle supports and torsional springs fold into the housing, reducing center thickness while supporting the flexible screen when opened.

A bracket and pressing coupling structure keeps a roll-up display and apron in close contact to suppress lower-end peeling and separation.

A drive coil and magnetic element automate shoulder key extension and retraction, reducing manual damage risk and improving reliability.

A biaxial hinge and curved folding area limit stress, reducing crease formation and preserving surface smoothness in foldable displays.

A motor-driven lead screw and jointed backbone links let a flexible display vary curvature while maintaining structural support.

Guide grooves and link shafts create a virtual rotation axis that preserves inner housing area while delivering strong click torque at set angles.

Pressed aluminum housing blanks cut CNC time and waste while preserving anodizing for patterns and colors on electronic device cases.

Groove patterns and fillers in a bendable window spread stress during expansion, improving display durability and bending reliability.

A nested connection portion extends into the chute to preserve slider overlap while reducing unfolded hinge width in foldable devices.

Trained statistical models combine motion and motor data to detect pool equipment stalls on sloped obstacles before long timeout delays.

A synchronous reverse-rotation gear-rack mechanism increases chassis sliding distance to prevent screen interference during folding and flattening.

A foldable housing protects the finger support surface in transit while enabling ergonomic multi-finger capture and document recording in mobile use.

Joint CPU-GPU controllers shift unused power by operating regime to improve workload performance while limiting fan noise and battery drain.

A connecting rod and shaft adjust folding motion to create screen redundancy, reducing squeeze and pull damage in foldable displays.

Independent fan zones use local temperature sensing to cut noise and energy waste while avoiding single-board cooling control failures.

A dual-robot rack scheme separates fixed and portable shelves to prevent dumping risk while improving warehouse space utilization.

Separating the support layer from the panel body enables staggered folding motion that lowers bend stress and extends flexible display life.

Per-source display mode settings let a rotatable screen switch between horizontal and vertical views automatically, reducing repeated user input.

Segmented supports, magnets, and a tension cable let a rollable display store compactly yet deploy as a stable planar large screen.

A hinged variable case and driving unit let a flexible display shift from one curved surface to multiple forms for stronger visual impact.

A U-shaped clip and pressure spring stabilize heat sink contact force, reducing substrate wear while improving thermal transfer.

A rotating bracket integrates support, charging, and data transfer in one installation, reducing repeated operations and cable clutter.

Differential rotation between the casing and middle frame increases the display arc transition to reduce fold creases and light shadows.

A swing-arm transmission moves the connection plate to support a foldable screen while reducing hinge volume for thinner terminals.

A curved slider and rotating block create a non-circular folding path that reduces screen tension, fatigue, and alignment issues.

A telescopic hinge and inclined pushing surface compensate screen distance changes during folding to reduce stress and keep the structure stable.

Differently sized through-holes across folding and unfolding regions balance stress, reducing waviness, curling, and cracking in foldable displays.

Helical rotators, sliders, and an elastic member combine rotation, detent, and synchronization to cut hinge parts and reduce folding abnormalities.

An elastic member and adjustment assembly vary support torque with monitor weight, replacing multiple bracket types while keeping displays stable.

An elastic damping member adds stable friction to a foldable rotating module, enabling reliable hovering between fully open and closed positions.

Visual cues on UI elements indicate when content resolution mismatches screen orientation, helping users rotate a display for better viewing.

Friction stir welding joins the base plate, central rib, and rim to build a liquid-cooled heat sink without brazing flux, improving thermal and corrosion performance.