Digital Data Processing Details TRIZ Cases

Shorter fin modules joined by a splitter create separate cooling channels that limit fin deformation while maintaining heat dissipation.

Grip sensing through a metal housing area triggers sliding control in a rollable display, expanding screen size without a larger form factor.

Scalloped conduit walls and aligned pin rows drive turbulent coolant flow, improving heat dissipation without overly complex cooling block machining.

A central-inlet flow distribution plate shortens coolant paths, cuts pressure drop, and expands effective chip cooling area.

An elastic stopper assembly holds the slide-out housing in place, limiting reverse gear shock and protecting the drive module after drops.

A segmented conductive connector and tape stabilize plate-to-bracket contact despite spacing changes and deformation in compact assemblies.

Thermally isolated sub-heat sinks cool GPU and HBM dies independently, reducing thermal cross-talk and avoiding temperature-driven throttling.

Segmented support bars and dual rollers stiffen a vehicle rollable display, resisting touch pressure and vibration without losing flexibility.

Channels and protrusions discharge trapped coolant from a female connector cavity, enabling full male insertion and stable electrical contact.

Phase-change loops with cross-contact hot and cold sections add heat paths in thin electronics, reducing heat buildup and crash risk.

Electrically tuned scattering layers switch between transparent and opaque states to filter light while concealing cameras or photovoltaic cells.

A conductive and nonconductive housing split preserves stiffness and antenna function while avoiding costly metal surface finishing.

A base motherboard with an optional extension board fits different chassis sizes, cutting dedicated board development and manufacturing cost.

Detachable circuit cases use magnetic and fastening mounts to enable front and rear access, simplifying tiled LED display maintenance.

A pivoting elastic retainer secures and releases M.2 SSD cards without screws, cutting assembly complexity, parts cost, and tool use.

Combining accelerometer vibration peaks, stationarity checks, and electrostatic sensing cuts false touches with low power use.

By combining low-speed signals and reducing cable count, this board layout improves airflow, heat dissipation, and signal integrity in dense assemblies.

Magnetic pogo pin docking replaces angled USB-C insertion, improving alignment, signal integrity, and docking durability.

Interleaved heat pipes with different wick properties balance high Qmax and low thermal resistance for processor cooling across full power modes.

A magnet-mounted USB hub uses friction and controlled rotation to stay secure, reduce cable tangling, and absorb impulse forces.

A cantilevered elastic contact shortens the signal-to-shorting path while preserving connection reliability for high-frequency board assemblies.

Conductive particles in an adhesive layer and matched driver grooves stabilize panel-to-driver electrical contact for reliable display and input signals.

Biomimetic shark-fin fins with channel holes reduce recirculation and drag, improving airflow uniformity and heat exchange in cooling stacks.

A side-mounted motor bracket and guided gear support reduce friction, save space, and stabilize sliding in rollable displays.

A push-button retractable male connector locks into a groove for stable storage, reducing dock plug damage while keeping connection use convenient.

A rotating hook and elastic arm lock expansion cards securely during insertion while enabling quick release with a simple press.

A multi-point retainer secures memory modules in x, y, and z directions to prevent loosening under strong vibration and dynamic loads.

An upward-inclined latch disengagement path helps detachable units stay connected under impact while allowing smooth intentional release.

A triple-axis retainer secures memory modules in rugged sockets to resist vibration, prevent dislodgment, and reduce system errors.

Auxiliary patterns in soft portions guide anisotropic conductive film transfer, preventing over-transfer cracks and cutting waste in stretchable displays.

An upward-inclined latch release path helps detachable electronic units stay connected under impact while still allowing smooth removal.

Stacked graphite sheets replace cavity-based heat pipes to keep heat dissipation while reducing thickness, weight, and manufacturing complexity.

Overlapping hinges guide one-way folding of flexible display supports, protecting panels from reverse bending stress and improving portability.

Flexible PCB ring sensors maintain consistent skin contact, improving long-term comfort and biometric monitoring accuracy.

A honeycomb carrier film lets a vehicle display roll into tight space while preserving stiffness and force distribution during touch use.

Wireless breaker communication keeps fault status visible after trips and supports remote reset and field reprogramming in hard-to-access panels.

Adjustable flow tubes balance coolant distribution in immersion-cooled servers, reducing uneven heat dissipation across electronic devices.

A transverse pump layout and direct cold water bank connection cut height and eliminate hoses and adapters for a more compact heat sink.

Manifest-based power control keeps only application-required onboard devices active, cutting vehicle energy use and avoiding unnecessary activation.

A PMIC regulator switches between high and low reference voltages to avoid dropout under load while cutting power loss in low-power mode.

Separate cold plate domains with a sub-1 mm thermal break match cooling to each component, cutting excess cooling and operating cost.

Cone-shaped cavities spaced across the boiling plate activate nucleation at lower temperatures, improving bubble formation and heat dissipation.

Real-time timing sensors and PSO tune on-chip voltages to cut guard-bands, offset aging and noise, and reduce timing errors.