Digital Data Processing Details TRIZ Cases

Calibrates imaging-hole and sensing-element mapping after folding to keep fingerprint imaging and identification accurate.

Alternating frame periods separate touch and biometric sensing to reduce interference and improve input detection accuracy.

A dedicated DMA processor and memory handle peripheral data transfers without CPU management, cutting power use in low-power states.

Movable clamping and bending members shift the bend position on flexible display panels, cutting reload time and speeding continuous forming.

An intermediate DPM off state lets the display verify DisplayPort wake signals, blocking noise-triggered power-on and reducing wasted energy.

Floating-window handoff and collaborative image sync preserve visual continuity when a Windows window is dragged onto an Android screen.

A processor links each external apparatus to its smart plug so one command can cut standby power and still coordinate power-on control.

Application-driven mode switching adjusts constellation and frequency settings to cut positioning chip power use while preserving needed accuracy.

Localized plate thinning and selective groove placement reduce folding repulsive force and crease formation while preserving display support and quality.

A foldable split-screen layout shows a main screen beside smaller secondary screens to improve multitasking without hurting usability.

A mask-based sparse array accelerator loads only non-zero elements and scales active MAC circuits to cut memory use, power, and compute waste.

A stopping assembly constrains side fingerprint button travel, preserving dual-function use, position stability, and durability.

Spatially local activation caching lets smaller MAC groups reuse inputs independently, reducing fetch delays and uneven sparse processing.

An elastic blocking member keeps debris out of the housing-display gap while reducing friction during rollable display sliding.

A microstructure-based covering changes its random output when probed, invalidating the signing key and blocking physical key extraction.

A single functional layer combines light blocking and shock absorption to reduce flexible display film count, cost, and process complexity.

A chamber feature blocks direct flow to lower fluidic resonance, cut backflow, and boost compact MEMS cooling for heat-limited devices.

A recessed-notch fan routes airflow through thin laptop housing layers to cool the cover body and lower keyboard-area temperature.

Opaque mask regions in the display cut camera diffraction while avoiding metal-sheet thickness and wrinkling in under-display camera designs.

A thinner protective-layer edge and preset gap limit glue contact during film removal, reducing tearing risk and improving flexible panel yield.

Low-friction sheets between sliding housing frames cut drag, save driving energy, and block gap distortion and foreign substance ingress.

Dynamic control-region remapping and cursor-speed adjustment keep input aligned when a variable display shrinks or expands.

A UV-molded polymer layer adds variable thickness and tactile patterning to foldable displays while preserving visibility, durability, and camera resolution.

An extendable auxiliary support assembly braces against carriers to steady a transfer robot during high-shelf container pick-and-place.

A bus repeater detects device wake-up events and interrupts the host, cutting USB PHY power use during low-power mode.

Splitting large bit-width values into smaller native-width parts lets processors handle complex data without losing computing efficiency.

UE capability reporting lets the network set rake receiver configuration and MCS, cutting equalization complexity and power use.

A deformable double-ring seal clamps the pipe interface to stop coolant leakage while preserving compact water-cooling heat dissipation.

Convex curved panels in bent finned channels keep coolant velocity uniform across chips, improving temperature consistency and heat dissipation.

Communicated sub-flow channels and integrated fins improve chip temperature uniformity while simplifying liquid-cooling assembly in supercomputing servers.

Flow guide plates and fins split coolant into sub-channels to equalize server chip temperatures, reduce turbulence, and improve heat dissipation.

By identifying the fan that degrades disk I/O, this case balances cooling, vibration, and energy use through targeted speed adjustment.

Machine learning predicts PMIC settings from workload, power, and temperature data to balance memory sub-system performance within power limits.

By combining selected NAND sub-blocks and bit positions, this case extracts more strong PUF data without added comparator circuits.

Automatic fan type detection via UART or I2C lets one chip identify DC, PWM, and ARGB fans and switch speed or lighting control accordingly.

A widening confluence region redistributes coolant across finned channels to reduce lateral chip temperature differences and lower junction heat.

Movable gripping holes let larger heat sinks stay compact for manual assembly while enabling secure robotic transport and installation.

A shared RNG and VDC-based correlator generate stochastic division bit-streams with higher accuracy and lower hardware cost.

Separate memory banks and a routing shift register feed MAC circuits without duplicate matrix storage, improving convolution memory efficiency.

A recessed bracket and plate form an internal acoustic duct that improves sound transmission while limiting rear sound leakage in compact wearables.

A dual-arrangement case aligns a screen protector, uses dust-removal film and pull tabs, and helps prevent trapped air during application.

Bezel touch electrodes and wirings replace physical keys, preserving user input while enabling narrower display borders and faster touch feedback.

Sense amplifiers generate internal voltage for MAC operations inside memory, cutting data transfer overhead and current use.

Spring bolts and rib-aligned heat sink sections improve hash board contact uniformity and tightness while easing manufacturing precision demands.

A low-modulus second colloid cushions impact stress between the display and midframe, improving bond reliability and limiting warping.

A six-stage FP carry-save MAC handles exceptions inside the pipeline to keep BF16 and FP32 accumulation running without stalls.

Multiple heat paths through shielding case, display side, and thermal underfill help smartphone chips dissipate heat faster and sustain performance.

A metal plate open part and low-expansion filling member protect the under-display fingerprint sensor from thermal deformation.

Dynamic template selection and JIT configuration adapt chip computing functions to workload scale, reducing manual tuning and development time.

Bitwise overflow skipping helps parse Z-order mapped multidimensional data without wasting cycles on invalid coordinates.