Digital Data Processing Details TRIZ Cases

An existing camera switches between low-output sensing and high-output imaging modes to cut hardware cost, power use, and front-side sensor clutter.

A segmented joint with bearing-supported foldable links improves rollable display assembly while reducing oil leakage and joint fatigue.

A wing-bracket and driving module let a flexible display change curvature freely, hold a constant bend, and cut power use.

Staggered ribs on parallel vent planes block direct views of internal parts while preserving airflow for heat dissipation.

Varying layer thickness between fixed and rollable display regions improves bending flexibility while preserving front-surface strength.

Dynamic camera subset switching cuts XR tracking power use and processing load while preserving accurate object tracking.

Links construction photos and videos to BIM elements and inspection data, making large media sets easier to search, review, and use.

Different fixing materials secure the in-display fingerprint sensor during fabrication, preventing dislodgment and preserving sensing accuracy.

A repositionable fan carrier aligns airflow with vertical or horizontal electronics units to improve heat dissipation without a fully fixed stand layout.

A multiplication and ACG accelerator with pre-fetching and pruning cuts memory access overhead while extracting graph features for similarity analysis.

A segmented flexible support with thickness variation and elastic fillers stabilizes rollable displays while reducing panel stress and damage.

Combines text flow, in-line data access, and table calculations on one document surface to improve collaborative editing and viewing.

Rotating hinge units create transition and fully folded states that hold accessories securely while lowering flexible display bending stress.

Touch sensors placed under front, side, and rear walls collect input from multiple directions without blocking the display.

A low-power sub-processor moves selected data from DRAM to SRAM before hibernation, cutting DRAM power while preserving fast startup access.

Dual shields route projector heat to different eyewear regions while also providing EM shielding to maintain stable operation.

By lowering host signal processing frequency during mode switching, the device keeps data exchange active while entering a lower-power state.

Alternating plate patterns and support bars stabilize a rollable display during extension and retraction, reducing stress and damage risk.

PCB backplane traces link storage and switching modules inside the chassis, cutting switch cabling, deployment time, and maintenance effort.

Nonlinear mapping and secure dot products enable fair two-party real number comparison with lower computational cost and no third-party cloud.

Interpolated combined frames cut UI and render-thread load during fling scrolling, reducing power use and avoiding jitter, freezing, and blur.

A rounded-edge support layer lets the inactive OLED panel area wrap behind the display, shrinking bezels while reducing bend stress.

Engaging protrusions and a guide slit keep the bendable member supported during sliding, reducing flexible display lifting and surface defects.

A pre-shutdown authenticated setting preserves digital key access at low battery while limiting unauthorized use after device shutdown.

Different cavity thicknesses and capillary flow improve vapor diffusion and liquid return, boosting vapor chamber cooling even against gravity.

A canvas-drawn overlay window hides rounded-corner distortion during non-proportional scaling, preserving smooth display animation.

A recessed hinge blocking member creates avoidance space that buffers drops and helps prevent foldable display black spots or line failure.

Posture-aware AOD shifts between main and back screens on an outward foldable display to keep information visible without dual-screen power waste.

Temperature-triggered switching between SLC and TLC firmware storage protects flash data integrity at high heat while recovering capacity after cooling.

Noise-aware training models analog MAC errors and precision limits, cutting neural network power use and inference time on hardware.

Integrated multispectral sensing through a layered sensor window cuts size and power use while improving subcutaneous biometric and health measurements.

Age-based press duration thresholds help camera apps distinguish short and long shutter presses, reducing misoperation and improving input accuracy.

Partitioned coolant cavities enable jet impingement cooling with higher critical heat flux while shielding the pump from cavitation.

Repelling magnets between the housing and slide structure cut friction, improve slide feel, and prevent flexible display lifting over time.

Self-lubricating rails cut sliding friction between moving display bodies, helping prevent scratching, deformation, and unstable grip forces.

A powered movable support frame expands or retracts with the screen connector to vary display area while protecting a flexible screen from impact.

Adaptive switching between quick and slow display sliding policies improves scrolling smoothness, lowers power use, and avoids white or black blocks.

A light-guide carrier, guided insertion, and linear-motor ejection simplify compact NVMe RAID hot-plugging while improving status visibility.

Floating heat sink modules and a shared base cool chips at different heights while reducing uneven pressure and assembly complexity.

Selectable multiply and sum circuitry speeds bit matrix multiplication in processors while preserving general-purpose core versatility.

Position and gyro sensing adjust the virtual scene viewing angle without screen sliding, reducing task interruption on mobile terminals.

A handle-driven connecting rod lets a server chassis holding seat slide and lock for tool-free electronic element assembly in tight spaces.

A chained PPE architecture with per-cycle ALU reconfiguration balances SmartNIC packet-processing flexibility with high throughput.

Parameter-based API selection matches matrix operations to suitable algorithms, cutting memory, time, and compute overhead.

Optical splitting with reflected-path feedback keeps distributed reference signals phase-aligned while reducing noise and power loss.

Dual-polarity memory cells and duration-coded row activation shorten signed MAC elaboration time and raise IMC throughput.