Details For Portable Computers TRIZ Cases

A secondary processor bypasses the touch pad detection unit to lock or unlock tablet display rotation with lower power use.

Self-capacitance sensing in the fold area replaces Hall sensors for angle detection, cutting component count, power use, and cost.

Sliding side screens and elastic tension expand laptop display area while keeping the accessory compact, secure, and easy to retract.

A friction-and-gear rotating shaft lets a desktop bracket hold any angle securely without extra locks, while silicone pads prevent slip.

Heat pipes embedded in a rotating hinge cut thermal resistance and spread heat from the base to the screen for stronger passive cooling.

Removal areas in a display shielding film expose the support layer to release heat and reduce adhesive bubbles in bendable displays.

A high-strength reinforcement member at the hinge-side frame absorbs stop-block impact and prevents local collapse without a heavier full frame.

Multiple flexible display sub-regions stack inside a housing recess, creating a large screen without a complex foldable housing.

Removal areas in a display shielding film expose the support layer to improve heat dissipation and reduce adhesive bubbles in foldable panels.

Magnetic couplings and hinged retaining structures let one computing base swap displays and keyboards for flexible use across scenarios.

A hinge-routed flexible circuit with offset mounting members creates a gentler bend path, lowering stress and damage risk during folding.

Separate fan outlets cool the PCB heat source and display plate in a head-mounted display, reducing heat buildup in a compact layout.

An integrated door plate swing arm simplifies hinge motion, improves folding stability, and enables a compact water-drop fold under 14 mm.

A movable light-emitting touch pad lets notebook users shift the active touch area in real time to match left- or right-handed operation.

A rail-guided modular platform and magnetic latch replace mixed screws, enabling faster laptop disassembly, reassembly, and repair.

UI context analysis sets different rotation thresholds so screen orientation follows device posture without disrupting reading or typing.

Angle sensing lets a foldable flexible display switch to reflected split-screen modes, improving usability, privacy, and screen use.

A detent-biased two-stage hinge locks at a predefined open position to reduce key springiness and keep back edges accessible at 180°.

Differential facial support and a rolling lower contact keep a head-mounted display stable while allowing natural facial movement.

Cold air from a second fan side outlet is redirected to the vapor chamber, improving cooling without adding vents that reduce I/O openings.

A hydrogel face cover uses evaporative cooling to draw heat from head-worn electronics, cutting fan power, bulk, and noise.

A moveable slot filler tracks the sliding display assembly to cover housing gaps, block debris ingress, and simplify the mechanism.

A grooved housing and heat conduction sheet replace the air gap around a pluggable heat source, improving cooling while keeping insertion smooth.

Edge-connected scalar, timing, and power boards remove internal cables and screws to simplify display repair, reuse, and recycling.

Sensory feedback guides user movement through a planned image sequence, improving scene capture quality for 3D model generation.

Pyramid-shaped filled grooves in a foldable window preserve bending while reducing light non-uniformity and moire in displays.

Stereo cameras and audio sensors placed between the eyes and ears let wearable computing capture user-perspective scene data without blocking facial features.

An acoustic waveguide isolates the speaker sound path from nearby displays to prevent sound pressure leakage, noise, and mounting instability.

Aligned dummy lines and segmented coil layers let a digitizer fold into a dumbbell shape while preserving pen sensing and structural durability.

A rack-driven sliding hinge moves the notebook display away from the pivot-side vent to keep airflow open and prevent overheating.

An external drive and transmission module adjusts lens spacing precisely in a head-mounted display while easing replacement and maintenance.

An angled fan in a side-vent laptop increases inlet air area, cuts flow impedance, and lowers skin temperatures at hot spots.

Flexible display segments, alignment locks, and GUI transitions let a smartphone fold small yet expand into a larger touch screen for easier input and viewing.

Polarization-controlled beam splitting creates multiple focal planes in near-eye displays, enabling foveated views and reduced ghost images.