Details For Portable Computers TRIZ Cases

Multi-layer touch routing keeps bezels narrow while preserving touch sensitivity and reducing noise between display panel sensor electrodes.

A force-sensing palm rest separates intentional function-row touches from resting palms, improving input accuracy on compact keyboards.

A flexible display spanning three housing surfaces enables varied viewing, touch input, and image capture without separate screens.

A bonded protective member cushions the foldable display bending unit, preventing bracket contact damage from pressure, foreign matter, and static.

Nested illumination and imaging paths shrink near-eye projection optics while preserving light-field image quality for wearable displays.

Conductive fabric and dielectric layers improve bending resistance in foldable transmission assemblies while maintaining reliable signal transmission.

Different etching patterns on both sides of a glass window layer help foldable displays balance bendability, rigidity, scratch resistance, and visibility.

Localized thinning and relief features let a ceramic cover fold with a flexible display while limiting internal stress and preserving impact resistance.

A 6-DOF support and optical alignment cameras position projectors and waveguides within thresholds to improve head-mounted display image quality.

Stopper brackets in the hinge lock a stable 180° opening, absorb impact, and protect flexible displays from reverse folding damage.

A lid-linked exhaust panel opens or blocks notebook vents to maintain airflow, reduce display heating, and limit hot air recirculation.

A dual-shaft lock blocks folding while the sliding screen is extended, preventing scratching and abnormal operation during retraction.

Capillary water absorption and liquid storage drain vapor outward at a preset volume, improving electronic waterproofing without added bulk.

Separating the control board and other hot parts from grip zones keeps touchable areas cooler while preserving heat dissipation through transfer members.

Nested illumination and imaging optics shrink near-eye light-field projection while preserving image quality for wearable AR glasses.

A spring-loaded rotation hook fastens thin electronic housings to prevent cover pop-out while preserving rigidity and low weight.

Elastic pressing and position grooves let a foldable hinge hold multiple angles while keeping the structure thin, durable, and space-saving.

Controlling adhesive modulus and creep at 60°C helps flexible display layers absorb folding stress and avoid peeling or cracking.

Integrating touch traces between the cover layer and extended pixels enlarges display and touch area without increasing bezel size.

A compensated hinge structure aligns hinge plate motion across different rotation axes to prevent flexible display buckling and improve folding reliability.

Sensor-based position and motion detection cuts HMD power use by dimming or shutting down components when the headset is upside-down or idle.

Two SoCs split camera, display, VIO, gesture, and depth tasks to balance CV workload and power in 3D smart eyewear.

A rotating and locking housing mechanism changes spacing between wearable housings to fit different body shapes without a fixed configuration.

Optical flashes captured at a different image rate reveal camera timestamp offset, improving AR tracking alignment and virtual object placement.

Tilted support plates and elastic compression enlarge folded display space, easing bend stress and improving flexible screen reliability.

A flexible display stacks into a housing groove to deliver a large screen in use without a foldable housing or added structural complexity.

A one-way clutch bearing locks a hinge link at a predefined angle, enabling smooth two-stage laptop opening and stable access to rear ports.

Periodic low-power and active-state switching captures voice data while discarding irrelevant audio to extend wearable battery life.

Corner recesses in the chassis wall reduce panel collisions during drops, protecting the display while keeping bezels narrow.

Patterned meta-optics and an interposer layer cut camera thickness and assembly complexity while preserving image quality in compact systems.

A movable hook and locking column let the laptop keyboard lock securely yet release from outside the host for faster maintenance.

Overlapping protrusions and protective members hold the hinge housing in place to prevent impact damage to the display and digitizer.

Short-range wireless session detection lets nearby AR glasses auto-pair and align shared effects with less setup and lower processing overhead.

Oblique microphone and projector placement uses the display as an acoustic reflector and barrier to isolate the intended guest's voice.

A heat dissipation member exchanges heat with the lamp substrate in wearable optics, improving thermal control and user comfort.

A movable hinge uses sensors and motor control to keep a rollable display centered with its input device as size or aspect ratio changes.

Oblique display and microphone placement reflects a guest's voice off the screen while blocking stray audio for more accurate attraction responses.

A hinge-linked dual-panel display keeps panel and input-unit gaps under 3 mm to create a near-seamless screen with stable folding support.

Grid openings in the support plate ease rigidity mismatch in foldable displays, reducing stress concentration while preserving panel support.

On-hand virtual controls in XR improve gesture precision and ease of use by turning the user's hands into separate control and function interfaces.

A removable VR heatsink joined to a liquid-cooled cold plate cools both the processor and voltage regulator while easing maintenance.

A stepped air mover cover and split fan layout improve notebook airflow, cool CPU/GPU zones, and lower skin temperature without overcooling.

A switched USB hub lets one eyewear port debug multiple SoCs while allowing the hub to shut down so chips can return to low-power modes.

Three inline rear air movers cool notebook heat-rejecting media while preserving side I/O space and keeping hot exhaust away from users.

Fans placed between front cameras create forced airflow over the processing board, shrinking HMD thickness without losing cooling capacity.

A single curved glass housing merges display and input areas to improve scratch resistance, tactile feel, and structural support.

A nested heat dissipation member exchanges heat with the lamp substrate while preserving compact wearable form and lens insulation.

A sidewall intake vent near the keyboard edge cuts bottom-gap airflow impedance, improves cooling, and avoids liquid-spill damage.

A laminated, thermoformed wing plate reinforces the foldable display around the hinge, improving structural stability and durability through repeated folding.