Details For Portable Computers TRIZ Cases

Microfluidic feet extend to elevate a portable computer housing, resolving thermal throttling in thin-profile designs.

Distributing touch sensing across multiple device sides reduces physical input footprint.

A five-element optical lens combines glass and plastic materials to achieve high spatial resolution.

Segmented display portions on rotating cases prevent excessive curvature while magnetic attraction maintains case alignment when unfolded.

A magnetic latch system secures electronic components in a clamshell housing using attraction forces between bay and component magnets.

A mechanical keyboard integrates capacitive touch sensors beneath keycaps to detect swipe gestures and capture digital signatures directly on the input surface.

Sensor fusion resolves gravity vector ambiguity in hinged devices, enabling precise orientation detection across all positions.

Segmenting the support module into a flexible fiber base and a rigid support layer with openings resolves the strength versus flexibility trade-off.

A portable electronic device uses a multi-pivot support structure to enable smooth screen rotation.

A camera module uses a spring sheet to increase hinge friction during extension for stable positioning.

Segmented grounding pads and capacitive mounts resolve interference between cellular and satellite navigation bands in compact devices.

Replacing bulky elastic dome switches, layered magnetic coils sense a magnet to generate vibration feedback while reducing touchpad thickness.

A dual axis hidden stand hinge extends a portable information handling system support parallel to the main housing lower surface.

A base with concave and detachable frames guides circuit board and touch film placement.

Segmented modular computing device components enable tool-free hardware upgrades through universal physical interfaces.

Physical dial rotation navigates lists and selects items off-screen, eliminating touch errors on small displays while conserving battery power.

An incised reinforcing member reduces shear stress on the folding region to prevent deformation during repeated bending cycles.

An embedded rail and hinge system translates a flexible display screen vertically to resolve ergonomic posture issues caused by fixed low screens.

Segmented sliding mechanism engages spring-loaded fasteners for rapid tool-free drive installation, reducing assembly complexity.

A pivotally connected palm component protrudes and tilts via a sliding linkage to create an ergonomic user interface.

An integrated bracket merges a keyboard with a rotatable support seat, resolving the contradiction between stable device positioning and convenient data input.

Orthogonal fiber arrangement in a recessed connector interface resolves connection strength deficits in lightweight carbon fiber laptop chassis.

Actuator position detection predicts user intent to suppress unintended display power down during foldable device opening.

A head mountable display chassis uses aluminum, magnesium alloy, and carbon fiber frames to distribute weight and manage heat.

Nested port walls trap debris while allowing acoustic signals, reducing component damage risk without increasing manufacturing complexity.

A foldable display control method segments the screen into primary, secondary, and side areas to show interface content and beautified patterns.

Detecting back-surface actuations on a dual-housing terminal controls front display scrolling without finger obstruction or mistaken clicks.

Segmented snapping bands engage at specific angles to reduce stress on flexible displays.

Dual light source modules illuminate an object to generate distinct spot patterns that differentiate hover from touch operations.

Rotating transition units distribute electronics along the head strap, resolving discomfort from unbalanced front-heavy designs.