Details For Portable Computers TRIZ Cases

An auxiliary sliding device made of self-lubricating polyoxymethylene minimizes wear on the connecting mechanism, enabling smoother display module rotation.

Adjustable magnetic coupling prevents accidental separation during handling while enabling easy detachment through shape-memory alloy actuation.

A touchpad unit uses magnetic repulsion to stabilize the frame relative to the bottom plate.

Segmenting display areas eliminates visual clutter and integrates handheld PC functionalities.

A computing device features a primary LCD and a secondary touchscreen integrated into the keyboard deck for dual display operation.

Segmented metal and non-metal plates in a step covering layer maintain constant thickness, hiding digitizer level differences under high luminance.

A head-mounted display fan creates airflow from the face side toward a casing hole, lowering temperature and humidity in the space between the device and user.

A foldable dual-display information handling system transitions between multiple postures using a dynamic hinge mechanism.

A device holder assembly coordinates multiple portable computing devices through a central spine and driver software to resolve screen size limitations.

Switching sensor configurations between full and partial detection modes reduces power consumption while maintaining input detection capability.

A keyboard module uses a silicone film and light-emitting units to display virtual buttons alongside a point stick.

A dual-screen foldable display detects opening degree and tilt to route application images automatically.

Double contoured housing tilts a flexible display to blend aesthetics with standalone cellular functionality.

A pivot-driven baffle exposes bottom heat exhausting openings, increasing airflow volume to reduce component operating temperatures in compact portable devices.

Segmented housing halves with internal springs enable rapid mounting on the user's head, eliminating complex strap adjustments.

An elastic extending portion shields screen edges from surface contact, preventing scratches when the device rests in tent mode.

Segmenting the display from the processor housing reduces weight while maintaining battery life.

Continuous skin contact detection prevents unauthorized access when a wearable device leaves the user's body during function execution.

A flexible display element bends with the main body to conform to user curvature, preventing mechanical tension on the screen.

Segmented touch panels with distinct conductive patterns prevent damage in folding regions while maintaining input recognition continuity.

A flexible cover film spans the gap between spaced plates to prevent foreign substance entry and enhance reliability during folding.

A transmission unit links a display hinge to a bottom foot pad, moving the support component parallel to the surface as the screen rotates.

A drainage passage under the insertion port discharges liquid from the keyboard unit to prevent leakage into the body chassis.

A hinge guide member with a recessed area accommodates the third display portion during folding operations.

A MEMS sensing module detects respiratory and tactual movements to replace mechanical buttons, reducing inadvertent actions during single-handed operation.

A biaxial hinge mechanism couples two main units to maintain constant screen distance and balanced appearance across usage modes.

Dynamic alarm volume control adapts to ambient noise levels, preventing missed alerts in noisy wards while minimizing disruption during quiet periods.

A diagonal motherboard layout reduces laptop thickness to under 10 mm while maintaining standard keyboard functionality and effective thermal management.

A display panel support frame employs a mechanical linkage to enable relative displacement, reducing tensile stress on flexible screens during folding.

A bendable conductive member varies contact with a sensing member during sliding operations to detect device states.

Hinged rotary modules link via internal wire to expand display area while maintaining compact folded volume.

An integrated supporting plate uses tapered openings in its bending region to disperse stress, improve flatness, and simplify assembly.

A symmetrical wearable device structure enables quick wrist reconfiguration while maintaining ergonomic interface access.

A support unit with a frame guide and sliding support frame maintains the flexible display panel in a flat state.

Multiple dual-shaft modules distribute torque to maintain position in thinner devices, extending life cycle through coordinated rotation.

A textured pattern on the base of a computing device resolves orientation confusion by providing tactile cues that prevent accidental drops.

A siloxane-epoxy hard coating layer protects flexible display windows against mechanical wear and chemical damage.

Sensors detect stylus pull-out length and rotation angle to navigate menus, eliminating separate touch operations for selection.

Variable thickness profiles reduce thermal resistance in compact chassis designs, resolving volume constraints while maintaining reliable heat dissipation.

Segmented support sections linked by a flexible bending joint allow multiple display rotation states without increasing apparatus thickness.

A mobile terminal collects physiological state features to authenticate users without external devices.

Cam mechanisms in the hinge assembly adjust spacing between device portions to prevent display damage from contact forces at non-parallel orientations.

An integrated connector merges storage and mounting functions using elastic members to resolve the trade-off between structural complexity and user convenience.

A spring-biased, radio-transparent hinge gap cover seals the housing opening against dust intrusion without blocking antenna signals.

A curved support unit reciprocates along a guide rail to maintain device angles.

Dynamic cursor speed adjustment resolves the contradiction between limited touch panel size and ease of operation by varying velocity across designated regions.

A hinge mechanism rotates a device part to expand an internal gap, preventing air inlet blockage on soft surfaces and maintaining effective heat dissipation.

A docking device operates hinge mechanisms to open and close portable information device chassis without manual handling.

Dynamic support portions shift positions to create a receiving space, preventing sharp bends that damage the flexible display.

Back surface protective layers with suppressing members block unwanted capacitance changes, preventing wearable device malfunctions during skin contact.