Details For Portable Computers TRIZ Cases

A dynamic virtual touchpad adjusts its range to keep input positions within bounds.

Tension springs in the hinge structure provide elastic restoring force that maintains structural stability during folding operations.

A folding sensing module detects electronic panel state via conductive pads and drivers.

Volume Bragg gratings filter broadband projector light to eliminate unused wavelengths, reducing energy consumption and removing image artifacts.

A polymer-dispersed liquid crystal layer adjusts light transmittance across a foldable display panel.

A head-mounted display splits the video processing assembly to the rear, balancing weight distribution across the mounting structure.

A folding module central joint connects multi-joint bodies to distribute stress across the hinge assembly.

Etched circuit board regions enable click and touch inputs, reducing device weight and thickness by eliminating separate components.

Replacing tempered glass with a molded foam support member reduces apparatus weight and thickness while maintaining display strength.

Segmenting the inorganic layer into discrete patterns prevents buckling and cracking during folding while maintaining optical reflectance control.

Segmenting the screen area allows automatic position alignment without manual adjustment, resolving misalignment caused by physical impacts.

A sliding assembly opens a heat dissipation channel between shells to remove heat, preventing performance throttling in compact devices.

A docking station uses a pivot assembly to rotate a supporting board, allowing portable devices to adjust their viewing angle while maintaining electrical connectivity.

A low-power microcontroller executes applications without booting the main system-on-chip processor.

Curved display side areas detect grip types to resolve usability trade-offs from non-flat geometries.

Augments head-mounted display scenes with spectator inputs to resolve the trade-off between user immersion and social engagement.

A nested screw hinge structure reduces volume while enabling 360-degree rotation.

Detecting mobile terminal tilt displays inactive objects for selection, resolving limited interaction capabilities in multimedia devices.

Segmented adhesive bonding reduces stress concentration in the folding area of a flexible display, preventing deformation and preserving image quality.

A foldable display mount uses an adhesive perimeter to secure a variable-thickness cover layer extension within a housing recess.

A collapsible electronic equipment hinge uses a motorized gear set to drive a shifting mechanism that moves a shaft between positions.

A rotating mount engages a shaft via a friction clamp to stabilize tablet positioning and prevent unwanted rotation.

Segmenting the support into a deformable lattice and rigid shape holding portion prevents wrinkles on the display surface.

Oblique holes in the bendable region reduce stress concentration, improving connection reliability and preventing peeling during folding.

A self-configuring wearable module automatically detects user activities and accessories to adjust operational modes without manual input.

A vertical keyboard mechanism resolves the contradiction between flexible screen portability and tactile input efficiency.

A foldable display device uses a grooved support structure with composite materials to reduce weight while maintaining structural integrity.

Segmented adjustment units manage stress distribution across curved portions to prevent damage from excessive folding.

Strategic via-hole spacing in the folding region maintains structural rigidity while preventing cracks during device operation.

A folding display apparatus uses a segmented support member to enable multiple bending modes.

Segmenting screen objects into hidden groups reduces visual discomfort while preserving full functionality on foldable displays.

Universal attachable device acquires object data and displays it, reducing manufacturing costs by replacing dedicated instrument displays.

Body Coupled Communication transfers credentials to personal devices, resolving security risks on public screens.

A laptop display unit uses a gear set and rack structure to drive a frame for stylus extraction.

Rotating the keyboard around a lateral axis maximizes display area while providing tactile input capability.

Flat sections on the shaft and coil eliminate chassis spring back without magnets or reverse cam designs.

Gravity sensors detect Euler angles to swap vertical and horizontal touchpad coordinates, resolving inconsistent input directions during device rotation.

Segmented architecture with wearable accessories monitors attachment status to send lock signals, resolving security complexity trade-offs.

Virtual display management system routes continuous multi-touch gestures to switch active screen regions on mobile devices.

A context-aware user interface dynamically adjusts graphical elements based on sensor-detected display posture and keyboard position.

Continuous skin contact detection prevents unauthorized access when a wearable device leaves the user, ensuring authentication only while securely attached.

A height adjuster expands the inner space of a portable electronic device to enhance airflow.

Integrating the resilient device mount into the pintle prevents terminal failure from torsional stress while maintaining a cable gap.

A flexible back end extends automatically upon hinge rotation to increase the device footprint.

A computing device integrates a hinge and guide system to rotate and translate the display portion over the keyboard base.

Rotating connecting arms fold onto the main body to reduce volume, resolving the trade-off between user adaptability and portability.

A touch pad applies distinct load thresholds to differentiate button regions, suppressing erroneous detection while maintaining a slim design.

A receptacle with a pivotable protrusion secures information handling devices at selected orientations.