A foldable electronic device uses a coaxially pivoted shaft and movable latching member to enable smooth relative rotation between body segments.
Segmenting the flexible display into distinct zones allows a thin film to shield vulnerable edges from impact damage while maintaining optical clarity.
A symmetric connector enables a tablet to dock in two opposite directions for seamless mode transitions.
A dual-MCU smartwatch architecture routes Bluetooth data through a low-power microcontroller to bypass the main application processor.
Fixed display panels lose visibility under improper light; a push bar and retaining portions set multiple viewing angles.
Rotatable input mechanisms scroll application views to reduce selection time and conserve device energy.
Machine-learned model trains on sensor data from failed gesture attempts to improve recognition accuracy.
Adjacent Fresnel surfaces in a three-lens group reduce optical path length, solving the size and light efficiency trade-off in VR devices.
A novel glass composition with controlled silica and alumina ratios enables ion-exchange strengthening.
A rotary positioning structure uses a cam-driven button to lock and unlock laptop display rotation.
Gear reduction limits elastic member elongation during height adjustment, preventing spring fatigue in heavy monitor stands.
Magnetic assembly generates repulsive force to maintain torque, preventing elastic fatigue and wear in 360-degree hinges.
Nested camera modules and dynamic hinges reduce bezel area in convertible devices, resolving interference risks between overlapping housings.
Etching staggered curved openings in the flexible part reduces rigidity and stress concentration, preventing warpage during repeated folding cycles.
A slot antenna formed in the gap between metal covers feeds power to a wearable device middle cover.
A command recognition method segments device edges into operation areas to detect holding gestures and contact point changes for intuitive input.
Segmented protrusion portions in the folding portion improve impact resistance without compromising folding characteristics of flexible electronic devices.
Balance bars and swing plates transmit pressing force to a triggering member, eliminating dead zones near pivot sides for consistent signal generation.
Dynamic magnetic field adjustment via a piezoelectric shaft resolves the trade-off between easy rotation and stable angle retention in foldable electronics.
Elastic members and a flexible guide member absorb shock forces, preventing damage to the display device while maintaining secure fixation.
Glass fiber reinforced PAEK polymer reduces warpage and weight while maintaining strength.
A flexible waterproof pad seals the touchpad opening hermetically, preventing water and dust ingress through the chassis gap.
A guide unit supports a curved display panel to prevent flattening and reduce bezel size.
Curved touch-screen sides vary scroll speed by touch location, resolving the trade-off between simple straight-edge manufacturing and unique user engagement.
A wearable device detects its position relative to the user body to adjust communication subsystem operating characteristics.
A magnetic locking mechanism prevents display collisions during tilting by engaging a plug with a connecting member to block unwanted sliding.
A multi-form factor information handling system corrects stylus touch input using dynamic parallax values.
Segmented support plates adjust position to prevent dents in foldable displays while accommodating bending.
A portable electronic device integrates a unified latch mechanism to securely engage detachable keyboard and support elements.
A foldable computing device uses dual hinges and a locking unit to secure enclosures for flexible display configurations.
Independent rotating bending portions isolate mechanical stress from rigid panels, preserving electrical element stability and display quality.
A metal member pulls a flexible display toward a second body to maintain a flat state, preventing wrinkles that degrade image quality during repeated folding.
A foldable mobile terminal incorporates a roller and spring mechanism engaging a housing groove to deliver tactile feedback at correct positions.
A capacitance track pad processor modifies raw inputs with confidence indicators to differentiate simultaneous track and key signals.
Segmented heat conduction members link the hinge assembly to display areas, distributing internal heat and minimizing temperature differences when folded.
An impact resistant bumper positioned near the hinge absorbs contact forces, allowing reduced clearances while preventing damage to fragile display portions.
Spatial light modulator directs phase-modulated light through a curved reflector to form an eye-centric image.
Dual pivot hinges with frictional clutches maintain structural rigidity during mode transitions without adding bulk.
A flexible window structure uses a high refractive layer and a low refractive layer to resolve the trade-off between bendability and impact resistance.
Unequal arm lengths and magnetic hinges resolve vertical stability issues while enabling easy folding.
A split hierarchy graphics processor system segments rendering across multiple nodes to produce high resolution video frames.
Front and rear touch sensors on a mobile terminal enable two-surface input detection, selecting specific display regions without altering the primary screen.
An electrical connection device routed through the bezel area links spaced components without requiring separate installation space.
A transparent display cover layer embeds laser-marked light-scattering structures in the border region to generate supplemental visual elements.
A fixation mechanism switches a flexible connection member between fixed and movable states to protect the circuit during secondary display rotation.
A composite touch gesture processing system integrates front-side display and back-side surface inputs to determine user interactions.
A rotatable hinge assembly couples a keyboard portion to a stand portion, enabling dynamic orientation adjustments.
Portable devices communicate orientation data to projectors for rendering a virtual laser pointer image, eliminating physical laser eye damage risks.
Supporting components prevent folds and crumples on compressed surfaces by distributing tension forces within the rotating hinge assembly.