Details For Portable Computers TRIZ Cases

Segmented metal support plates with elongated through holes balance foldability and strength while preventing stress defects in flexible displays.

Separate planar and curved display panels improve bezel-less support stability and heat dissipation while lowering cost and failure risk.

Sensor-based angle and magnetic detection flags incorrect multi-hinge folding order and prompts users to protect screen structure and lifespan.

Guided hinge plates follow a straight path despite different rotation axes, reducing flexible display buckling and improving fold stability.

A movable monitor-base keeps eye-to-monitor distance stable when glasses block the display, preserving full virtual image visibility.

Alternating via-hole groups in the support plate spread bending stress more evenly, reducing fold creases while preserving rigidity.

A removable bezel connection lets damaged notebook display bezels be replaced without scrapping the cover, cutting maintenance waste and cost.

A rear-mount adjustable port bar shifts mass to prevent tipping while adding USB-C, HDMI, and Ethernet ports without thickening the base.

Single- and two-finger gestures let messaging apps move through menu levels faster on smartwatches and other constrained interfaces.

A movable camera shield protects notebook privacy while preserving frame appearance by operating through the housing instead of added frame holes.

A positioning post and internal engagement structure let notebook keyboard or touchpad modules detach quickly while reducing screws, labor, and cost.

Adaptive switching between wearer and outward displays lets an HMD serve both users while cutting unnecessary power use.

Keystone removal triggers an embedded controller to shut down the processor and place the battery in storage mode before service.

Coupled gear transmissions synchronize both hinge sides for automatic foldable device opening and closing with less manual effort.

A pivoting dock aligns electrical contacts and latches to give vehicle-mounted mobile devices secure installation and reliable connection.

Moving pads selectively shield the preliminary window during staged etching to form a gentle slope for foldable device windows.

A rack-and-pinion adjustment mechanism lets a wearable display align precisely with eye position while preserving structural stability and user comfort.

Stoppers, springs, and wires sequence multi-hinge folding to avoid panel interference and protect hinge portions from damage.

Hinge angle detection switches functions across three display areas, improving foldable UI versatility without adding extra screens.

An elastic support member bends to create screen clearance while swing arms and door panels simplify the foldable assembly and lower cost.

A low-power MCU preselects positioning system data and syncs it on demand, cutting wearable GNSS energy use while keeping fast positioning.

Segmented digitizers and staggered support plates keep fold zones clear while preserving touch coverage, bending ease, and structural integrity.

A cam-based locking unit strengthens a portable display case while separating lock and unlock actions to reduce vibration and absorb shock.

Arc-shaped supporting portions on both housings hold the folded display curve, reducing collapse, indentation, and damage under external force.

A hinged rear auxiliary screen expands laptop viewing area with minimal added thickness and supports parallel or reverse viewing modes.

A fold-out bracket opens bottom vents to improve airflow and heat dissipation without adding the bulk of an external stand.

A separate foldable shade assembly shields the laptop from sun glare while allowing the lid to open beyond 90° for better outdoor use.

A sliding keystone lock replaces screws and cables to secure a laptop while enabling fast disassembly for recycling and reuse.

A dual-interface drag-and-drop workflow improves resource integration speed while preserving user control for sharing and management.

Hinged display transitions and a sliding, tiltable input carrier expand computing layouts without sacrificing compact storage.

A thinned central fold region with thicker strengthened outer portions enables small bend radius without sacrificing impact and puncture resistance.

Tx, Rx, and listen-time tracking estimates WLAN power use, enabling thermal control that protects battery-powered AR and VR devices.

Sensor-based display switching keeps app content visible as a foldable device moves between unfolded and folded states.

Bosses extending into keyboard cutouts let brackets securely support an electronic board when laptop chassis edge space is tight.

A rotating lid and connection assembly keep rear vents and ports clear when a drop-down hinge laptop is unfolded, reducing heat buildup.

Segmenting planar and curved display panels preserves a bezel-less screen while improving support stability, heat dissipation, and cost.

A graphene-filled rubber foot and copper mount spread CPU hot-spot heat across a thin housing to lower surface temperature without throttling.

An interlocking hinge with spiral rotation members and a sliding link stabilizes foldable housings while preserving large-screen portability.

Depth-based spatial and time input lets users manipulate 3D wallpaper video for more immersive effects without relying on basic 2D filters.

Interference-fit surfaces and damping members hold a foldable screen near 180° when opened, improving display flatness and hinge stability.

A nested hinge bracket and rubber-supported rear plate enable durable housing rotation in compact foldable electronic devices.

A switch assembly reuses cross-hinge signal lines between mutually exclusive modules, cutting wiring area and connector demand in foldable electronics.

Segmented hinge members and a plastic side cover protect the foldable OLED panel from shock while simplifying hinge assembly.

An extruded member in a foldable hinge creates static friction when folded and gap fit when opened, preventing axial rubbing and extending service life.

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

Surface compressive stress and direct bonding let foldable glass or ceramic substrates bend tightly while resisting impact, puncture, and instability.

Different rotational resistance at two pivot points controls which hinge axis moves, enabling stable motion beyond 180 degrees without pinching or damage.

A stacked sub-board and bridge-board layout simplifies laptop assembly and disassembly while maintaining reliable electrical connections.

IMU-based terminal input improves XR cursor speed and accuracy while combining posture guidance, touch control, and key entry.

A snap-in cable backplane routes camera signals through the display substrate, cutting cable count while monitoring wear to predict hinge-link failure.