Details For Portable Computers TRIZ Cases

A viscoelastic buffer added to the hinge cam slide preserves pressing force and free-stop stability in thinner foldable devices while damping vibration.

Independent upper brackets and arc-shaped slides improve foldable hinge fitting accuracy while simplifying installation and alignment.

A sliding and flipping foam support mechanism lets head-mounted displays adjust eye relief and wearing angle for a better personal fit.

A segmented hinge linkage uses rotating members and connecting rods to maintain planar display support while reducing crease risk and part complexity.

Alternating arc-shaped sliding fits increase swing arm overlap in foldable hinges, improving rotational reliability and connection strength.

An interference-fit shaft and fastening base shrink hinge volume and add damping for precise, stable positioning in foldable electronics.

An insulated wear-resistant support surface in the rotating shaft reduces flexible circuit abrasion and prevents short circuits in foldable electronics.

An elastic, thermally conductive support fills the hinge air gap to stabilize the foldable display and limit low-temperature damage.

Inclined guide grooves and a reciprocating slide member replace gear interlocks to cut hinge vibration, noise, and part complexity.

A movable sealing structure and protection covers shield the foldable display edge from hinge-gap intrusion and user contact during folding.

Limiting structures fasten sliding grooves in a foldable door panel to improve strength and positioning accuracy without adding thickness.

A low-friction lubrication layer between hinge support parts cuts scraping noise during foldable screen opening and closing.

Alternating arc-shaped sliding fits distribute the hinge motion path to increase swing arm overlap, strengthen connections, and improve reliability.

Arc-shaped sliding joints let swing arms and connectors rotate by different angles, reducing display interference in thinner foldable devices.

Elastic components in the hinge apply differential restoring force to the bending region, reducing creases and improving display flatness.

Extruding built-in thickness features and then stamping the panel cuts machining waste and process steps for seamless, reinforced mobile enclosure covers.

A multi-axis hinge with hinge pins and barrels lets a foldable display stop and hold stable angles during folding or unfolding.

A wire, pulley, and counterweight support reduces perceived VR headset load, easing face and crown pressure for longer wear.

A driving rod, magnetic assembly, and lock release enable foldable devices to self-unfold without bulky manual hinge mechanisms.

A limiting cavity guides FPC and graphene layers through the hinge to prevent interference, screen light/shadow, and bending-life loss.

Integrated coaxial sliding groove surfaces cut part count and tolerance stack-up, improving swing arm motion accuracy in foldable phones.

Segmented supports on a rotating shaft hold the foldable display’s bending zone flat, preventing bulging, creases, and film stripping.

A protruding chassis hinge keeps a sub-display exposed across open and closed states while preserving ventilation and cooling.

Inclined cam sliding surfaces and elastic preload enable a foldable hinge to auto-open while keeping damping force stable through rotation.

A torsion-shaft hinge uses bumps, resilient force, and damping friction to enable easy one-handed opening while holding a stable angle.

A slot-guided laptop hinge exposes heat dissipation regions when opened and covers them when closed to improve cooling without adding bulk.

A hinge, bevel gear, and slide layout lets a flexible display fold and extend while reducing panel cracking and preserving portability.

Detachable underside mounts and adjustable prongs raise a laptop for ergonomic angles and airflow without blocking vents or adding bulk.

Separate rotational axes in the hinge and support member reduce display wrinkles and damage during repeated folding.

A spring-loaded clutch stand locks and unlocks for stable support and angle adjustment of a diagnostic computer during vehicle maintenance.

Etching a rigid metal plate, laminating it to the display module, and cutting both together improves edge alignment and reduces bezel area.

A curved groove and protruding plate control elastic torque during folding and unfolding, reducing knock noise while keeping the support frame stable.

Independent upper brackets and alignment features improve arc-slide accuracy, speed foldable hinge assembly, and reduce adjustment time.

Support plates and screw-fixed frame members reinforce a foldable chassis hinge to suppress edge deformation and preserve appearance quality.

Continuous plate openings in the folding area balance impact resistance and fold reliability while helping prevent wrinkles.

A dual-shaft elastic hinge replaces bulky gear trains to keep foldable device mechanisms thin while maintaining stable synchronous motion.

Sliding support plates create a triangle-like display pocket that keeps fold curvature uniform and reduces flexible display extrusion.

Multiple chains and rotatable sliding supports reinforce bendable display panels while keeping the support structure thin and durable.

A moving-block hinge keeps both sides rotating at the same speed, preventing flexible display pulling or compression during folding.

Alternating concave grooves in a foldable display cover window improve impact resistance while preventing abnormal folding and warpage.

A gear-linked rotating assembly simplifies foldable housing hinges, cuts part count and cost, and protects flexible screens at the neutral layer.

A rotating shaft support with strip bars stabilizes the foldable display bending portion to prevent bulging, creasing, and film stripping.

A dual-frame support and standing member keep a transparent display stably inclined for clear information viewing on both surfaces.

Concave cutting regions let the bridge part be removed internally, preventing protrusion hazards and shrinking foldable display bezel area.

An integral sliding groove bracket and stop structure stabilize the swing arm in foldable hinges, reducing clearance and shake.

A slider-crank hinge creates intake gap only in the open state, lowering airflow resistance while keeping the closed laptop profile sleek.

A retractable hinge link opens a larger bottom gap for airflow while keeping the closed chassis slim and reducing intake resistance.

A segmented cam and intermediary structure lowers opening force from the closed state while reducing display pressure and damage risk.

An axial transmission member shifts one screen section during folding to limit stretching, creasing, and hinge stress in foldable displays.

A speed-reduced hinge creates space for the flexible screen bend area during inward folding, helping prevent creasing and breakage.