Casings With Display/Control Units TRIZ Cases

Sliding hinge support fills housing gaps to prevent panel deformation and ensure continuous flat surface.

A vehicle display housing rotates and slides along a cowl cross bar to resolve the contradiction between deployment speed and tilting capability.

A cover assembly with a bracket and water-diverting channel protects vehicle electronics.

A movable magnetic shield overlaps magnets in an unfolded state to block field interference with the digitizer.

Integrating an alignment key between crack prevention patterns reduces the non-display area while maintaining structural integrity during bending.

Replacing mechanical rotary shafts with temperature-responsive actuators resolves the trade-off between ease of operation and device complexity.

Different elongation rates in the connection member prevent contact failures caused by flexible film pull, ensuring reliable rolling without quality reduction.

Flexible members absorb deformation to protect display panels from stress damage during folding.

A manufacturing jig uses a stopper to constrain curved cover window ends, preventing bubbles between the display panel and cover window.

A battery head portion extends through a front housing through hole while a tail part rests in a rear housing space.

Bendable side walls and adjustable holes in a capping member protect flexible displays while relieving stress during repeated folding cycles.

Bending the back cover forms a hemming space that houses heat radiation pins, improving thermal convection while maintaining mechanical stiffness.

Offset folded portions in flexible boards manage rotation length, preventing wave formation and damage while maintaining thin chassis profiles.

Segmented support structure prevents flexible display warpage by distributing localized reinforcement across the substrate.

Applying atomic layer deposition or amorphous carbon films strengthens thin glass, resolving the trade-off between device portability and structural durability.

Back panel box with labyrinth seal prevents water and dust ingress into electrical components.

Edge strips keep the OLED flat while a fixing mechanism adjusts pulling length, enabling landscape mode.

Sealed plenum between displays circulates air to cool components while blocking dust ingress.

Folding side frames behind the rear surface resolves the contradiction between wide bezels and thin high-definition displays.

A terminal device frame notch covered by a screen assembly transmits receiver sound signals, removing visible holes while maintaining compact volume.

A flexible display device integrates a cover structure with a coplanar window bottom surface to protect internal components.

Segmented connecting members in the support element switch between fixed and pivotal states, resolving limited adjustability for varying user heights.

A rotary supporting mechanism uses a latch and spring system to adjust screen orientation.

Transparent cover frame directs external pressure to side surfaces, protecting the display from mechanical stress.

A molded liner encapsulates substrate protrusions to create a lightweight, watertight seal for electronic component housings.

Zigzag signal wire routing distributes mechanical stress to prevent breakage during bending.

An elastic support net stabilizes a flexible display screen, preventing uneven bending that degrades visual quality.

A flexible electronic component bends and conforms to curved surfaces for hands-free viewing.

Segmented support plates and variable spacer patterns resolve the durability-versus-flexibility trade-off in foldable displays by managing strain distribution.

Segmented bars with protrusions and coupling holes maintain consistent curvature while reducing stress on the display panel.

Symmetric rotors with pins in grooves allow a rotary shaft to vary its outer size for flexible electronics without changing the inner length.

A display module uses a protruding encapsulation layer to position circuit boards adjacent to side surfaces.

A slidable display device uses a roller mechanism to adjust the visible screen area by storing and exposing flexible panel sections within the housing.

A dual-layer injection molded rear housing combines high and low glass fiber content layers to balance structural stiffness with aesthetic surface finish.

A supporting member with recess units introduces adhesive to maintain a uniform gap, preventing optical defects from uneven coating.

Control substrate with dedicated connecting parts for controller and user interface unit connections.

Elastic tabs in a hinge module generate adjustable torque through friction with adjustment members, eliminating bulky separate torque modules.

A display device uses a narrower sub-support part to create grooves that reduce deformation of the folding portion during repeated bending cycles.

A detachable electrophoretic display module integrates with a main casing to produce variable visual content on electronic device surfaces.

A variable display device uses a hinged joint plate to switch between flat and curved modes.

Segmented telescopic bars support the back of a retractible display portion, maintaining a flat surface while reducing mechanical stress on the panel.

Segmented cover films with an interlayer barrier prevent particle ingress and plate damage at the folding area of flexible displays.

Articulated support members store under the panel when rolled and lean against the backside when unrolled, resolving portability versus stability trade-offs.

Segmented bonding layers use inkjet printing to apply high and low transmittance inks, preventing light leakage while maintaining adhesion.

A sheet member envelops the circuit board and components to create a sealed waterproof structure.

Elastic plates on multi-joint members distribute folding stress, protecting bendable areas from damage and extending device lifespan.

Elastic connection parts contract to adjust the flexible display panel size, eliminating complex driving mechanisms and reducing device weight.

Cushioning layer absorbs vibrations to protect driver IC from damage during winding.

A transparent cover with varying thickness and curvature reduces the bonding area to maximize display space.

Segmenting the cover lens into independent layers allows replacing only the scratched hard coat, reducing maintenance costs while maintaining flexibility.