Antiglare Equipment TRIZ Cases

A dimming glass control device adjusts film transmittance via voltage application based on detected vehicle movement and environmental conditions.

Segments window translucency via electrochromism to direct driver focus without costly AR-HUD complexity.

Molding the frame directly to a reflective film reduces component count and manufacturing complexity while providing integrated vanity lighting.

Removable magnetic straps attach a universal visor cover to various shapes, eliminating custom fitting requirements.

Embedded photochromic materials in vehicle windows dynamically adjust reflectivity to block solar radiation and prevent interior overheating.

Coating-free partition lines electrically isolate the switching region from the surrounding coating to resolve signal quality issues.

A screwless visor mount assembly secures to a vehicle headliner via an inner collar and bracket with flexible fingers.

A built-in cam extends the visor body automatically as the rod pivots, resolving side window glare without manual adjustment.

Electro-optic visor blocks visible ambient light while transmitting infrared monitoring illumination, resolving visibility contradictions.

A vehicle windshield dimming controller adjusts translucency based on driving modes to optimize front visual field space utilization.

Telescoping support rods and overlapping panels allow the shade to adapt to non-linear windows, solving space waste in curved vehicle interiors.

Electronic processing replaces manual sun visors by dynamically positioning a glare protector based on detected light source direction.

Segmented joints and locking members secure heavy loads up to 20 pounds, resolving torque constraints in traditional ball joint mounts.

Segmented translucent layers selectively darken elements along glare paths while maintaining high visibility for unaffected areas.

Segmented polarizing panels in a vehicle visor assembly adjust independently to block glare while maintaining road visibility.

A vehicle control device suppresses occupant makeup activities during autonomous driving state transitions.

A vehicle window shading system adjusts tint levels based on occupant position sensors to personalize light exposure.

A low-voltage transformer eliminates galvanic coupling risks from DC/AC boost converters while enabling precise transmittance control.

A compression spring in the carrier assembly automatically extends the sun visor to block glare, reducing manual effort required by users.

A dual polarized visor uses a movable coupling to rotate overlapping optical layers.

Transverse stiffeners with rounded profiles distribute deployment forces on the support plate, preventing sun visor displacement during impact.

Cone-shaped retaining arms disperse twisting forces to prevent fixture separation and reduce noise.

Nested tracks and elastic positioning members reduce wear on the glare shield while maintaining precise alignment during operation.

An electro-opaque visor sheet adjusts transparency via electrical signals to manage solar glare.

One motor drives both components through a unified transmission system, reducing vehicle weight and production costs.

Permanent magnets in the headliner attract ferromagnetic elements in the visor, eliminating base bending stresses and allowing thinner construction.

Segmented sliding panels with independent latches allow customized light control for driver and passenger sides without requiring unitary shade operation.

Metal spring coupling compensates misalignments to prevent plastic clip deformation.

A vehicle roof sun visor integrates an OLED display unit with a polymer-dispersed liquid crystal discoloration layer for dynamic light management.

Automated video analysis triggers dynamic tinting in smart glass, resolving the trade-off between occupant comfort and system complexity.

Dynamically adjusting transparency in specific glass sections reduces glare on the driver's eyes without compromising overall visibility through the windshield.

A variable transmittance window system adjusts optical properties to manage internal heat levels.

Magnetic slats in a visor extender block angled glare without bulky assembly, allowing one-handed height adjustment while driving.

A vehicle system calculates incoming radiance from reflected light intensity on an occupant's body surface using a single image sensor.

Voltage-controlled liquid crystal layer modulates window transmittance, reducing daytime glare while maintaining nighttime visibility.

A vehicle windshield system projects counteracting images to blend with environmental glare.

A polarizable interior trim window uses a removable fixing device to detach the film from its support.

A removable sleeve structure slides over a vehicle visor to integrate an extension component that increases light blocking coverage.

A vehicle control system detects driver gaze changes to display relevant driving assistance images on corresponding screens.

A light adjusting glass uses segmented electrode blocks controlled by separate driving circuits to manage regional light transmittance.

Ultrasonic riveting forms an umbrella-like pin end to prevent relative movement and strange noises during sun visor rotation.

Energy harvesting devices power variable transmittance windows, eliminating reliance on continuous external electrical supply.

Laminated light adjusting glass segments basic and functional structures to resolve slow response speeds in electro-chromic devices.

Universal mounting arms with adjustable apertures enable rotational positioning of the visor shade, resolving adaptability versus complexity trade-offs.

A ring-shaped light guide distributes illumination from a single LED around a vehicle vanity mirror.

Composite interlayer absorbs short-wavelength light to reduce solar heat gain in vehicles without compromising window transparency.

Guide holes and spring-displacing protrusions prevent interference during assembly, maintaining contact integrity and preventing conduction failure.

Segmented roller and rail mechanisms simplify convertible cover assembly, reducing part count while maintaining secure protection.

A vehicle display system uses complementary polarization filters to block environmental light reflections from the passenger compartment.