Antiglare Equipment TRIZ Cases

See how a suspended bed structure uses securing devices to limit oscillating movements during v

A hinged retractable arm stores a phone mount inside the rear-view mirror housing, improving access without blocking the driver's view.

A pressure-sensitive adhesive and tuned light modulation layer preserve optical properties and substrate alignment after autoclave encapsulation.

A paired GNSS antenna layout on rear support columns avoids roof interference and maintains accurate positioning as the upper body rotates.

A multilayer silver coating cuts windshield resistance enough for 14V de-icing while keeping high light transmission and no visible wires.

A conductive window coating combines phased radar sensing with electro-optic dimming to detect occupants and monitor vital signs with less hardware.

Integrated light and acceleration sensing guides sliding and rotating sunvisor adjustments to block glare without false movements.

A dual-portion edge seal blocks water and oxygen ingress in laminated vehicle windows while preserving substrate flatness for electro-optic elements.

External side lighting overlaps the driver's sightline through a bus partition screen to cut night reflections, glare, and turning blind spots.

A tacky transparent windshield shield blocks low-angle sun glare without obstructing the driver's view and can be removed and repositioned.

Dynamic windshield dimming tracks bright lights and driver gaze to block headlight glare without obscuring the full forward view.

Flush-mounted auxiliary headlights in a sun visor smooth airflow over the windshield to cut turbulence, drag, and vehicle energy use.

Wavelength-dependent absorption in partially transparent optics cuts actual and perceived glare while preserving contrast across changing light conditions.

A temperature sensor and inverse voltage function linearize smart glazing switching, improving reproducible transparency control across temperatures.

Bridge wiring and segmented transparent electrodes simplify voltage application in divided light control sheets while preserving surface appearance.

Integrated switching circuitry on the roof panel cuts connector complexity while enabling safe high-voltage segment control in vehicles.

Independently controlled electrochromic window zones respond to sunlight direction to cut glare, heat, and UV exposure within legal tint limits.

A retardation film and optically anisotropic layer suppress black-mode light leakage while preserving transmittance variability and mechanical strength.

Bridge and connection portions in transparent electrodes simplify region wiring after laser insulation while preserving sheet appearance.

Video and biometric sensing detect passenger drowsiness and automatically adjust seat, climate, lighting, sound, and window tint.

Navigation and sunlight sensing predict route glare and move the visor automatically, reducing driver distraction from manual adjustment.

A silver-layer coating stack enables 14V windshield de-icing while removing visible wires and keeping light transmittance above 70%.

Camera-based brightness mapping dims only glare zones from oncoming vehicles, preserving road visibility and reducing driver reaction delay.

Current comparison across electrochromic IGUs detects leakage while sleep modes and stored tint states cut power use and preserve operation.

A motorized PDLC sunshade extends from the headliner and switches opacity automatically to block windshield glare while preserving visibility.

Independent sub-electrodes let switchable glass vary region count, position, and transmittance for more flexible privacy and shading control.

Distance sensing automatically adjusts vehicle switchable glass transmittance before unlocking, improving privacy and user access.

A transparent touch display sends dimming commands to liquid-crystal glass, combining user interaction, display, and light transmittance control.

A spacer-separated liquid crystal cell replaces heavier multi-glass laminates to improve insulation, durability, and light control.

Rear-side lamellas and a stabilization layer fix a flexible planar component in its current shape while allowing reversible attachment when needed.

Ambient-light sensing and user adjustment history update visor transmittance mapping to reduce repeated manual correction while keeping control stable.

Sensors track sun and eye position to darken targeted window zones, reducing glare and driver distraction without a traditional visor.

A phase-changing polymer film and transparent heater enable reversible broadband smart-window opacity control with durable switching over the solar spectrum.

Removing rear-beam support preserves rearview visibility while the U-shaped sun blind still blocks sunshine, lowers cabin temperature, and simplifies installation.

A multi-axis bracket and pivot arm let one sun visor assembly fit different vehicle sizes while simplifying production and installation.

Directly forming the conductive layer on the polarizing plate cuts stack thickness, improves transmittance, and stabilizes ball spacers.

Actuable pixels and sensors adjust window transmission to cut glare, maintain safe luminance, and improve object visibility in traffic.

Directly forming conductive layers on polarizing plates cuts stack thickness and improves transmittance while maintaining ball spacer reliability.

Controlled non-liquid crystal regions preserve cell gap and substrate adhesion while preventing delamination and liquid crystal overflow during bonding.

A barrier film seals laminate edges to block plasticizer diffusion, preventing PDLC lightening and transmission changes over time.

Controlled film peeling force and hard coating protect variable-transmittance laminates from scratches, bubbles, and peeling during smart window manufacturing.

Sensors track occupants and objects to adjust window transparency by region, reducing glare and UV exposure while preserving useful daylight.

Controlled Martens hardness and elastic recovery let polarizer-conductor laminates contact directly, reducing bubbles, black spots, and thickness.

An electrochromic windshield blocks driver visibility until remote authentication is confirmed, adding tamper-resistant vehicle theft prevention.

A divided dimming film layout spreads stress on curved glass to relieve edge wrinkles, protect dimming performance, and extend service life.

Specified hardness and elastic recovery let polarizer-conductor laminates resist compression defects and enable smooth smart window transmittance.

By moving the winding device and drive source to the rear, this roof module frees front roof space and simplifies shade-sheet assembly.

Circumference-mounted light detectors track refracted light in aircraft windows to locate laser strikes and support occupant protection.

A thermosensitive adhesive with polymer fine particles lets windows and transparent roofs self-adjust cloudiness by temperature without complex laminates.

Sensors detect glare on occupants or interior objects, then trigger seat, object, or driving adjustments to reduce reflections and sunlight.

A stretchable UV-resistant cover shades boat helm displays and the steering wheel, limiting sun damage without a fixed shade structure.

Matched spacer modulus and content stabilize the liquid crystal gap, preventing cracks and uneven light transmission in smart window laminates.

A side-stored visor slides and rotates toward the windshield to shade panoramic glass without head interference or exposed rails.

Embedded auto-shading material replaces delamination-prone films, enabling molded outer lenses with arbitrary curvature and controllable transmittance.

Patterned polarizing plates trap ball spacers to keep liquid crystal cell gaps uniform, prevent shorts, and simplify smart window laminate manufacturing.

A multilayer dielectric-metal coating cuts windshield reflections that cause HUD ghosting while also improving solar heat control.

A polymer-network liquid crystal stack removes spacers, preserves alignment films, and keeps optical color and transmittance more uniform.

A response check based on light-shielding ratio change verifies that privacy switching stays fast enough for observers to perceive.

A camera, angle sensor, and sliding auxiliary visor block sunlight near the driver's eyes while limiting forward-view obstruction.

Light and angle sensing replace AI-heavy visor control, enabling precise liquid crystal dimming that blocks sunlight without obstructing the driver.

Location- and sensor-based tint control adjusts vehicle window translucency for changing light, weather, privacy, and glare conditions.

Segmented electrodes with branching lines and a protective coating reduce diffraction, improve opaque-state uniformity, and resist contaminant damage.

PDLC vehicle glass uses capacitive touch input and integrated markings to switch between clear and opaque modes for privacy and lighting control.

A rotating foldable screen with unfolding light blockers adapts viewing angle and cuts external light interference across driving modes.

A variable transmittance optical device employs an active liquid crystal element film to resolve energy consumption versus control precision trade-offs.