An electrical control system for controlling a variable transmittance window is disclosed. The system comprises a driver circuit in communication with an electro-optic element. A controller is in communication with the driver circuit. The controller is configured to identify a temperature condition of the electro-optic element and adjust an output voltage supplied to the electro-optic element in response to the temperature condition.

A window apparatus of a vehicle includes a movable panel that selectively encloses an exterior opening of the vehicle. The movable panel includes an electro-optic apparatus configured to adjust in transmittance. A wireless connection interface includes a vehicle-side coupling module and a panel-side coupling module. The vehicle-side coupling module is in connection with a support frame of the vehicle forming an opening that receives the movable panel. The vehicle-side coupling module is aligned with an interface surface of the movable panel. The wireless connection interface communicates power or electrical signals from a transmission unit of the vehicle-side coupling module to a reception module of the panel-side coupling module.

The present invention relates to a motor vehicle driving aid system, the vehicle comprising a lighting device intended to illuminate a road scene at the front of the vehicle. The vehicle includes means for detecting an oncoming vehicle, control means receiving information from the detection means, and means for reducing dazzling of the driver of the motor vehicle caused by the light emitted by the oncoming vehicle. These means are controlled by the control means, and means for the management of the lighting device designed to increase the illumination of the lighting device of the vehicle and to avoid dazzling of the driver of the oncoming vehicle, these means being controlled by the control means.

The present invention relates to a motor vehicle driving aid system, the vehicle comprising a lighting device intended to illuminate a road scene at the front of the vehicle. The vehicle includes means for detecting an oncoming vehicle, control means receiving information from the detection means, and means for reducing dazzling of the driver of the motor vehicle caused by the light emitted by the oncoming vehicle. These means are controlled by the control means, and means for the management of the lighting device designed to increase the illumination of the lighting device of the vehicle and to avoid dazzling of the driver of the oncoming vehicle, these means being controlled by the control means.

A vehicular sun visor includes a light shielding unit having a plurality of liquid crystal panels each of which enables a transmittance to be changed, and a sensor unit. The sensor unit includes a housing having a front wall part and a rear wall part, a pinhole formed on the front wall part, and a plurality of light receiving elements that are provided on the rear wall part and adapted to receive light passing through the pinhole. The plurality of liquid crystal panels are adapted to change a light transmittance based on light-receiving states of the plurality of light receiving elements each of which is associated with each of the liquid crystal panels.

A vehicular sun visor includes a light shielding unit having a plurality of liquid crystal panels each of which enables a transmittance to be changed, and a sensor unit. The sensor unit includes a housing having a front wall part and a rear wall part, a pinhole formed on the front wall part, and a plurality of light receiving elements that are provided on the rear wall part and adapted to receive light passing through the pinhole. The plurality of liquid crystal panels are adapted to change a light transmittance based on light-receiving states of the plurality of light receiving elements each of which is associated with each of the liquid crystal panels.

The present disclosure relates to a laminated glazing comprising a first glass substrate and a second glass substrate laminated together having first and second polymer intermediate films therebetween, and a layered film laminated between the polymer intermediate films, wherein the layered film comprises at least three carrier layers positioned parallel to one another with a second carrier layer positioned between first and third carrier layers, wherein a first surface of the first carrier layer is coated with a first transparent conductive coating and a first surface of the second carrier layer is coated with a second transparent conductive coating, wherein the first surface of the first carrier layer faces the first surface of the second carrier layer, and wherein a second surface of the second carrier layer is coated with a third transparent conductive coating and a first surface of the third carrier layer is coated with a fourth transparent conductive coating, wherein the second surface of the second carrier layer faces the first surface of the third carrier layer; a first switchable layer positioned between the first and second carrier layers; and a second switchable layer positioned between the second and third carrier layers.

The present disclosure relates to a laminated glazing comprising a first glass substrate and a second glass substrate laminated together having first and second polymer intermediate films therebetween, and a layered film laminated between the polymer intermediate films, wherein the layered film comprises at least three carrier layers positioned parallel to one another with a second carrier layer positioned between first and third carrier layers, wherein a first surface of the first carrier layer is coated with a first transparent conductive coating and a first surface of the second carrier layer is coated with a second transparent conductive coating, wherein the first surface of the first carrier layer faces the first surface of the second carrier layer, and wherein a second surface of the second carrier layer is coated with a third transparent conductive coating and a first surface of the third carrier layer is coated with a fourth transparent conductive coating, wherein the second surface of the second carrier layer faces the first surface of the third carrier layer; a first switchable layer positioned between the first and second carrier layers; and a second switchable layer positioned between the second and third carrier layers.

This device is armored with nanotechnology that allows it to project hologram imagery, touchscreen, and more. This device also comes with 1,000 feet or more of wireless charging distance. A diffuser component that controls the amount of light that passes through a glass, fabric, or material that emits light inside of an object or thing via a door, window, or other points of entry. The device uses digital, analog, laser, and mechanical technologies to control the amount of light that enters inside an object or thing. The features and technological applications will protect the user against skin cancer caused by ultraviolet light, work against the Sun's glare which temporally blinds operators due to extreme sunlight, provide safety and privacy as drivers can change all vehicle's tinted windows from 1% tint to 100% clear glass with a single touch.

This device is armored with nanotechnology that allows it to project hologram imagery, touchscreen, and more. This device also comes with 1,000 feet or more of wireless charging distance. A diffuser component that controls the amount of light that passes through a glass, fabric, or material that emits light inside of an object or thing via a door, window, or other points of entry. The device uses digital, analog, laser, and mechanical technologies to control the amount of light that enters inside an object or thing. The features and technological applications will protect the user against skin cancer caused by ultraviolet light, work against the Sun's glare which temporally blinds operators due to extreme sunlight, provide safety and privacy as drivers can change all vehicle's tinted windows from 1% tint to 100% clear glass with a single touch.