An information indication system for a vehicle, a vessel, an aircraft as well as other equipment, the information indication system configured to indicate a value of a physical parameter to an operator of the vehicle, vessel or aircraft, the information indication system including a dial corresponding to a range of values of the physical parameter and a needle operable to move about the dial, wherein a current location of the needle on the dial indicates the value of a physical parameter within the range of values of the physical parameter, wherein the information indication system is configured to illuminate a portion of the dial in the immediate vicinity of the current location of the needle on the dial. In various embodiments, the information indication system may be a speedometer or a tachometer.

An information indication system for a vehicle, a vessel, an aircraft as well as other equipment, the information indication system configured to indicate a value of a physical parameter to an operator of the vehicle, vessel or aircraft, the information indication system including a dial corresponding to a range of values of the physical parameter and a needle operable to move about the dial, wherein a current location of the needle on the dial indicates the value of a physical parameter within the range of values of the physical parameter, wherein the information indication system is configured to illuminate a portion of the dial in the immediate vicinity of the current location of the needle on the dial. In various embodiments, the information indication system may be a speedometer or a tachometer.

Embodiments of the invention relate to marine retrofitted illuminated dash panel cover having a light controller and one or more light sources that is installed and retrofitted onto an existing boat dash panel, where the light source and light cover panel are aftermarket retrofitted components to the existing boat dash panel.

An illumination module configured for mounting at a vehicle includes at least one illumination source and an optic. The optic is a three dimensional single formed optic that is formed such that, when the illumination source is operated and when the illumination module is disposed at a side of a vehicle, the optic provides projection of an icon, a logo and/or indicia at a ground region at or near the side of the vehicle. The optic includes one of (a) a lens optic configured such that light emitted by the illumination source, when activated, passes through the lens optic to provide projection of the icon, the logo and/or indicia, and (b) a reflector optic configured such that light emitted by the illumination source, when activated, reflects off the reflector optic to provide the selected projection of the icon, the logo and/or indicia.

An illumination module configured for mounting at a vehicle includes at least one illumination source and an optic. The optic is a three dimensional single formed optic that is formed such that, when the illumination source is operated and when the illumination module is disposed at a side of a vehicle, the optic provides projection of an icon, a logo and/or indicia at a ground region at or near the side of the vehicle. The optic includes one of (a) a lens optic configured such that light emitted by the illumination source, when activated, passes through the lens optic to provide projection of the icon, the logo and/or indicia, and (b) a reflector optic configured such that light emitted by the illumination source, when activated, reflects off the reflector optic to provide the selected projection of the icon, the logo and/or indicia.

One or more light sources, one or more detectors, a processor, and a controller are configured to provide spot illumination that follows a moving object, a moving occupant, or a portion of a moving occupant in the vehicle.

A vehicular exterior rearview mirror assembly includes a mirror reflective element and an illumination module that includes an illumination source and a freeformed lens optic. When the illumination source is operated to emit light, emitted light passes through the freeformed lens optic. The freeformed lens optic is configured such that, with the vehicular exterior rearview mirror assembly mounted at a side of a vehicle, light emitted by the illumination source that passes through the freeformed lens optic provides ground lighting that illuminates a ground region located at the side of the equipped vehicle. The ground lighting includes (a) ground illumination of the illuminated ground region and (b) within the ground illumination of the illuminated ground region, a logo formed by the freeformed lens optic. The logo formed by the freeformed lens optic has a light intensity greater than any light intensity of the ground illumination of the illuminated ground region.

A vehicular exterior rearview mirror assembly includes a mirror reflective element and an illumination module that includes an illumination source and a freeformed lens optic. When the illumination source is operated to emit light, emitted light passes through the freeformed lens optic. The freeformed lens optic is configured such that, with the vehicular exterior rearview mirror assembly mounted at a side of a vehicle, light emitted by the illumination source that passes through the freeformed lens optic provides ground lighting that illuminates a ground region located at the side of the equipped vehicle. The ground lighting includes (a) ground illumination of the illuminated ground region and (b) within the ground illumination of the illuminated ground region, a logo formed by the freeformed lens optic. The logo formed by the freeformed lens optic has a light intensity greater than any light intensity of the ground illumination of the illuminated ground region.

An illumination device for a motor vehicle includes at least one light source and an elongated waveguide which is delimited along the length thereof by a lateral surface. The waveguide is configured to guide light from the at least one light source along a light propagation direction in a totally reflective manner, the light propagation direction corresponding to the length of the waveguide. The light of the at least one light source can be coupled into the waveguide via a coupling surface at an end face of the waveguide, and a decoupling structure is provided in the lateral surface of the waveguide for decoupling light, which exits the waveguide via an exit region of the lateral surface along the light propagation direction, thereby overriding the total reflection condition.

An illumination device for a motor vehicle includes at least one light source and an elongated waveguide which is delimited along the length thereof by a lateral surface. The waveguide is configured to guide light from the at least one light source along a light propagation direction in a totally reflective manner, the light propagation direction corresponding to the length of the waveguide. The light of the at least one light source can be coupled into the waveguide via a coupling surface at an end face of the waveguide, and a decoupling structure is provided in the lateral surface of the waveguide for decoupling light, which exits the waveguide via an exit region of the lateral surface along the light propagation direction, thereby overriding the total reflection condition.