There is provided a sign assembly comprising: an illumination panel; a decorative panel mounted to the illumination panel and comprising informational graphics; and one or more light sources positioned such that the illumination panel is illuminated by the one or more light sources to provide a light band about the decorative panel.

A sign apparatus includes a front panel and a rear panel secured to the front panel. The rear panel includes a back portion, a side portion, and a rim. The side portion has an illumination panel step disposed between the back portion and the rim and the illumination panel step is configured to support a hue insert to modify one or more visible characteristics of light emitted by a light source. A cavity is defined between the rear panel and the front panel, and the hue insert is disposed within the cavity.

The present invention relates to a lighting fixture having a plurality of light sources positioned at the front of a support plate. The light sources each having at least a first and a second electrical terminal. The support plate includes an upper conductive layer and a lower conductive layer. The upper and lower layers are electrically insulated from one another by an intermediate insulating layer, and in that, for each light source, the first and the second electrical terminals are electrically connected respectively to the upper and lower layer, or conversely.

A sign assembly including a raceway, a plate removably coupled to the raceway, and a sign coupled to the plate such that the sign and the plate are removable together from the raceway. An electrical connection extends through the plate to the sign.

A marker system for a vehicle comprises a marker structure bearing an augmented reality (AR) code visible on a surface thereof, and an illumination source configured and positioned to provide sufficient contrast between the AR code and adjacent portion of the marker structure at the surface to enable a camera aimed at the surface to detect the AR for recognition thereof. Related systems and methods are also disclosed.

An illumination display platform is provided. The platform includes an illumination source, like an LED strip, that provides lighting effects in connection with an art element and a panel system when the art element and panel system are in electrical and magnetic communication with one another. The illumination display platform permits tool-free assembly and disassembly.

There is provided a badge adapted for a vehicle that includes a first portion formed from a first injection molded process of light transmissive material and a second portion formed from a second injection molded process of plateable material. The plateable portion provides a chrome exterior of trim. The first portion provides a light-through decoration where the light transmissive material is back lit with at least one lighting element.

An LED control system is provided for connection to an LED lighting system via a power line to control the LED lighting system using commands formed by manipulation of frequency and amplitude of a signal transmitted over the power line. The signal may be for example a wave or a sequence of pulses. The signal may be provided in superposition with line power or the line power may be formed as the signal.

Systems and methods for presenting images on mirrored displays are provided. A cover layer having a surface area is positioned in front of an electronic display having a viewing area. A reflective material is located at the cover layer and is less than fully reflective where the cover layer is located above the viewing area. The mirrored display is configured to operate in a low power mode until a sensor detects a person proximate to the mirrored display and then operate in a normal power mode.

This planar light source device has a pair of substrates, a pair of irradiation plates disposed between the pair of substrates, and a plurality of light emission devices disposed on one or both of the pair of substrates. In a cross-section of the light emission devices in a direction perpendicular to the irradiation plates through an optical axis, the luminosity of light emitted in a 7.0 direction when 0 is the optical axis direction and the luminosity of light emitted in a (tan1(t/L)) (where t represents the gap between the irradiation plates, and L represents the gap, in a direction along the pair of irradiation plates, from the surface of a light emission device disposed on one of the substrates to an end part of the other-substrate-side irradiation plate) direction or a (tan1(t/2L)) direction satisfy a prescribed relationship.