A status sign has a stencil, a cover, a mounting plate, and a main assembly therebetween. The main assembly comprises a battery and a printed-circuit board having circuitry for controlling light emitted from the main assembly. The stencil has openings that provide information indicative of status. The stencil is disposed to be illuminated when slid between the main assembly such that light from the main assembly passes through the openings and renders the information visible.

A wireless lighting device for vehicle accessories includes a signal transmitter and an encapsulated light board. The light board includes a unitary baseplate, a backlight module, a power module, and a top cover. The backlight module including a circuit board, light emitting elements, a transceiver, and a control module configured to turn the light emitting elements on and off according to the detected signal. The power module including a battery and a conductive strip configured to electrically connect the battery to the circuit board. The top cover configured to be irreversibly sealed to the baseplate with a customizable light permeable region covering the light elements. The transmitter configured to be installed on a door or a frame of a vehicle, and the light board configured to be installed in a vehicle accessory. The wireless lighting device having at least a ten year operational life without replacement of the batteries therein.

Provided is a laminated film comprising a base material, an anchor layer, a metal deposition layer, and a bonding layer, the metal deposition layer comprising indium, wherein an OD value is 1.2 or less, and wherein an a* value and a b* value of a transmitted light in a L*a*b* color space satisfy the following inequality (1):

OD value×(a*.sup.2+b*.sup.2).sup.1/2≤6.7  (1)

Provided is a laminated film comprising a base material, an anchor layer, a metal deposition layer, and a bonding layer, the metal deposition layer comprising indium, wherein an OD value is 1.2 or less, and wherein an a* value and a b* value of a transmitted light in a L*a*b* color space satisfy the following inequality (1):

OD value×(a*.sup.2+b*.sup.2).sup.1/2≤6.7  (1)

Disclosed is an advertising casing (1) comprising a bottom wall (2), side walls (3) and a front face (4) having an opening (5), the advertising casing (1) comprising: a light source (7) positioned inside the casing (1); a diffusion plate (10) for diffusing the light, comprising a decorative layer and closing the opening (5) of the front face (4) of the casing (1).

According to the invention, the light source (7) is electrically connected to a control module (8), the control module (8) is electrically connected to a solar panel (6) positioned on one of the faces of the casing (1) and to a battery (9).

Disclosed is an advertising casing (1) comprising a bottom wall (2), side walls (3) and a front face (4) having an opening (5), the advertising casing (1) comprising: a light source (7) positioned inside the casing (1); a diffusion plate (10) for diffusing the light, comprising a decorative layer and closing the opening (5) of the front face (4) of the casing (1).

According to the invention, the light source (7) is electrically connected to a control module (8), the control module (8) is electrically connected to a solar panel (6) positioned on one of the faces of the casing (1) and to a battery (9).

A system for simultaneously producing immersive visual effects on an inside of an enclosure and passive visual effects to be viewed from the outside of the enclosure. The enclosure includes a plurality of sidewalls each having a reflective inner surface facing one other. The system includes a digital video display positioned to direct digital video imagery through the semi-reflective sidewall and into the enclosure. Light of the digital video imagery reflects off the reflective inner surfaces of plurality of sidewalls, which allow a percentage of the light to leave the enclosure, making the visual effects observable from the outside. The light will continue this cycle of reflection and transmission, creating an observable infinity effect from the outside, and an entirely enclosed visual experience from the inside.

The present application provides a backplane unit, a manufacturing method thereof, and a display device. The manufacturing method includes the following steps: forming a photoresist layer on an array substrate; performing exposure on at least a portion of the photoresist layer corresponding to a light-emitting element; forming a light-shielding layer on at least a side of the photoresist layer away from the array substrate, wherein the light-shielding layer exposes at least a side portion of the light-emitting element; and laterally stripping the photoresist layer on the light-emitting element with a stripping solution to obtain the backplane unit.

The present application provides a backplane unit, a manufacturing method thereof, and a display device. The manufacturing method includes the following steps: forming a photoresist layer on an array substrate; performing exposure on at least a portion of the photoresist layer corresponding to a light-emitting element; forming a light-shielding layer on at least a side of the photoresist layer away from the array substrate, wherein the light-shielding layer exposes at least a side portion of the light-emitting element; and laterally stripping the photoresist layer on the light-emitting element with a stripping solution to obtain the backplane unit.

An infrared illuminator including an infrared emitter and an infrared window for transmitting infrared radiation from the infrared emitter to a field of illumination. The infrared window includes an electrochromic material for varying the transmittance of the infrared radiation through the infrared window in response to an applied electric field.