A vehicle information display apparatus includes: at least one processor configured to receive a vehicle state of a vehicle, and detect a forward object ahead of the vehicle; a flip-dot display installed in the vehicle and configured to implement a pixel by rotating a flip disk; and an illumination module installed around the flip-dot display, and configured to illuminate a surface of the flip-dot display.

A vehicle information display apparatus includes: at least one processor configured to receive a vehicle state of a vehicle, and detect a forward object ahead of the vehicle; a flip-dot display installed in the vehicle and configured to implement a pixel by rotating a flip disk; and an illumination module installed around the flip-dot display, and configured to illuminate a surface of the flip-dot display.

A dual-surfaced mirror for a mirror wedge illusion. The dual-surfaced mirror includes a reflective material layer, a thin glass layer overlaying a front surface of the reflective material, a dark mask layer overlaying a back surface of the reflective material, and a thick glass support layer coupled to the dark mask layer.

A dual-surfaced mirror for a mirror wedge illusion. The dual-surfaced mirror includes a reflective material layer, a thin glass layer overlaying a front surface of the reflective material, a dark mask layer overlaying a back surface of the reflective material, and a thick glass support layer coupled to the dark mask layer.

A novel infinite mirror liquid cooler device is configured to comprise a printed circuit board (PCB); a logo component; a light-guiding component; a light-guiding component comprising a light-guiding surface; a lower mirror, the lower mirror; a hollow cover; the upper mirror; an upper cover of a pump chamber; an impeller; a lower cover of the pump chamber; a lower base; a pad; and a copper base plate according to some embodiments.

A first movable polarizing plate and a second movable polarizing plate are located on a traveling path of light emitted from a light source and having passed through a stable polarizing plate. The first movable polarizing plate is formed with a first display pattern allowing the light to pass through. The second movable polarizing plate is formed with a second display pattern allowing the light to pass through. An actuation mechanism causes a direction of a polarization axis of only one of the first movable polarizing plate and the second movable polarizing plate to be different from a direction of a polarization axis of the stable polarizing plate.

A first movable polarizing plate and a second movable polarizing plate are located on a traveling path of light emitted from a light source and having passed through a stable polarizing plate. The first movable polarizing plate is formed with a first display pattern allowing the light to pass through. The second movable polarizing plate is formed with a second display pattern allowing the light to pass through. An actuation mechanism causes a direction of a polarization axis of only one of the first movable polarizing plate and the second movable polarizing plate to be different from a direction of a polarization axis of the stable polarizing plate.

A general purpose image and visual effects display apparatus, with associated methods, which is comprised of an array of independently angled reflective or refractive elements wherein the varying angle pattern of each element across said array is designed to reflect or refract specifically designed light and color sources as well as fortuitously located existing colors, in precisely determined patterns, to make apparent to designated viewing or receiving locations a wide range of complex visual effects.

A display device includes a first polarizing plate including a first polarization region and a first design region, a second polarizing plate including a second polarization region and a second design region, and a third polarizing plate including a third polarization region. A transmittance of light oscillating in a first direction of the polarization regions is maximized, and the design regions are transparent to light regardless of the oscillation direction of light. The first and second polarizing plates are arranged at a distance from each other along a path of the light, the first direction in the first polarization region and the first direction in the second polarization region are different from each other. The third polarizing plate is arranged such that the first direction in the third polarization region is positioned between the first direction in the first polarization region and the first direction in the second polarization region.

The lighting device for a vehicle includes a masking cover disposed inside a garnish, and a light source disposed inside the masking cover and disposed to face an inner surface of the garnish, wherein the masking cover includes a plurality of variable pattern portions provided to have different shapes and selectively disposed in a position where at least one of the plurality of variable pattern portions faces the garnish when the masking cover is rotated.