A vehicle lamp includes a light emission system; and an optical system disposed in front of the light emission system. The optical system is configured to allow light incident thereto from the light emission system to exit through a plurality of optical modules to form a predefined light irradiation pattern, and each of the plurality of optical modules includes an incident lens and an exit lens. Further, the light emission system includes a plurality of light sources; and a plurality of reflectors configured to allow a plurality of light beams respectively emitted from the plurality of light sources to be respectively directed to a plurality of regions of the optical system.

The shopping cart security system is configured for use with a hand propelled vehicle known as a shopping cart. The shopping cart security system is a wheeled structure that allows the hand propelled vehicle to roll over a supporting surface. The shopping cart security system: a) determines the GPS coordinates of the shopping cart security system; b) compares the GPS coordinates of the shopping cart security system with a previously determined set of GPS coordinates that determine an operating perimeter for the shopping cart security system; and, c) disables the rotation of the wheeled structure that forms the shopping cart security system when the shopping cart security system is determined to be outside of the region bounded by the previously determined operating perimeter.

Provided is a light projection device and a light projection device for vehicle, and the light projection device includes: a light source having light emission portions disposed side by side in a predetermined direction; convex lenses, which focus light irradiated from the light emission portions; an optical scanner having a mirror portion that scans the light passing through the convex lenses, and a drive source swinging the mirror portion; and a projection lens disposed between the convex lenses and the mirror portion, or disposed in a position to which the light scanned from the mirror portion is projected. The convex lenses are disposed side by side in the predetermined direction at intervals so that the light transmitted through and focused by the convex lenses in a stationary state comes close.

Provided are a vehicle lighting device and a vehicle lamp that can maintain lighting even when an input voltage drops. The vehicle lighting device according to an embodiment includes a socket; a substrate provided on one end side of the socket; a first circuit provided on the substrate; and a second circuit provided on the substrate. The first circuit has a plurality of first light emitting elements; and a control element electrically connected to the plurality of first light emitting elements and controlling a value of a current flowing through the plurality of first light emitting elements. The second circuit has second light emitting elements the number of which is smaller than the number of the plurality of first light emitting elements; and a resistor connected in series to the second light emitting elements.

A tailgate illumination system includes an illumination device having (i) a tailgate bracket configured for mounting at a tailgate of a vehicle and (ii) a pivot bracket pivotally mounted at the tailgate bracket. The pivot bracket supports a light source that, when powered, emits light. With the tailgate bracket mounted at the vehicle tailgate, the pivot bracket pivots relative to the tailgate bracket responsive to gravitational force acting on the pivot bracket as the tailgate moves from a closed position to an opened position. With the tailgate bracket mounted at the vehicle tailgate, and with the tailgate in the closed position, light emitted by the light source, when powered, illuminates a ground region rearward of the vehicle. With the tailgate bracket mounted at the vehicle tailgate, and when the tailgate is in the opened position, light emitted by the light source, when powered, illuminates the ground region rearward of the vehicle.

A digital micro-mirror device (DMD) system capable of increasing a lifespan of a digital micro-mirror. The DMD system includes an array unit that includes a plurality of digital micro-mirrors, and a DMD controller that controls the digital micro-mirror according to an image signal input from the outside, and changes a duty ratio of the digital micro-mirror according to a condition of components included in a vehicle or an environment around the vehicle.

A vehicle lamp module and a vehicle using same. The vehicle lamp module comprises: a low beam circuit board (1), a low beam reflector (2), a high beam circuit board (3), a high beam condenser (4), a heat radiator (5), a lens (6), a lens support (7), and a module support (8), wherein the low beam reflector (2) serves as an optical element for forming a low beam shape, and the high beam condenser (4) serves as an optical element for forming a high beam shape. The vehicle lamp module has a good light shape uniformity, good low beam visibility, good high beam lighting performance, and excellent heat dissipation performance. Moreover, the module has a relative simple structure, a light weight, a small volume, a low cost, and a good comprehensive performance.

A lighting or signaling device comprises a first light source and a housing, the housing defining at least a first light exit region and a second light exit region independent of each other, part of light from the first light source exiting as a first light beam from the first light exit region; the lighting or signaling device further comprises a light guide member, which is assigned to the first light source and is positioned and configured to guide a part of the light from the first light source to exit through at least the second light exit region. A motor vehicle is also disclosed.

Methods and apparatus for providing circadian-friendly LED light sources are disclosed. A light source is formed to include a first LED emission (e.g., one or more LEDs emitting a first spectrum) and a second LED emission (e.g., one or more LEDs emitting a second spectrum) wherein the first and second LED emissions are combined in a first ratio and in a second ratio such that while changing from the first ratio to the second ratio the relative circadian stimulation is varied while maintaining a color rendering index above 80.

A lighting tool for a vehicle includes a light source, and a projection lens configured to project light emitted from the light source forward, a light distribution pattern including a cutoff line at an upper end is formed with the light projected forward of the projection lens, and a refractive surface configured to refract some of the light projected forward of the projection lens in a specific direction is provided on a light emission surface of the projection lens.