Vehicle headlamp for illuminating a light distribution and for detecting an obstacle in front of the headlamp, the headlamp including: (i) a housing and cover lens, (ii) an obstacle detection device including a camera, disposed inside the housing, for capturing images, and (iii) a camera calibration system for automatically calibrating the spatial orientation of the camera, the system being configured to keep the camera in a predetermined target position and including (a) an adjustment device for adjusting the spatial orientation of the camera within the housing, (b) a reference mark arranged in the housing, wherein each image has a constant predetermined reference mark position sector (PRMPS), and wherein the camera is in the target position when the reference mark is arranged within the PRMPS of the images, and (c) a control device connected to the camera and the adjustment device, the control device being configured to receive the images captured by the camera and to control the adjustment device to remove the deviation from the target position when the reference mark is outside the PRMS of the images in a non-target position.

Disclosed is an aerial lift, including: a lower portion with members for ground connection; a lifting structure; a platform supported by the lifting structure; and a lighting system. The aerial lift includes a control console on the platform, whose position is variable relative to the ground connection members. The lighting devices are arranged on the lower portion of the aerial lift and/or on the lifting structure or the platform and selectively generate light beams directed towards the ground and the immediate environment of the aerial lift, including at least partially an area beyond the edge of the members for connecting to the ground. The light beams are directed towards four sides, consisting of two opposing pairs of sides, of the aerial lift regardless of the position of the control console relative to the members for connecting to the ground. Also disclosed is a method for implementing such an aerial lift.

A luminaire bezel attachment assembly with a lens that is defined by a lens body with one or more bezel engagement keyways, and a flange around the lens body. An inner bezel is coupled to the lens and defined by one or more inner bezel keys receivable within the corresponding one of the one or more bezel engagement keyways of the lens. An outer bezel is coupled to the lens and defined by one or more outer bezel keys that are receivable within the corresponding one of the one or more bezel engagement keyways of the lens. The outer bezel keys overlap the corresponding one of the one or more inner bezel keys.

A luminaire bezel attachment assembly with a lens that is defined by a lens body with one or more bezel engagement keyways, and a flange around the lens body. An inner bezel is coupled to the lens and defined by one or more inner bezel keys receivable within the corresponding one of the one or more bezel engagement keyways of the lens. An outer bezel is coupled to the lens and defined by one or more outer bezel keys that are receivable within the corresponding one of the one or more bezel engagement keyways of the lens. The outer bezel keys overlap the corresponding one of the one or more inner bezel keys.

Disclosed are an organic light emitting display device and lighting apparatus for vehicles using the same. The organic light emitting display device includes a first layer including a first organic layer and a first emission layer on a first electrode, a second layer including a second emission layer and a second organic layer on the first layer, a second electrode on the second layer, and a third organic layer between the first layer and the second layer. A thickness of the first emission layer is equal to or greater than a thickness of each of the first organic layer and the second organic layer.

Disclosed are an organic light emitting display device and lighting apparatus for vehicles using the same. The organic light emitting display device includes a first layer including a first organic layer and a first emission layer on a first electrode, a second layer including a second emission layer and a second organic layer on the first layer, a second electrode on the second layer, and a third organic layer between the first layer and the second layer. A thickness of the first emission layer is equal to or greater than a thickness of each of the first organic layer and the second organic layer.

An illumination device has a coherent light source that emits coherent light beam, and an optical device that diffuses the coherent light beam, wherein the optical device comprises a first diffusion region that diffuses the coherent light beam to illuminate a first area, and a second diffusion region that diffuses the coherent light beam to display predetermined information in a second area.

An illumination device includes: a predetermined range illumination section capable of illuminating a predetermined range with illumination light emitted from a mobile object; and an eye direction detection section for detecting the direction of the eyes of a driver of the mobile object and/or the direction of the face of the driver. The predetermined range illumination section controls the distribution of the illumination light or the on/off of the illumination light based on the direction of the eyes of the driver and/or the direction of the face of the driver, detected by the eye direction detection section.

A camera wing system, a vehicle comprising such camera wing system, and a method to operate such a camera wing system are provided, comprising a camera to record a field of view of the camera in a scenery at least around a rear part of the vehicle, where a presented view is provided to a driver of the vehicle as a part of the field of view, wherein the camera wing system is adapted to automatically panning the presented view of the camera to another presented view different from the previous presented view in order to keep a point of interest of the rear part of the vehicle within the presented view provided to the driver regardless of a driving situation of the vehicle.

Lift cylinder is attached to a center part of a vehicle body in a vehicle width direction. The lift cylinder causes a work implement to move up and down. A supporting member is attached to the center part of the vehicle body in the vehicle width direction and extends upward from the vehicle body. An imaging device is supported by the supporting member and captures images of a region in front of the vehicle body. A penetrating part is formed in the supporting member. The lift cylinder is disposed through the penetrating part.