Abstract:
A luminaire comprising: a light source in the form of at least one LED and a reflector, wherein a peripheral edge of the reflector defines a light exit opening on a side opposite the light source, wherein arranged in the light exit opening is a planar translucent cover wherein microstructures configured to direct and/or scatter light are distributed over the planar translucent cover. The planar translucent cover extends inwards in the direction of the light source, relative to an imaginary plane defined by the peripheral edge of the reflector.
Abstract:
The present disclosure relates to various embodiments of an optical component for a LIDAR Sensor System. The optical component may include an optical element having a first main surface and a second main surface opposite to the first main surface, a first lens array formed on the first main surface, and/or a second lens array formed on the second main surface. The optical element has a curved shape in a first direction of the LIDAR Sensor System.
Abstract:
In various embodiments, a vehicle lamp is provided. The vehicle lamp includes at least one semiconductor light source, at least one light emission body, and a concentrator arranged between the at least one semiconductor light source and the respective light emission body. A larger light entrance area of the concentrator is separated from the at least one semiconductor light source by a gap. The concentrator at its smaller light exit area transitions into the light emission body. The light emission body has at least one region covered with a partly transmissive layer.
Abstract:
Various embodiments relate to a lens for omnidirectional illumination which is rotationally symmetrical and includes a light incident surface, a first light refractive surface, a first light reflective surface, and a second light refractive surface designed to be rotationally symmetrical, respectively. The second light refractive surface is defined by a Bezier curve in a cross section, a first portion of light through the light incident surface is refracted by the first light refractive surface, a second portion of the light through the light incident surface is reflected by the first light reflective surface to the second light refractive surface, and then is refracted by the second light refractive surface, a third portion of the light through the light incident surface is refracted by the second light refractive surface, to produce first, second and third emergent lights, respectively. The first, second and third emergent lights jointly achieve omnidirectional illumination.
Abstract:
An illuminant with at least two LEDs mounted on mutually opposite sides of a support plate and a reflection surface formed as a concave mirror, in which concave mirror the LEDs are arranged, wherein a housing part of the illuminant made of a transparent housing material is provided, which housing part at the same time forms an in relation to the main propagation direction lateral external surface of the illuminant and supports a reflecting layer forming the reflection surface at an internal surface opposite to the external surface.
Abstract:
A luminaire comprising: a light source in the form of at least one LED and a reflector, wherein a peripheral edge of the reflector defines a light exit opening on a side opposite the light source, wherein arranged in the light exit opening is a planar translucent cover wherein microstructures configured to direct and/or scatter light are distributed over the planar translucent cover. The planar translucent cover extends inwards in the direction of the light source, relative to an imaginary plane defined by the peripheral edge of the reflector.
Abstract:
In various embodiments, a vehicle lamp is provided. The vehicle lamp includes at least one semiconductor light source, at least one light emission body, and a concentrator arranged between the at least one semiconductor light source and the respective light emission body. A larger light entrance area of the concentrator is separated from the at least one semiconductor light source by a gap. The concentrator at its smaller light exit area transitions into the light emission body. The light emission body has at least one region covered with a partly transmissive layer.
Abstract:
Various embodiments relates to a device for providing electromagnetic radiation having a predefined target radiation distribution. The device has a lens arrangement and a radiation arrangement for generating electromagnetic radiation to be deflected including a predefined source radiation distribution. The lens arrangement has a first and a second lens. The first lens has a first and a second boundary surfaces. The first boundary surface is concave and the second boundary surface is convex. The first boundary surface forms a first recess. The second lens has a third and a fourth boundary surfaces. The third boundary surface is concave and the fourth boundary surface is convex. The third boundary surface forms a second recess, in which at least part of the first lens is arranged. The radiation arrangement is arranged such that at least part of the electromagnetic radiation to be deflected enters the lens arrangement via the first boundary surface.