Abstract: The disclosed optoelectronic semiconductor chip includes a carrier, a semiconductor layer sequence on the carrier having at least one active zone for generating radiation, a layer of high optical refractive index on an output coupling facet of the semiconductor layer sequence for the output coupling of radiation, and a coating of low optical refractive index directly on an outer side of the layer of high optical refractive index for the total internal reflection of the radiation, wherein the semiconductor layer sequence is configured to guide the radiation in the active zone perpendicularly to a growth direction of the semiconductor layer sequence, and the layer of high optical refractive index is configured to deflect the radiation at the outer side parallel to the growth direction.

Abstract: Disclosed is an optoelectronic semiconductor component including at least one optoelectronic semiconductor chip in an interior of a housing; the housing has a base part and a top part, the base part is a ceramic support, the top part is made of one or more glass materials, a connection layer that is made of a solder glass is arranged between the base part and the top part, and the ceramic support includes a connection portion with a nickel-containing surface which is in direct contact with the solder glass.

Abstract: A projector includes a first optoelectronic semiconductor chip for generating a first radiation having a first color. The projector also includes a second optoelectronic semiconductor chip for generating a second radiation-having a second color. The projector further includes a wavelength conversion element which is configured to generate a third radiation having a third color from a first portion of the first radiation. The projector additionally includes beam splitter. The projector also includes a scattering plate. The wavelength conversion element is configured to fully convert the first portion of the first radiation. The beam splitter is configured to branch off a second portion of the first radiation upstream of the wavelength conversion element. The scattering plate is arranged in a beam path of the second portion of the first radiation at a point at which the first portion has already been branched off.

Abstract: Surface-emitting semiconductor laser chip (1) comprising a carrier (20), a layer stack (10) arranged on the carrier (20) and having a layer plane (L) extending perpendicularly to the stacking direction (R), a front side contact (310) and a rear side contact (320), in which in operation a predetermined distribution of a current density (I) is achieved by means of current constriction in the layer stack (10), wherein in the carrier (20) an electrical through-connection (200) is provided, which extends from a bottom surface (20a) of the carrier (20) facing away from the layer stack (10) to a surface of the carrier (20) facing the layer stack (10), and the distribution of the current density (I) is significantly influenced by the shape and size of the cross-section of the through-connection (200) parallel to the layer plane (L) on the surface facing the layer stack.

Abstract: The invention relates to a laser diode arrangement for a laser projection device, comprising a carrier; a laser diode array arranged on the carrier, comprising a first light group having a plurality of first laser diodes and a second light group having a plurality of second laser diodes, said first light emitting group emitting polarized electromagnetic radiation having a first polarization direction and said second light emitting group emitting polarized electromagnetic radiation having a second polarization direction, said first polarization direction and said second polarization direction being perpendicular to each other, the invention being characterized in that said first light emitting group comprises at least one first laser housing accommodating at least one first laser diode and said second light emitting group comprises at least one second laser housing accommodating at least one second laser diode; and the number of first laser diodes of the laser diode array is at least twice the number of second

Abstract: In an embodiment an arrangement includes a plurality of pixels, wherein each pixel includes at least two subpixels of each color, wherein each color is defined by a predefined target color location, wherein each subpixel comprises an optoelectronic component defined by a color location, wherein the color locations of the optoelectronic components of each color is chosen such that during operation of the optoelectronic components the predefined target color location is met for each color, wherein the optoelectronic components for each color are of identical design, and a controller configured to commonly control the optoelectronic components of a color.

Abstract: A component assembly includes an intermediate carrier, a plurality of components and a plurality of anchoring elements. The components have at least two electrical devices and an insulating layer. At least one of the electrical devices is an optoelectronic semiconductor chip. The insulating layer is between the electrical devices of a same component. The at least two electrical devices of the same component are arranged next to one another and enclosed laterally by the insulating layer. The at least two electrical devices and the insulating layer of the same component are integral parts of a self-supporting and mechanically stable unit. The self-supporting and mechanically stable unit and the anchoring elements fix the positions of the components on the intermediate carrier. The components that are self-supporting and mechanically stable units are detachable from the intermediate carrier, and the anchoring elements release the components under mechanical load when the latter are removed.

Abstract: In an embodiment an arrangement includes a plurality of pixels, wherein each pixel includes at least two subpixels of each color, wherein each color is defined by a predefined target color location, wherein each subpixel comprises an optoelectronic component defined by a color location, wherein the color locations of the optoelectronic components of each color is chosen such that during operation of the optoelectronic components the predefined target color location is met for each color, wherein the optoelectronic components for each color are of identical design, and a controller configured to commonly control the optoelectronic components of a color.

Abstract: A component assembly includes an intermediate carrier, a plurality of components and a plurality of anchoring elements. The components have at least two electrical devices and an insulating layer. At least one of the electrical devices is an optoelectronic semiconductor chip. The insulating layer is between the electrical devices of a same component. The at least two electrical devices of the same component are arranged next to one another and enclosed laterally by the insulating layer. The at least two electrical devices and the insulating layer of the same component are integral parts of a self-supporting and mechanically stable unit. The self-supporting and mechanically stable unit and the anchoring elements fix the positions of the components on the intermediate carrier. The components that are self-supporting and mechanically stable units are detachable from the intermediate carrier, and the anchoring elements release the components under mechanical load when the latter are removed.

Abstract: Surface-emitting semiconductor laser chip (1) comprising a carrier (20), a layer stack (10) arranged on the carrier (20) and having a layer plane (L) extending perpendicularly to the stacking direction (R), a front side contact (310) and a rear side contact (320), in which in operation a predetermined distribution of a current density (I) is achieved by means of current constriction in the layer stack (10), wherein in the carrier (20) an electrical through-connection (200) is provided, which extends from a bottom surface (20a) of the carrier (20) facing away from the layer stack (10) to a surface of the carrier (20) facing the layer stack (10), and the distribution of the current density (I) is significantly influenced by the shape and size of the cross-section of the through-connection (200) parallel to the layer plane (L) on the surface facing the layer stack.

Abstract: An optical heart rate sensor is disclosed. In an embodiment the optical heart rate sensor includes at least one light source and at least one photodetector, wherein the light source comprises a blue light-emitting diode with a conversion phosphor, and wherein the conversion phosphor converts the blue light into a green-yellow light.

Abstract: A light-emitting device and a method for manufacturing a light-emitting device are disclosed. In an embodiment, a light-emitting device includes at least one light-emitting semiconductor body with an active layer configured to generate light and a housing comprising a carrier and a cover plate which is transparent to the light. The carrier and the cover plate are connected to each other by a surrounding metal frame and, together with the metal frame, form a hermetically sealed interior space, wherein the at least one light-emitting semiconductor body is arranged inside the interior space, and wherein the cover plate is a growth substrate on which the at least one light-emitting semiconductor body is grown.