Abstract: The invention relates to a method for producing at least one optoelectronic component (100) comprising the steps A) providing an auxiliary carrier (1), B) epitaxially applying a sacrificial layer (2) on the auxiliary carrier (1), wherein the sacrificial layer (2) comprises germanium, C) epitaxially applying a semiconductor layer sequence (3) on the sacrificial layer (2), D) removing the sacrificial layer (2) by means of dry etching (9), such that the auxiliary carrier (1) is removed from the semiconductor layer sequence (3).

Abstract: A multilayer encapsulation, a method for encapsulating and an optoelectronic component are disclosed. In an embodiment an optoelectronic component includes a first electrode layer, an organic light-emitting layer stack abutting the first electrode layer, a second electrode layer abutting the light-emitting layer stack and a multilayer encapsulation abutting the second electrode layer, wherein the multilayer encapsulation comprises a barrier layer and a planarization layer, wherein the planarization layer abuts the second electrode layer, and wherein the planarization layer is arranged between the second electrode layer and the barrier layer.

Abstract: An optoelectronic semiconductor chip includes a rear side with a center and with two contact points for electrical contacting of the semiconductor chip, the contact points being spaced apart from one another, and two solder pads arranged on the contact points, wherein the center is located in a region between the contact points, the solder pads protrude from the rear side and are exposed, and on average, the solder pads are thicker further away from the center than in the vicinity of the center or vice versa.

Abstract: An optoelectronic component includes an optoelectronic semiconductor chip including a connection surface; a first potting body; and a second potting body, wherein the first potting body covers all lateral side surfaces and the top surface of the semiconductor chip, the first potting body has a bottom surface flush with the connection surface, the second potting body has a bottom surface flush with the bottom surface, the second potting body completely covers all side surfaces of the first potting body facing away from the semiconductor chip, a top surface of the second potting body on the opposite of the connection surface is convexly curved, the first and second potting bodies have a contour in a lateral plane that is not similar, and the optoelectronic semiconductor chip has exclusively on its connection surface exposed electrical contact surfaces via which the semiconductor chip is electrically connectable and operable.

Abstract: A surface-mountable electrical device, an assembly including the surface-mountable electrical device, and a method for producing the surface-mountable electrical device is provided. The surface-mountable electrical device includes at least one electrical component which is a semiconductor component and which is intended for generating radiation, a control circuit for pulsed operation of the component, and a capacitor which is connected to the component electrically in series and which is configured for the pulsed energization of the component. The surface-mountable electrical device further includes a lead frame assembly having a plurality of different lead frames as a mounting platform for the component, the capacitor and the control circuit, wherein at least one of the different lead frames of the lead frame assembly is thinner than a further lead frame of the different lead frames and the lead frame assembly lies only partially in a mounting side of the device.

Abstract: An optoelectronic component may include at least one semiconductor chip for emitting electromagnetic radiation, a conversion element, and an optical element. The conversion element may at least partially convert primary radiation emitted by the semiconductor chip(s) into secondary radiation where the conversion element is arranged downstream of the semiconductor chip(s) in the emission direction and is arranged on the semiconductor chip(s). The optical element may be arranged downstream of the conversion element in the emission direction and where the conversion element is subdivided into individual portions.

Abstract: A light-emitting component may include an IC chip and an LED chip arranged on a top surface of the IC chip and electrically coupled thereto. The LED chip may be electrically controllable by means of the IC chip. The IC chip may have at least two electrical connecting surface on a bottom surface remote from the LED chip. The light-emitting component is electrically contactable and operable by means of the connecting surfaces.

Abstract: A projection optical unit that images electromagnetic radiation emitted by an optoelectronic semiconductor chip includes a first lens element, a second lens element, wherein the two lens elements each include a first light-refracting surface and a second light-refracting surface located opposite the first light-refracting surface, the second light-refracting surface of the first lens element faces the first light-refracting surface of the second lens element, and the four light-refracting surfaces each include an asphere-shaped surface section such that the respective surface section forms an aspherical lens.

Abstract: An optoelectronic component may include a semiconductor body and a radiation transmissive bonding layer. The semiconductor body may include a first region of a first conductivity type, a second region of a second conductivity type, and an active region. The active region may be disposed between the first region and the second region. The first region may include a recess and a contact region adjacent to the recess. The active region may be arranged to emit electromagnetic radiation. The semiconductor body may have a first radiation exit surface at a main surface of the second region remote from the active region, and a portion of the electromagnetic radiation may exit the semiconductor body through the first radiation exit surface. The semiconductor body may include a first electrical connection layer and a second electrical connection layer where the second electrical connection layer is arranged at least partially in the recess.

Abstract: A method produces an optoelectronic lighting device. The device efficiently increases a decoupling of electromagnetic radiation from a volume emitter LED chip. This is achieved in that, a frame made of an optical material is provided on side surfaces of the volume emitter LED chip, wherein the frame has a curved section. Light decoupled via the side surfaces of the volume emitter LED chip is thereby coupled into the frame, and can be decoupled again via same or reflected, for example, on a reflective material applied to the frame.

Abstract: A method for manufacturing a radiation-emitting semiconductor device and radiation-emitting semiconductor device are disclosed. In an embodiment a method includes providing a radiation-emitting semiconductor chip having a first main surface including a radiation exit surface of the semiconductor chip, applying a metallic seed layer to a second main surface of the semiconductor chip opposite to the first main surface, galvanically depositing a first metallic layer on the seed layer for forming a first electrical contact point and a second electrical contact point, galvanically depositing a second metallic layer on the first metallic layer for forming the first electrical contact point and the second electrical contact point, wherein a material of the first metallic layer and a material of the second metallic layer are different, and applying a casting compound between the contact points.

Abstract: A method for producing an optoelectronic component and an optoelectronic component are disclosed. In an embodiment a method includes providing a semiconductor layer sequence comprising a plurality of pixels and an active layer, wherein the active layer is configured to emit a primary radiation in a blue region of an electromagnetic spectrum with a peak wavelength of between 420 nm inclusive and 480 nm inclusive, applying a first photoresist and a first converter material on the semiconductor layer sequence, exposing the first photoresist with radiation having the peak wavelength longer than the peak wavelength of the primary radiation, curing the first photoresist by polymerization in order to form a first converter layer comprising a matrix material and the first converter material and structuring the first converter layer.

Abstract: A 3D display element is disclosed. In an embodiment a 3D display element includes a light-emitting component configured to emit light and an optical arrangement, wherein the light-emitting component includes a plurality of triplets, each triplet including a first, a second and a third light-emitting region, wherein the triplets are arranged side by side in a first lateral plane, wherein the regions are arranged side by side in the first lateral plane, wherein the optical arrangement is configured to diverge light of adjacent triplets passing through the optical arrangement, and wherein light of a triplet passing through the optical arrangement is mixed.

Abstract: A semiconductor light source is disclosed. In one embodiment, a semiconductor light source includes at least one semiconductor laser configured to generate a primary radiation and at least one conversion element configured to generate a longer-wave visible secondary radiation from the primary radiation, wherein the conversion element includes a semiconductor layer sequence having one or more quantum well layers, wherein, in operation, the primary radiation is irradiated into the semiconductor layer sequence parallel to a growth direction thereof, with a tolerance of at most 15°, wherein, in operation, the semiconductor layer sequence is homogeneously illuminated with the primary radiation, and wherein a growth substrate of the semiconductor layer sequence is located between the semiconductor layer sequence and the semiconductor laser, the growth substrate being oriented perpendicular to the growth direction.

Abstract: A radiation-emitting semiconductor chip is disclosed. In an embodiment, a radiation-emitting semiconductor chip includes a semiconductor body configured to generate radiation, a first contact layer having a first contact area for external electrical contacting the semiconductor chip and a first contact finger structure connected to the first contact area, a second contact layer having a second contact area for external electrical contacting the semiconductor chip and a second contact finger structure connected to the second contact area, wherein the first contact finger structure and the second contact finger structure overlap in places, a current distribution layer electrically conductively connected to the first contact layer, a connection layer electrically conductively connected to the first contact layer via the current distribution layer and an insulation layer arranged in places between the connection layer and the current distribution layer, wherein the insulation layer has at least one opening.

Abstract: A component with an optoelectronic part is disclosed. In an embodiment a component includes a carrier, at least one optoelectronic part arranged on the carrier, the part configured to emit electromagnetic radiation, a frame arranged on the carrier and enclosing a part space, wherein the part is arranged in the part space, and wherein the frame comprises a reflector and a lens arranged on the frame and at least partially covering an opening of the part space, wherein the lens is configured to direct the electromagnetic radiation of the part, wherein the lens comprises at least a partial pyramidal shape on a first side face facing toward the part, wherein the partial pyramidal shape of the lens comprises lateral faces, wherein the lateral faces meet one another via edges, and wherein the reflector is configured to direct radiation of the part onto the lens.

Abstract: An optoelectronic semiconductor component for the emission of multicolored radiation may have a multiplicity of active regions arranged next to one another. The active regions may be configured as microrods or nanorods and configured to generate primary electromagnetic radiation. A first group of the active regions may respectively be followed in an emission direction by a first luminescence conversion element, which is suitable for converting the primary radiation into first secondary radiation. A second group of the active regions is respectively followed in the emission direction by a second luminescence conversion element, which is suitable for converting the primary radiation into second secondary radiation. The primary radiation, the first secondary radiation, and the second secondary radiation having different colors.

Abstract: The invention relates to an optoelectronic component (100) having a semiconductor chip (2) for generating a primary radiation in the blue spectral range, a conversion element (4) which is arranged in the beam path of the semiconductor chip and is designed to generate a secondary radiation from the primary radiation, wherein the conversion element (4) comprises at least one first phosphor (9) and a second phosphor (10), wherein the first phosphor (9) is Sr(Sr1?xCax)Si2Al2N6:Eu2+ and/or (Sr1?yCay)[LiAl3N4]:Eu2+, where 0?x?1 and 0?y?1, wherein a total radiation (G) exiting from the component (100) is white mixed light.

Abstract: A method for producing optoelectronic semiconductor components is disclosed.

Abstract: A light-emitting component a first layer stack configured to generate light, at least one additional layer stack configured to generate light, where each of the first layer stack and the at least one additional layer stack are separately drivable from one another and where an auxiliary structure is arranged between the first layer stacks and the at least one additional layer stacks.