Abstract: In an embodiment a conversion element includes a grid having a plurality of openings, a plurality of conversion segments configured to convert a part of a primary radiation into a secondary radiation, wherein the conversion segments are arranged in the openings, wherein the conversion segments include a matrix material into which fluorescent particles are incorporated, wherein the fluorescent particles are sedimented in a sedimented layer and a semiconductor material, a plastic or a metal, wherein the grid terminates flush with the conversion segments.

Abstract: In an embodiment a conversion element includes a grid having a plurality of openings, a plurality of conversion segments configured to convert a part of a primary radiation into a secondary radiation, wherein the conversion segments are arranged in the openings, wherein the conversion segments include a matrix material into which fluorescent particles are incorporated, wherein the fluorescent particles are sedimented in a sedimented layer and a semiconductor material, a plastic or a metal, wherein the grid terminates flush with the conversion segments.

Abstract: A method of producing an optoelectronic semiconductor component includes providing a carrier including two metal layers, wherein the metal layers are detachable from one another, securing an optoelectronic semiconductor chip on the first metal layer of the carrier, and mechanically detaching the second metal layer from the first metal layer.

Abstract: A method of producing an optoelectronic semiconductor component includes providing a carrier including two metal layers, wherein the metal layers are detachable from one another, securing an optoelectronic semiconductor chip on the first metal layer of the carrier, and mechanically detaching the second metal layer from the first metal layer.

Abstract: A method of producing an optoelectronic component includes providing a cavity; introducing a liquid matrix material with phosphor particles distributed therein into the cavity; introducing a semiconductor chip into the matrix material; sedimenting the phosphor particles in the matrix material; and curing the matrix material, wherein a conversion layer including phosphor particles is produced, said conversion layer being arranged on the semiconductor chip.

Abstract: A method of producing a surface-mountable semiconductor component including providing an auxiliary carrier made with a plastics material; applying at least one insert and at least one optoelectronic component to a mounting surface of the auxiliary carrier; enclosing the optoelectronic component and the insert in a common molding, wherein the molding covers the optoelectronic component and the insert form-fittingly at least in places, the optoelectronic component and the insert are not in direct contact with one another, and the optoelectronic component and the insert are connected together mechanically by the molding; removing the auxiliary carrier; and producing individual surface-mountable semiconductor components by severing the molding.

Abstract: A method of producing an optoelectronic component includes providing a cavity; introducing a liquid matrix material with phosphor particles distributed therein into the cavity; introducing a semiconductor chip into the matrix material; sedimenting the phosphor particles in the matrix material; and curing the matrix material, wherein a conversion layer including phosphor particles is produced, said conversion layer being arranged on the semiconductor chip.

Abstract: A method of producing a surface-mountable semiconductor component including providing an auxiliary carrier made with a plastics material; applying at least one insert and at least one optoelectronic component to a mounting surface of the auxiliary carrier; enclosing, the optoelectronic component and the insert in a common molding, wherein the molding covers the optoelectronic component and the insert form-fittingly at least in places the optoelectronic component and the insert are not in direct contact with one another, and the optoelectronic component and the insert are connected together mechanically by the molding; removing the auxiliary earner; and producing individual surface-mountable semiconductor components by severing the molding.

Abstract: The invention relates to a method for producing an optical and a radiation-emitting component by a molding process, and to an optical and a radiation-emitting component having well-defined viscosity.

Abstract: A process is specified for producing a radiation-emitting component comprising a housing body and a carrier for a radiation-emitting semiconductor body, in which the carrier is produced in an injection molding process from a molding compound containing a metal.

Abstract: A radiation-emitting and/or radiation-receiving semiconductor component comprising a radiation-emitting and/or radiation-receiving semiconductor chip, a molded plastic part which is transparent to an electromagnetic radiation to be emitted and/or received by the semiconductor component and by which the semiconductor chip is at least partially overmolded, and external electrical leads that are electrically connected to electrical contact areas of the semiconductor chip. The molded plastic part is made of a reaction-curing silicone molding compound. A method of making such a semiconductor component is also specified.

Abstract: A surface-mounted component, comprising an optoelectronic semiconductor chip, a molded body integrally molded onto the semiconductor chip, a mounting area formed at least in places by a surface of the molded body, at least one connection location and side areas of the component which are produced by means of singulation.

Abstract: A surface-mountable light-emitting diode light source is described, in which the leadframe-bends toward the rear side of the package that are required for surface mounting lie within a transparent plastic molded body. Also described is a method of producing a mixed-light, preferably white-light source on the basis of a UV- or blue-emitting semiconductor LED. The LED is mounted on a leadframe, a transparent plastics molding composition is mixed with a conversion substance and possibly further fillers to form a molding composition. The leadframe is encapsulated, preferably by the injection-molding process, with the molding composition in such a way that the LED is surrounded on its light-exiting sides by the molding composition.

Abstract: A radiation-emitting surface-mountable component has a light-emitting diode chip mounted on a leadframe. A molding material encapsulates the leadframe and the light emitting diode chip.

Abstract: A radiation-emitting surface-mountable component has a light-emitting diode chip mounted on a leadframe. A molding material encapsulates the leadframe and the light-emitting diode chip.

Abstract: The invention relates to a method of making LED chips provided with a luminescence conversion material containing at least one phosphor. In the method, a layer composite is prepared that includes an LED layer sequence for a multiplicity of LED chips and comprises on a main surface at least one electrical contact surface for each LED chip, for electrically connecting said chip. A layer of adhesion promoter is applied to the main surface and selectively removed from at least portions of the contact surfaces. At least one phosphor is then applied to the main surface. Alternatively, a luminescence conversion material is applied to the main surface and selectively removed from at least portions of the contact surfaces. The invention also relates to an LED chip provided with a luminescence conversion material.

Abstract: The invention related to a method for producing an optical and a radiation-emitting component by a molding process, and to an optical and a radiation-emitting component having well-defined viscosity.

Abstract: A radiation-emitting semiconductor component, comprising a semiconductor body which emits a primary light, a luminescent conversion element which emits fluorescent light, in which the luminescent conversion element comprises a suspension of a luminous substance in a matrix material, wherein the luminescent conversion element is in direct contact with a part of the surface of said semiconductor body, and wherein the fluorescent light emitted from said luminescent conversion element is approximately half the total emission of the light of the radiation-emitting semiconductor component.

Abstract: A radiation-emitting and/or radiation-receiving semiconductor component comprising a radiation-emitting and/or radiation-receiving semiconductor chip, a molded plastic part which is transparent to an electromagnetic radiation to be emitted and/or received by the semiconductor component and by which the semiconductor chip is at least partially overmolded, and external electrical leads that are electrically connected to electrical contact areas of the semiconductor chip. The molded plastic part is made of a reaction-curing silicone molding compound. A method of making such a semiconductor component is also specified.

Abstract: A plurality of light-emitting diode light sources of the same kind are produced simultaneously. Each light source includes a light-emitting diode chip and a luminescence conversion element, which converts the wavelength of at least part of an electromagnetic radiation emitted by the light-emitting diode chip. In a first process, a layer composite with a light-emitting diode layer sequence applied to a carrier substrate is provided. The wafer is provided with trenches and then inserted into a cavity of a mold. A molding compound, which contains a luminescence conversion material, is driven in, so that the trenches are at least partly filled with the molding compound. The mold is then removed and the light-emitting diode light sources are separated from the layer composite. In a second process, instead of the layer composite, a plurality of light-emitting diode chips which are applied to a common carrier in a regular arrangement are provided.