Abstract:
Strahlungemittierendes Halbleiterbauelement mit einem Halbleiterkörper, umfassend eine erste Hauptfläche (5), eine zweite Hauptfläche (9) und eine Halbleiterschichtenfolge (4) mit einer elektromagnetische Strahlung erzeugenden aktiven Zone (7), wobei die Halbleiterschichtenfolge (4) zwischen der ersten und der zweiten Hauptfläche (5,9) angeordnet ist, eine erste Stromaufweitungsschicht (3) auf der ersten Hauptfläche (5) angeordnet und mit der Halbleiterschichtenfolge (4) elektrisch leitend verbunden ist sowie eine zweite Stromaufweitungsschicht (10) auf der zweiten Hauptfläche (9) angeordnet und mit der Halbleiterschichtenfolge (4) elektrisch leitend verbunden ist.
Abstract:
An optoelectronic device for emitting mixed light comprises: - a first semiconductor light source (1) having a first light-emitting diode (11), which emits light in a first wavelength range with a first intensity during operation, wherein the first wavelength range and/or the first intensity have/has a first temperature dependence, - a second semiconductor light source (2) having a second light-emitting diode (21, 22), which emits light in a second wavelength range with a second intensity during operation, wherein the first and the second wavelength ranges differ from one another and wherein the second wavelength range and/or the second intensity have/has a second temperature dependence, which differs from the first temperature dependence, - a third semiconductor light source (3) having a third light-emitting diode (31), which emits light in a third wavelength range with a third intensity during operation, - a resistance element (4) having a temperature-dependent electrical resistance, and - a semiconductor light source control element (9) for controlling the intensity of the third semiconductor light source (3), - wherein the following are connected in a parallel circuit: the first series circuit comprising the resistance element (4) and the first semiconductor light source (1) in a first branch (101) of the parallel circuit, the second semiconductor light source (2) in a second branch (102) of the parallel circuit and a second series circuit comprising the third semiconductor light source (3) and the semiconductor light source control element (9) in a third branch (103) of the parallel circuit.
Abstract:
The invention relates to an optoelectronic module, comprising a first semiconductor body (2) having a radiation outlet side (2a), on which an electrical connection area (21, 22) is arranged. The first semiconductor body (2) is arranged with a side, which lies opposite the radiation outlet side (2a), on a carrier (1). An insulation material (3) is arranged laterally next to the first semiconductor body (2) on the carrier (1). Said insulation material forms a fillet and adjoins the semiconductor body (2) in a form-fit manner. An insulation layer (4) is arranged at least in some areas on the first semiconductor body (2) and the insulation material (3). A planar conducting structure is arranged on the insulation layer in order to contact the first semiconductor body (2) in a planar manner. The planar conducting structure is connected to the electrical connection area (21, 22) in an electrically conductive manner. The invention further relates to a method for producing such an optoelectronic module.
Abstract:
The invention relates to an optoelectronic component (10) comprising at least one semiconductor body (2) having a radiation emission point (20). The point of the semiconductor body (2) opposite the radiation emission point (20) is disposed on a substrate (1), wherein at least one electrical connection region (22) is disposed on the radiation emission point (20). A metallization mound (3) is disposed on the electrical connection region (22). The semiconductor body (2) further at least partially has an insulating layer (4), wherein the metallization mound (3) protrudes past the insulating layer (4). At least one planar conductor structure (5) is disposed on the insulating layer (4) for planar contact with the semiconductor body (2), said structure being electrically conductively connected to the electrical connection region (22) by means of the metallization mound (3). The invention further relates to a method for producing such an optoelectronic component (10).
Abstract:
A radiation-emitting semiconductor component is provided, comprising: a light-emitting diode chip (1) having at least two emission regions (2a, 2b) that can be operated independently of each other, at least two differently designed conversion elements (31, 32), wherein during operation of the light-emitting diode chips (1) each of the emission regions (2a, 2b) is provided for generating electromagnetic primary radiation, each emission region (2a, 2b) has an emission surface (21, 22) by which at least part of the primary radiation is decoupled from the light-emitting diode chip (1), the conversion elements (31, 32) are provided for absorbing at least part of the primary radiation and for re-emitting secondary radiation, the differently designed conversion elements (31, 32) are disposed downstream of different emission surfaces, and an electric resistance element (4), which is connected in series or parallel to at least one of the emission regions (2a, 2b).
Abstract:
A chip (100) according to the invention comprises at least one semi-conductor body (4), which has a radiation emitting region, and at least one first contact region (5) that provided for the electric contacting of the semi-conductor body (4) and is disposed at a lateral distance from the radiation emitting region. It further comprises an electrically conductive first contact layer (1) permeable to the emitted radiation, the layer connecting a surface of the semi-conductor body (4), which is located on the radiation emitting side of the chip (100), to the first contact region (1), wherein the surface is free of the radiation absorbing contact structures.
Abstract:
The light output from a light emitting diode (100), comprising a light generating layer (20) and a relatively thick, transparent current dispersing layer (30), is improved by a vertical structuring of the surfaces of the current dispersing layer (30) and, by means of a second electrical contact layer (50) with a distributed lateral structure, an essentially homogeneous coupling of electrical current in the current dispersing layer (30) can be obtained.