Abstract:
An optoelectronic semiconductor component comprising a connection carrier with a mounting face and an electrically insulating base member. An optoelectronic semiconductor chip is arranged on the mounting face of the connection carrier. A radiation-transmissive body having four side faces is provided. The radiation-transmissive body surrounds the semiconductor chip in such a way that the radiation-transmissive body envelops outer faces of the optoelectronic semiconductor chip not facing the connection carrier in form-fitting manner. The radiation-transmissive body comprises at least one side face which extends at least in places at an angle of between 60° and 70° to the mounting face. The base member has a thickness which amounts to at most 250 μm.
Abstract:
The invention relates to an optoelectronic device (101), comprising: a semiconductor layer sequence (103) comprising an emitter layer (105) for emitting electromagnetic radiation, a converter (113) for converting electromagnetic radiation with a first wavelength into an electromagnetic radiation with a second wavelength which differs from the first wavelength, a scattering body (109) for scattering at least a part of the electromagnetic radiation emitted by the emitter layer (105) in the direction of the converter (113) in order to convert at least a part of the emitted electromagnetic radiation, wherein the scattering body (109) comprises a positive, temperature-dependent scattering cross-section and so, as the temperature increases, scattering of the electromagnetic radiation in the scattering body (109) in the direction of the converter can be increased. The invention also relates to a scattering body (109).
Abstract:
The invention relates to a light-emitting semiconductor component, comprising—a first semiconductor body (1), which comprises an active zone (11) in which during the operation of the light-emitting semiconductor component electromagnetic radiation is generated, at least some of which leaves the first semiconductor body (1) through a radiation exit surface (1a), and—a second semiconductor body (2), which is suitable for converting the electromagnetic radiation into converted electromagnetic radiation having a longer wavelength, wherein—the first semiconductor body (1) and the second semiconductor body (2) are produced separately from each other,—the second semiconductor body (2) is electrically inactive, and—the second semiconductor body (2) is in direct contact with the radiation exit surface (1a) and is attached there to the first semiconductor body (1) without connecting means.
Abstract:
A light-emitting semiconductor device is specified which comprises a light-emitting semiconductor chip having a main surface comprising a radiation-outcoupling surface via which, during operation, a first light in a first wavelength range is emitted. A wavelength conversion layer for converting at least part of the first light into second light in a second wavelength range different from the first wavelength range is applied onto a first sub-region of the main surface. An optical feedback element is applied directly to a second sub-region of the main surface adjacent to the first sub-region, wherein the optical feedback element deflects first light emitted from the second sub-region in the direction of the radiation-outcoupling surface and/or in the direction of the wavelength conversion layer.
Abstract:
In at least one embodiment, the optoelectronic semiconductor component (1) comprises a cast body (4). At least one optoelectronic semiconductor chip (3) is designed to generate radiation and is situated in a recess (43) in the cast body (4). The semiconductor chip (3) has a main radiation side (30) having an edge length (L). At least one lens plate (5), which covers the recess (43), is arranged downstream of the semiconductor chip (1) in a main radiation direction (M). The lens plate (5) has a plurality of structural elements (55) on an upper side (50) that faces away from the semiconductor chip (1). The lens plate (5) has a diameter (D) that is at least 1.5 times the edge length (L). A thickness (H) of the lens plate (5) is at least 0.1 times and at most 1.5 times the diameter (D). The lens plate (5) covers the main radiation side (30) completely.