Abstract: A radiation-emitting semiconductor chip may include a semiconductor layer sequence having a first semiconductor layer of a first doping type and a second semiconductor layer of a second doping type. The chip may also include a first dielectric layer and a second dielectric layer arranged on the semiconductor layer sequence. A first recess may be arranged in the semiconductor layer sequence in a border region of the radiation-emitting semiconductor chip completely penetrating the first semiconductor layer. The first dielectric layer may cover the semiconductor layer sequence in the border region completely. The border region may be free of the second dielectric layer in an edge region. In addition, a method is disclosed for producing a radiation-emitting semiconductor chip.

Abstract: An optoelectronic semiconductor device may include a semiconductor layer sequence, a directionally reflective layer being arranged on the first main surface of the semiconductor layer sequence, a first contact structure comprising a first current spreading structure arranged on a first surface of a first semiconductor layer of the semiconductor layer sequence, a second contact structure comprising a second current spreading structure arranged on a first surface of a second semiconductor layer of the layer stack, wherein the first current spreading structure and the second current spreading structure each consist of at least one transparent conductive oxide. Moreover, a method for producing an optoelectronic semiconductor device is described.

Abstract: An optoelectronic semiconductor chip includes a semiconductor body including a first semiconductor region and a second semiconductor region, a recess extending through the first semiconductor region, the recess having a bottom surface, where the second semiconductor region is exposed, and a blocking element arranged on the bottom surface, wherein the at least one recess has a first width and a second width parallel to the main extension plane of the semiconductor body, and the first width is smaller than the second width.

Abstract: An optoelectronic semiconductor chip includes a semiconductor body including a first semiconductor region and a second semiconductor region, a recess extending through the first semiconductor region, the recess having a bottom surface, where the second semiconductor region is exposed, and a blocking element arranged on the bottom surface, wherein the at least one recess has a first width and a second width parallel to the main extension plane of the semiconductor body, and the first width is smaller than the second width.

Abstract: A remote control assembly includes a remote unit that may be carried. The remote unit may be in electrical communication with an extrinsic electronic device. The remote unit may be manipulated thereby facilitating the remote unit to wirelessly control functions of the extrinsic electronic device. A base unit is provided and the base unit may have the remote unit is removably positioned thereon. The base unit charges the remote unit when the remote unit is positioned on the base unit.

Abstract: The method of operating a network includes receiving a measurement of total traffic intensity, receiving an expected quality of service associated with a packet, and assigning the packet to one of two or more priority queues based on the measurement of total traffic intensity and the expected quality of service, the two or more priority queues having different delay metrics.

Abstract: The method of operating a network includes receiving a measurement of total traffic intensity, receiving an expected quality of service associated with a packet, and assigning the packet to one of two or more priority queues based on the measurement of total traffic intensity and the expected quality of service, the two or more priority queues having different delay metrics.

Abstract: In one embodiment, the method includes determining serving time instants for serving each of a plurality of data requests received during a time period such that at least one peak data traffic load for the time period is reduced to a value less than or equal to a target data traffic load. The method further includes determining a magnitude of a difference between a time instant in which a data request is received and the corresponding serving time instant. The method further includes setting a subscriber price for the time instant in which the data request is received based on the determined magnitude. The method further includes offering the subscriber price to at least one subscriber in order that the at least one subscriber may one of delay and advance at least one data request by at least one time instant.