Abstract: A light-emitting device, including a first type semiconductor layer, a patterned insulating layer, a light-emitting layer, and a second type semiconductor layer, is provided. The patterned insulating layer covers the first type semiconductor layer and has a plurality of insulating openings. The insulating openings are separated from each other. The light-emitting layer is located in the plurality of insulating openings and covers a portion of the first type semiconductor layer. The second type semiconductor layer is located on the light-emitting layer.

Abstract: A method, a communication apparatus using the method, and a base station apparatus are disclosed. The method includes arranging user equipment to receive a downlink control channel signal associated with a physical downlink control channel; and configuring the user equipment to monitor the physical downlink control channel for control-resource set information. The control-resource set information corresponds to time and frequency resource allocation information related to the physical downlink control channel. The control-resource set information includes at least one parameter.

Abstract: Managing audio devices of an information handling system (IHS), including: performing initialization of audio-scenario database table, including: configuring, for audio scenarios at an IHS, an associated audio device, each audio device associated with an audio ID that uniquely identifies the audio device; generating the audio-scenario database table that indicates, for each audio scenario, an associated audio device ID of the audio device for the audio scenario; performing a steady-state monitoring of the IHS, including: identifying an initialization of a particular audio scenario, and in response, identifying active audio devices with respect to the IHS; comparing the audio ID of each of the active audio devices with the audio-scenario database table; matching, based on the comparing, a particular audio ID of a particular active audio device of the active audio devices with the audio-scenario database table; enabling, based on the matching, the particular active audio device for the particular audio scenario

Abstract: Managing audio devices of an information handling system (IHS), including: performing initialization of audio-scenario database table, including: configuring, for audio scenarios at an IHS, an associated audio device, each audio device associated with an audio ID that uniquely identifies the audio device; generating the audio-scenario database table that indicates, for each audio scenario, an associated audio device ID of the audio device for the audio scenario; performing a steady-state monitoring of the IHS, including: identifying an initialization of a particular audio scenario, and in response, identifying active audio devices with respect to the IHS; comparing the audio ID of each of the active audio devices with the audio-scenario database table; matching, based on the comparing, a particular audio ID of a particular active audio device of the active audio devices with the audio-scenario database table; enabling, based on the matching, the particular active audio device for the particular audio scenario

Abstract: Systems and methods are provided that may be implemented in a real time manner by an information handling system (the “client system”) to monitor one or more characteristics of a voice over internet protocol (VOIP) discussion, to use these monitored VOIP characteristics to identify one or more condition/s in real time as they are identified to occur during the current VOIP discussion, and to determine to take one or more automatic actions based on the identified VOIP condition/s so as to inform and/or alert a current human user of the client system to the occurrence of the identified VOIP condition/s as they occur.

Abstract: Systems and methods are provided that may be implemented in a real time manner by an information handling system (the “client system”) to monitor one or more characteristics of a voice over internet protocol (VOIP) discussion, to use these monitored VOIP characteristics to identify one or more condition/s in real time as they are identified to occur during the current VOIP discussion, and to determine to take one or more automatic actions based on the identified VOIP condition/s so as to inform and/or alert a current human user of the client system to the occurrence of the identified VOIP condition/s as they occur.

Abstract: Performing an audio transparency mode of an information handling system (IHS), including performing a calibration and configuration of an audio noise source identification model, including: training the audio noise source identification model, including generating a configuration policy including configuration rules for performing computer-implemented actions for providing a particular noise source through an audio output of the IHS, providing a notification of the particular noise source to devices associated with the user, or both; performing a steady-state monitoring of the IHS, including: identifying a particular noise source of environment of the IHS; and in response: identifying configuration rules of the audio noise source identification model based on the identified particular noise source, applying the configuration rules to perform computer-implemented actions to provide the particular noise source through the audio output of the IHS, provide a notification of the particular noise source to the devi

Abstract: A reconfigurable radio processor comprises a task interface and an execution kernel. The processor can be applied to a platform comprising a main processor and on-chip bus, and uses a task-based interface between the main processor and the radio processor. The radio processor simplifies the designs for control system, instruction set and data path. The bus interface includes a task dispatcher. The execution kernel comprises a global control unit, at least one function unit, an operation network, and a data network. The radio processor meets the reconfigurable and scalable requirements. It allows system designers to realize many applications on an IC chip, as well as increases the add-on values for the product. It provides system designers with the possibility of replacing another main processor under a special consideration.

Abstract: A reconfigurable radio processor comprises a task interface and an execution kernel. The processor can be applied to a platform comprising a main processor and on-chip bus, and uses a task-based interface between the main processor and the radio processor. The radio processor simplifies the designs for control system, instruction set and data path. The bus interface includes a task dispatcher. The execution kernel comprises a global control unit, at least one function unit, an operation network, and a data network. The radio processor meets the reconfigurable and scalable requirements. It allows system designers to realize many applications on an IC chip, as well as increases the add-on values for the product. It provides system designers with the probability of replacing another main processor under a special consideration.

Abstract: A detecting method can perform the drop test according to the exact grounding condition, thereby detecting the actual grounding data. In addition, the shock accelerometer on the tested point of the test object can obtain an experimented G value which is compared with the simulated G value that is obtained by inputting the grounding angles (the grounding angles are calculated according to the grounding pictures) into the simulation program. In addition, the drop test device can reduce interruption, thereby enhancing the whole detecting accuracy.

Abstract: A detecting method can perform the drop test according to the exact grounding condition, thereby detecting the actual grounding data. In addition, the shock accelerometer on the tested point of the test object can obtain an experimented G value which is compared with the simulated G value that is obtained by inputting the grounding angles (the grounding angles are calculated according to the grounding pictures) into the simulation program. In addition, the drop test device can reduce interruption, thereby enhancing the whole detecting accuracy.