Abstract: This disclosure describes techniques for allowing a wireless device and a peripheral device to enter a sleep state while maintaining an active WLAN link between the wireless device and the peripheral device. In some implementations, the wireless device operates as a STA associated with a WLAN while also operating as a softAP. The wireless device selects a sleep state beacon interval based on a handover request, and obtains a next sleep state TBTT based on the sleep state beacon interval and a TSF value of the wireless device. The wireless device sends a message to the peripheral device over the Bluetooth connection, the message indicating the next sleep state TBTT and the sleep state beacon interval, and transmits one or more beacon frames to the peripheral device over the WLAN link during the sleep state based on the next sleep state TBTT and the sleep state beacon interval.

Abstract: A method for cloud-native centralized fault monitoring in a telecommunication network, the method performed by a processor and comprising receiving one or more raw fault messages associated with one or more respective network devices, wherein the one or more raw fault messages are received using one or more network protocols associated with the one or more respective network devices; identifying fault information from the one or more raw fault messages; enriching the fault information based on continuously processing the fault information and additional contextual information; and storing the enriched fault information in a plurality of databases, wherein a first subset of the enriched fault information is stored in a first database and a second subset of the enriched fault information is stored in a second database.

Abstract: A system for aggregating alarms for a network includes a non-transitory computer readable medium configured to store instructions thereon. The system further includes a processor connected to the non-transitory computer readable medium. The processor is configured to execute the instructions for receiving information for configuring alarm data. The processor is configured to execute the instructions for aggregating alarm data based on the information for configuring alarm data. The processor is configured to execute the instructions for generating a visual representation of the aggregated alarm data. The processor is configured to execute the instructions for instructing a display to display the visual representation on a graphical user interface (GUI). The processor is configured to execute the instructions for receiving filter criteria through the GUI. The processor is configured to execute the instructions for updating the display on the GUI based on the filter criteria.

Abstract: This disclosure describes techniques for transmitting Bluetooth data over a contention-based communication link (such as a P2P link). In some instances, a wireless device transmits, to a Bluetooth-enabled peripheral device over the contention-based communication link, one or more first data packets based on a set of transmission parameters. The wireless device receives, from the Bluetooth-enabled peripheral device, a buffer status report carrying feedback information indicating one or more of a quantity of data packets queued in a receive buffer of the peripheral device, a rate at which the data packets are queued in the receive buffer, or time-of-arrival (TOA) information of the data packets queued in the receive buffer. The wireless device adjusts the set of transmission parameters based on the feedback information, and transmits, to the Bluetooth-enabled peripheral device over the contention-based communication link, one or more second data packets based on the adjusted set of transmission parameters.

Abstract: This disclosure provides methods, devices, and systems for streaming media from a Bluetooth-enabled peripheral device to a WLAN device over a wireless link (such as a P2P link). In some instances, a first peripheral device of a pair of peripheral devices selects values of a time-to-play (TTP) and a sequence number of a first audio stream, and synchronizes the selected TTP and sequence number with a TTP and a sequence number of a second audio stream. The first peripheral device rate-converts first audio data using a sample rate conversion ratio based on the selected TTP and sequence number, encapsulates the rate-converted first audio data into first RTP packets, and transmits the first RTP packets to the WLAN device concurrently with a transmission of second RTP packets from the second peripheral device to the WLAN device.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a first portable audio device may receive battery information that indicates a second battery status of a second portable audio device. The first portable audio device may scan for access points (APs) based at least in part on: a strength of an audio signal from a user equipment (UE) not satisfying a signal threshold, and one or more of a first battery status of the first portable audio device or the second battery status. The first portable audio device may select an AP based at least in part on a result of the scanning. The first portable audio device may transmit first AP information for the AP to the second portable audio device. The first portable audio device may receive the audio signal from the UE via the AP. Numerous other aspects are described.

Abstract: A wireless device establishes a Bluetooth connection with a peripheral device based on one or more Bluetooth Specifications, and transmits one or more first Bluetooth-encoded data frames to the peripheral device over the Bluetooth connection. The wireless device initiates a first handover operation for communications with the peripheral device responsive to a link metric of the Bluetooth connection being less than a first link metric threshold. In some instances, the first handover operation includes selecting an access point (AP) of one or more candidate APs based on signal strengths of frames received from the one or more candidate APs, and switching the communications between the wireless device and the peripheral device from the Bluetooth connection to a wireless local area network (WLAN) channel associated with the selected AP. The wireless device transmits one or more second Bluetooth-encoded data frames to the peripheral device over the WLAN channel.

Abstract: Embodiments herein disclose a method and alarm monitoring device (200) for alarm monitoring and de-duplicating alarms in a wireless network (100). The method comprises receiving a first alarm event (404) and second alarm events from a plurality of devices (100A-100N) in the wireless network. The method further comprises de-duplicating the second alarm events by merging the second alarm events with the first alarm event (404) based on a retrieved current status of the first alarm event (404) when the second alarm events are received within a predefined time period. The method further comprises inserting the second alarm events separately in a database based on the retrieved current status of the first alarm event (404) when the second alarm events are not received within the predefined time period.

Abstract: This disclosure describes techniques for renegotiating target wake time (TWT) parameters used for transmitting Bluetooth-encoded audio frames over one or more Wi-Fi channels. In some implementations, a software-enabled access point (softAP) paired with a peripheral device based on a Bluetooth protocol and associated with the peripheral device via a WLAN link transmits one or more first Bluetooth-encoded audio frames indicating a current time-to-play (TTP) value for audio data to the peripheral device over the WLAN link during a first TWT session. The softAP detects a change in the WLAN link, and obtains new TWT parameters and a new TTP value responsive to the detected change. The softAP indicates the new TWT parameters and the new TTP value to the peripheral device in conjunction with tearing down the first TWT session, and establishes a second TWT session with the peripheral device based at least in part on the new TWT parameters.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a wireless communication device may transmit, to one or more peripheral devices, downlink audio packets associated with a left audio channel and a right audio channel during a service period associated with a target wake time (TWT) service interval (SI) periodicity, wherein the TWT SI periodicity is a first integer multiple of a base SI periodicity. The wireless communication device may receive, from the one or more peripheral devices, uplink audio packets associated with a voice back channel (VBC) during a service period associated with a VBC SI periodicity, wherein the VBC SI periodicity is a second integer multiple of the base SI periodicity. Numerous other aspects are described.

Abstract: A method for cloud-native centralized fault monitoring in a telecommunication network, the method performed by a processor and comprising receiving one or more raw fault messages associated with one or more respective network devices, wherein the one or more raw fault messages are received using one or more network protocols associated with the one or more respective network devices; identifying fault information from the one or more raw fault messages; enriching the fault information based on continuously processing the fault information and additional contextual information; and storing the enriched fault information in a plurality of databases, wherein a first subset of the enriched fault information is stored in a first database and a second subset of the enriched fault information is stored in a second database.

Abstract: A system for aggregating alarms for a network includes a non-transitory computer readable medium configured to store instructions thereon. The system further includes a processor connected to the non-transitory computer readable medium. The processor is configured to execute the instructions for receiving information for configuring alarm data. The processor is configured to execute the instructions for aggregating alarm data based on the information for configuring alarm data. The processor is configured to execute the instructions for generating a visual representation of the aggregated alarm data. The processor is configured to execute the instructions for instructing a display to display the visual representation on a graphical user interface (GUI). The processor is configured to execute the instructions for receiving filter criteria through the GUI. The processor is configured to execute the instructions for updating the display on the GUI based on the filter criteria.

Abstract: This disclosure describes techniques for renegotiating target wake time (TWT) parameters used for transmitting Bluetooth-encoded audio frames over one or more Wi-Fi channels. In some implementations, a software-enabled access point (softAP) paired with a peripheral device based on a Bluetooth protocol and associated with the peripheral device via a WLAN link transmits one or more first Bluetooth-encoded audio frames indicating a current time-to-play (TTP) value for audio data to the peripheral device over the WLAN link during a first TWT session. The softAP detects a change in the WLAN link, and obtains new TWT parameters and a new TTP value responsive to the detected change. The softAP indicates the new TWT parameters and the new TTP value to the peripheral device in conjunction with tearing down the first TWT session, and establishes a second TWT session with the peripheral device based at least in part on the new TWT parameters.

Abstract: The present disclosure relates to a computer-implemented method for electronic design verification. Embodiments may include receiving an electronic design at a verification environment. Embodiments may also include performing a simulation of a portion of the electronic design in an X-propagation mode. Embodiments may further include determining whether the simulation is entering an element during a time range and determining whether a clock/reset associated with the element has an active X-edge. If the clock/reset has an active X-edge, embodiments may include preventing a recordation of coverage metrics during the time range.

Abstract: A multi-faceted family of non-woven webs that can take the form of a filter media, an adaptable forming process and a machine capable of making the range of media are disclosed. The filter medium can have a first surface and a second surface defining a thickness. The medium can comprise a region having a gradient. Such a gradient is formed by having a medium wherein the concentration of a fiber, a property or other component varies from one surface to the next surface. The gradient region of the media can comprise the entire thickness of the medium or can comprise a region that comprises a portion of the media thickness. The media are characterized by the presence of a continuous change of the fiber concentration or property within the region.

Abstract: A multi-faceted family of non-woven webs that can take the form of a filter media, an adaptable forming process and a machine capable of making the range of media are disclosed. The filter medium can have a first surface and a second surface defining a thickness. The medium can comprise a region having a gradient. Such a gradient is formed by having a medium wherein the concentration of a fiber, a property or other component varies from one surface to the next surface. The gradient region of the media can comprise the entire thickness of the medium or can comprise a region that comprises a portion of the media thickness. The media are characterized by the presence of a continuous change of the fiber concentration or property within the region.

Abstract: The present disclosure relates to a computer-implemented method for electronic design verification. Embodiments may include receiving an electronic design environment including both a design under test (“DUT”) and a testbench. Embodiments may further include simulating an electronic design associated with the electronic design environment and generating a coverage database associated with the electronic design. Embodiments may include performing coverage analysis of the DUT and testbench using an automated inheritance aware analysis and applying the coverage analysis results to the testbench after simulation.

Abstract: A multi-faceted family of non-woven webs that can take the form of a filter media, an adaptable forming process and a machine capable of making the range of media are disclosed. The filter medium can have a first surface and a second surface defining a thickness. The medium can comprise a region having a gradient. Such a gradient is formed by having a medium wherein the concentration of a fiber, a property or other component varies from one surface to the next surface. The gradient region of the media can comprise the entire thickness of the medium or can comprise a region that comprises a portion of the media thickness. The media are characterized by the presence of a continuous change of the fiber concentration or property within the region. A non-woven web can also be made comprising a planar fiber structure having a gradient. Such a web can comprise fibers having diameters that can range from 1 to 40 microns and a second fiber having a diameter that can range from 0.5 microns to about 5 microns.

Abstract: A method for automatically verifying validity of application of a refinement rule includes calculating a set of values that characterize a hierarchy of elements of the emulation. A currently calculated value for a first element at a first level of the hierarchy is compared with a previously calculated value that characterized the first element at a previous time. If the currently calculated value is the same as the previously calculated value, application of the refinement rule is determined to be valid for unnamed entities of the first element. If the currently calculated value is different from the previously calculated value, each currently calculated value that characterizes a lower level element at a lower level of the hierarchy is compared with a corresponding previously calculated value to identify a change and it is determined whether the change invalidates application of the refinement rule to an unnamed entity of the emulation.

Abstract: A computer implemented method and system for exclusion of entities from a metric driven verification analysis score. The method includes using a processor, and performing the following steps: parsing a source code simulating a device under test and modeling the source code into a model that includes entities of one or a plurality of metric driven entity types; identifying in the source code entities of the same metric driven entity type of said one or a plurality of metric driven entity types that are logically linked and saving information on the identified entities that are logically linked; receiving from a user a selection of an entity to be excluded from the metric driven verification analysis score; and excluding all instances of the selected entity and all instances of the identified entities that are logically linked to the selected entity from a calculation of the metric driven verification score.