Abstract: In accordance with the described techniques, an earbuds case configured for housing a pair of wireless earbuds includes a controller and a communication system configured for wireless communication with a cellular network. The controller receives sensor data indicating whether the earbuds case is in an open position or a closed position, and whether the pair of wireless earbuds are inserted in the earbuds case or ears of a user. Based on the sensor data, the controller updates a configuration of the communication system to modulate a wireless cellular communication capability of the communication system.

Abstract: In accordance with the described techniques, a system includes a mobile device, a pair of wireless earbuds, and an earbuds case configured for housing the pair of wireless earbuds. The earbuds case includes a controller and a communication system configured for wireless communication with a cellular network. The controller detects a connection state of the wireless earbuds indicating whether the wireless earbuds are wirelessly connected to the mobile device and whether the wireless earbuds are wirelessly connected to the earbuds case. Based on the connection state, the controller updates a configuration of the communication system to modulate a wireless cellular communication capability of the communication system.

Abstract: An electronic device supports multiple uplink carrier aggregation (UL CA) combinations for various frequency bands. The device includes processors that predict whether a foreground application will be optimized by a high bandwidth UL CA combination, a low uplink transmit switching time UL CA combination, or a UL CA combination having both a higher bandwidth and a lower uplink transmit switching time. The processors select the appropriate UL CA combination and transmit this information to a remote device. The method involves ranking UL CA combinations based on throughput and latency scores, building a user equipment capability information (UCI) message with fewer UL CA combinations, and dynamically updating the UCI message based on hardware changes or application requirements. This approach ensures optimal performance for applications requiring high throughput, low latency, or both.

Abstract: Various aspects of the present disclosure relate to detecting at least two selection-suitable cells of similar pathloss on a frequency range, each cell associated with a RF channel, and determining a potential RF interference condition between the at least two selection-suitable cells due to overlapping spectra of the associated RF channels. Aspects of the present disclosure relate to determining, for the frequency range, updated maximum supported bandwidths of the UE and transmitting an indication of at least one updated maximum supported bandwidth to a wireless network.

Abstract: A voice call is established between two or more computing devices. The voice call may be, for example, audio only or audio and video. One computing device, referred to as a near-end device, receives a digital representation of background noise captured at another computing device, referred to as a far-end device. The near-end device captures voice audio from the user of the near-end device and adjusts the voice audio based at least in part on the digital representation of the background noise at the far-end device. The near-end device then transmits the adjusted voice audio to the far-end device for playback at the far-end device.

Abstract: A communication device, method, and computer program product optimize cyclic or linear delay diversity for effective transmit diversity that increases transmit power by first and second transmit chains of the communication device while configured for uplink full power transmission mode 1. Using a precoding matrix codebook for multiple-input multiple-output transmission, a controller of the communication device sequentially configures the first transmit chain to transmit an uplink signal and the second transmit chain to transmit the uplink signal with a different phase shift or time delay value. While sequentially transmitting, the controller monitors a measure of uplink signal quality at a network node for each sequentially changed phase shift or time delay values. The controller determines and uses an optimum value for the phase shift or time delay value that results in an optimum uplink signal quality over the evaluated sequence of different phase shift or time delay values.

Abstract: A communication device, method, and computer program product reduce power consumption when one or more transmit chains can be inactivated without unsatisfactory uplink communication quality in single data layer transmit diversity (TxDiv) or multiple input multiple output (MIMO) mode. The communication device monitors uplink signal quality of the uplink data stream while connected in single layer mode to a base node using multiple transmit chains. The controller device deactivates transmit chain(s) while the uplink signal quality remains satisfactory. The controller re-activates the inactivated transmit chain(s) in response to the uplink signal quality becoming unsatisfactory.

Abstract: A communication system, a method, and a computer program product provide selecting and camping on primary band in idle mode in preparation for supporting a predicted data connection for demanding application(s) to a network system. The prediction is based on trigger event(s) that include one or more of a configuration of a communication system, context of use of the communication system, and user interaction with the at least one user interface device. A controller of the communication system identifies, selects, and camps on a combination of a primary band and at least one secondary band of the one or more available network nodes that satisfies a communication demand requirement for the demanding application(s) using carrier aggregation and/or dual connection in preparation for activation of the demanding application(s) and establishment of the data connection with the communication network.

Abstract: A voice call is established between two or more computing devices. The voice call may be, for example, audio only or audio and video. One computing device, referred to as a near-end device, receives a digital representation of background noise captured at another computing device, referred to as a far-end device. The near-end device captures voice audio from the user of the near-end device and adjusts the voice audio based at least in part on the digital representation of the background noise at the far-end device. The near-end device then transmits the adjusted voice audio to the far-end device for playback at the far-end device.

Abstract: Techniques for multiple call types for a call event are described and may be implemented via a wireless device to enable multiple connections for wireless calls. For instance, redundant connections for a call event of a wireless device are established via different call types and utilized to exchange call media of the call event. In at least some implementations, call media from the different call types is combined to provide a combined media stream for output as part of the call event. Thus, techniques for multiple call types for a call event are applicable to increase call quality in different scenarios and environments, such as in situations where a primary call connection experiences an anomaly condition that causes quality call degradation.

Abstract: Techniques for optimal device position for wireless communication are described, and may be implemented via a mobile device to identify an orientation in which to place a mobile device to achieve optimum wireless signal. Generally, the described techniques enable the mobile device to be dynamically calibrated for wireless communication by identifying signal attributes at multiple different device positions, and enabling the mobile device to be placed at a position that exhibits optimum wireless signal. Further, wireless tasks to be performed on a mobile device can be placed into a task queue and executed when the mobile device is detected at a location and/or position that exhibits optimum wireless signal.

Abstract: A computing device supports both audible notifications and vibration notifications that are used to notify a user of various different events, such as an incoming voice call or text message. The computing device predicts when a user will have difficulty hearing an audible notification from the computing device due to environmental noise. In response to predicting that a user will have difficulty hearing an audible notification from the computing device due to environmental noise, the computing device enables vibration notifications (if not already enabled) on the computing device. The computing device also optionally communicates with one or more additional devices (e.g., a smartwatch or other wearable device) connected to the computing device to cause those additional devices to also enable vibration notifications. In response to subsequent events for which the user is to be notified, the computing device (and optionally additional devices connected thereto) provides a vibration notification.

Abstract: A method in an electronic device includes transmitting, with a first communication device using a first communication network, a parameter of the electronic device to a base station of a second communication network. The method includes receiving, with the first communication device using the first communication network, overhead information facilitating electronic communication with the base station using the second communication network. The electronic device can then establish, with a second communication device using the second communication network, a communication channel with the base station. The electronic device can then communicate, with the second communication device using the second communication network, with the base station via the communication channel. The first communication network and the second communication network are different.

Abstract: A method, a communication device and a computer program product for navigating to a location with communications to a wireless network. The method includes detecting, via a processor of a communication device, a loss of a first communication signal from a wireless network and receiving signal loss location data corresponding to a first location where the first communication signal from the wireless network was lost. The method further includes retrieving, from a memory of the communication device, first navigation data corresponding to a first route between a starting location and an end location. The method further includes generating and presenting, on an output device of the communication device, second navigation data based on the first navigation data and the signal loss location data. The second navigation data corresponds to a second route between a current location and the first location where communications to the wireless network are available.

Abstract: Techniques for call recovery for call failure are described and may be implemented via a wireless device to adapt to a variety of different wireless scenarios. For instance, when multiple call failures for a call occur over a particular set of radio access technologies, an IP-based call and/or a direct device-to-device call can be implemented to complete the call.

Abstract: Techniques for multiple call types for a call event are described and may be implemented via a wireless device to enable multiple connections for wireless calls. For instance, redundant connections for a call event of a wireless device are established via different call types and utilized to exchange call media of the call event. In at least some implementations, call media from the different call types is combined to provide a combined media stream for output as part of the call event. Thus, techniques for multiple call types for a call event are applicable to increase call quality in different scenarios and environments, such as in situations where a primary call connection experiences an anomaly condition that causes quality call degradation.

Abstract: A near end device is in a call (voice or video) over a communication link with a far end device. The near end device monitors constraints of the near end device, such as environmental noise at the near end device, latency between sequential data packets, signal strength or quality over the communication link, and energy level. The near end device detects when the near end device is having or is soon to have communication difficulty with the call due to one or more of the constraints. In response to detecting that the near end device is having or is soon to have communication difficulty with the call, the near end device communicates one or both of audible feedback and visual feedback to the far end device, notifying the far end device that the near end device is having or is soon to have communication difficulty with the call.

Abstract: A communication device, method, and computer program product mitigate antenna performance degradation that can result from folding or closing the communication device. A controller of the communication device identifies that the communication device is in a marginal coverage area for receiving a downlink in a first radio frequency (RF) band. The controller determines that first and second housings of the communication device are positioned in a first position that has degraded antenna performance for the downlink whereas a second position is not degraded. In response to the housings being in the first position while the communication device is in the marginal coverage area, the controller prioritizes connection to one or more nodes to communicate with the communication device via a second RF band.

Abstract: Techniques for multiple call types for a call event are described and may be implemented via a wireless device to enable multiple connections for wireless calls. For instance, redundant connections for a call event of a wireless device are established via different call types and utilized to exchange call media of the call event. In at least some implementations, call media from the different call types is combined to provide a combined media stream for output as part of the call event. Thus, techniques for multiple call types for a call event are applicable to increase call quality in different scenarios and environments, such as in situations where a primary call connection experiences an anomaly condition that causes quality call degradation.

Abstract: Techniques for call recovery for multiple call failures are described and may be implemented via a wireless device to adapt to a variety of different wireless scenarios. For instance, when multiple call failures for a call occur over a particular set of radio access technologies, an IP-based call and/or a direct device-to-device call can be implemented to complete the call.