Abstract:
A multiple input and multiple output device includes a first input switch, a second input switch, a first set of analog interference cancellation (AIC) circuits, and a second set of AIC circuits. The first input switch is configured to select one of a first transmit input of first transmit inputs or a first transmit input of second transmit inputs. The second input switch is configured to select one of a second transmit input of the first transmit inputs or a second transmit input of the second transmit inputs. The first set of AIC circuits and the second set of AIC circuits are coupled to the first input switch and to the second input switch. The first set of AIC circuits is configured to output a first cancellation signal. The second set of AIC circuits is configured to output a second cancellation signal.
Abstract:
Methods, devices, and systems for a mobile device to perform actions associated with applications when confirmed to be within proximity of a physical location relevant to the applications, including identifying a unique identifier of a proximate wireless network access point, determining whether the unique identifier matches a predefined identifier stored on the mobile device and associated with an application, obtaining sensor data via a sensor in response to determining that the unique identifier matches the predefined identifier, processing the obtained sensor data to identify encoded information, determining whether the encoded information within the obtained sensor data is associated with the unique identifier, and performing an action based on the encoded information in response to determining that the encoded information is associated with the unique identifier. In various embodiments, the unique identifier may be a service set identifier (SSID), and the sensor data may be acoustic signals emitted from a speaker.
Abstract:
The disclosure is directed to prioritizing call announce response in a broadcast/multicast communication system. An embodiment establishes a first priority for response based on assigning each user equipment (UE) a first random delay for response to a first call announce, responds to the first call announce using the first random delay, and determines a second priority for response to a subsequent call announce based on an elapsed time that each UE is present in a multicast area.
Abstract:
In an embodiment, a secondary communication terminal (CT) executes a client application to engage in a client application session (CAS), the secondary CT configured to connect to a primary CT over a local wireless connection (LWC), the primary CT having a higher-quality user interface environment as compared to the secondary CT. The secondary CT establishes the LWC with the primary CT during the CAS and, responsive to the establishment, negotiates with the primary CT to selectively transition the CAS to the primary CT. Alternatively, the primary CT executes the client application before the establishment and negotiates with the secondary CT to selectively transition the CAS to the secondary CT. In another embodiment, the primary CT hosts the CAS while the LWC is established with the secondary CT. Then, upon disconnection of the LWC, the secondary AT selectively transitions the CAS to the secondary CT.
Abstract:
The disclosure generally relates to network-initiated and client-initiated mechanisms to enable quality of service (QoS) for web-based client applications that may high efficiency, high performance, or otherwise guaranteed service levels. For example, to enable QoS for calls or other sessions associated a web-based application, one or more signaling messages may be exchanged between a server and a first user equipment (UE) to establish a call between the first UE and a second UE and to establish a peer connection between the server and at least the first UE. As such, QoS may be activated for at least the peer connection between the first UE and the server, wherein the server may route data associated with the web-based application between the first UE and the second UE over the established peer connection to implement the activated QoS.
Abstract:
A wireless device may determine the level of interference mitigation appropriate for the application and dynamically select a combination of interference cancellation components that satisfies that level. The combination of interference cancellation components may include components that consume power (e.g., active components) and components that do not consume power (e.g., passive components). The interference cancellation components may be used at the transmitter and/or the receiver. In some cases, the wireless device may also determine how much power is acceptable to expend on the interference mitigation. In such scenarios, the selection of the interference cancellation components may be such that the aggregated power consumption is less than the power expenditure limit.
Abstract:
The various embodiments provide a framework for using a server to create and maintain equivalence classes among applications operating on multiple devices that have registered with the server. In the various embodiments, the server may use equivalence classes to select an application on a target device (the “recipient application”) that has the highest probability of being able to receive shared media from an application operating on the originator device (i.e., the “originator application”) based on the recipient application's similarity to the originator application. The various embodiments further enhance privacy protections and the overall user experience by enabling the server to select an appropriate recipient application on the target device without the originator device or its user having to know anything about the target device's characteristics and functionalities.
Abstract:
Methods, devices, and systems for a mobile device to perform actions associated with applications when confirmed to be within proximity of a physical location relevant to the applications, including identifying a unique identifier of a proximate wireless network access point, determining whether the unique identifier matches a predefined identifier stored on the mobile device and associated with an application, obtaining sensor data via a sensor in response to determining that the unique identifier matches the predefined identifier, processing the obtained sensor data to identify encoded information, determining whether the encoded information within the obtained sensor data is associated with the unique identifier, and performing an action based on the encoded information in response to determining that the encoded information is associated with the unique identifier. In various embodiments, the unique identifier may be a service set identifier (SSID), and the sensor data may be acoustic signals emitted from a speaker.
Abstract:
The disclosure is related to dynamically applying quality of service (QoS) to a call. An aspect determines a packet transmission state of a subscriber on the call, determines whether or not the QoS is allocated to the subscriber, and allocates the QoS to the subscriber based on the QoS not being allocated to the subscriber and the packet transmission state indicating that the subscriber is sending packets.
Abstract:
In various embodiments, a mobile device and/or the presence-aware applications running on the device may be configured to support multiple user profiles. For instance, multiple users with access to the same mobile device may each create a user profile and login credentials on that device, and each user may take turns using the mobile device. The mobile device may also allow multiple users to access the mobile device simultaneously. In such embodiments, the mobile device processor executing the presence module and/or presence engine may be configured to associate a particular user profile with a request for updated presence information and determine whether to update the presence information based at least in part on the that user profile.