Abstract:
Systems and methods for connecting a proxy device to a mobile device are disclosed. In an aspect, the proxy device continuously scans for the mobile device, wherein the mobile device broadcasts advertising messages to connect to the proxy device, connects to the mobile device in response to the mobile device coming into communication range of the proxy device, and sends information to the mobile device, the information configured to enable the mobile device to connect to a low energy device.
Abstract:
Systems and methods are disclosed for maintaining continuity of a peer-to-peer group session. The method may include exchanging a first P2P group session communication with a member of the P2P group via a direct data traffic connection, requesting session data from an application server, conveying the session data to a proxy UE, wherein the proxy UE is a member of the P2P group, and exchanging a second P2P group session communication with the application server in accordance with the session data.
Abstract:
In an embodiment, a P2P device discovers other P2P devices that belong to a P2P group. The P2P device calculates a reachability vector that indicates each discovered P2P device within a threshold number of P2P hops. The P2P device receives reachability vector(s) for each proximate P2P device in a set of proximate P2P devices discovered via the P2P discovery procedure. The P2P device ranks the P2P device and each proximate P2P device in the set of proximate P2P devices based on the calculated and received reachability vectors. The P2P device identifies a leader (e.g., the P2P device itself and/or one or more of the other P2P devices) that is responsible for performing a floor arbitration function for a P2P session from the ranked P2P devices based on the rankings, and participates in the P2P session by exchanging media in accordance with the floor arbitration function performed by the leader.
Abstract:
The disclosure relates to mechanisms that may be used to route notifications in an Internet of Things (IoT) environment according to user activity and/or proximity detection. More particularly, in various embodiments, an entity that manages the IoT environment may receive one or more messages, actions, or responses that indicate detected activity or detected proximity associated with one or more users from one or more IoT devices in the IoT environment. The management entity may then establish an activity and proximity trail from the one or more messages, actions, or responses that indicate the detected activity or the detected proximity, whereby in response to an IoT device reporting one or more notifications, an IoT device in proximity to at least one of the one or more users may be identified and the one or more notifications may be routed to the identified IoT device.
Abstract:
An aspect enables context aware actions among heterogeneous Internet of Things (IoT) devices. An IoT device receives data representing a context of each of a first set of IoT devices, receives data representing a current state of each of a second set of IoT devices, and determines an action to perform at a target IoT based on the received data. An aspect verifies an implied relationship between a first user and a second user by detecting an interaction between a first user device belonging to the first user and a second user device belonging to the second user, storing information related to the interaction in a first interaction table associated with the first user device, assigning a relationship identifier to the second user based, at least in part, on the information related to the interaction, and determining whether or not the assigned relationship identifier is correct.
Abstract:
Systems and methods are disclosed for optimizing data transfers. The method may include receiving a request to transfer data between a wireless device and a data transfer target, wherein the requested data transfer is associated with a time sensitivity window (TSW), determining whether an opportunity for a peer-to-peer (P2P) data transfer will arise during the TSW, targeting a transfer time from within the TSW for performing the requested data transfer based on the opportunity determination, and transmitting transfer notification data to the wireless device, wherein the transfer notification data includes the targeted transfer time.
Abstract:
The disclosure generally relates to a dynamic ad hoc gateway that can be configured to provide inter-network communication among different Internet of Things (IoT) networks (or subnetworks). For example, in various embodiments, connectivity and capability information may be advertised via a personal IoT network from a first potential gateway to a first device and other potential gateways and connectivity and capability information advertised from the other potential gateways may be similarly received at the first potential gateway via the personal IoT network. The connectivity and capability information advertised from the first potential gateway and the other potential gateways may then be evaluated to determine whether the first potential gateway is an elected gateway and a secure private network and an external interface from the secure private network may be established for one or more devices coupled to the elected gateway.
Abstract:
In an embodiment, a communication device (e.g., a current floor arbitrator of the session, a proxy device, etc.) records a floor arbitration history that tracks one or more floor grants and one or more floor denials that occur while a first device is performing a floor arbitration function for the communication session with the communication group, and transmits some or all of the floor arbitration history to a second device during the communication session. The second device (e.g., a new floor arbitrator for the session, a late or re-joining participant to the communication session, etc.) participates in the communication session based at least in part upon the received floor arbitration history (e.g., by factoring the received floor arbitration history into future floor-related decisions, by selectively requesting particular missed portions of the communication session, etc.).
Abstract:
In the network-based group management and floor control mechanism disclosed herein, a server may receive a request to occupy a shared IoT resource from a member device in an IoT device group and transmit a message granting the member IoT device permission to occupy the shared IoT resource based on one or more policies. For example, the granted permission may comprise a floor that blocks other IoT devices from accessing the shared IoT resource while the member IoT device holds the floor. Furthermore, the server may revoke the permission if the member IoT device fails to transmit a keep-alive message before a timeout period expires, a high-priority IoT device pre-empts the floor, and/or based on the policies. Alternatively, the server may make the shared IoT resource available if the member IoT device sends a message that voluntarily releases the floor.
Abstract:
In an embodiment, a control device registers proximate client devices to a coordinated display group and obtains display capability information for each registered client device. The control device determines to initiate a coordinated display session for outputting visual data via the coordinated display group. The registered proximate client devices execute a synchronization procedure to obtain synchronization information by which the master application can derive current relative orientation and position data for each registered proximate client device. The control devices maps a different portion of the visual data to respective display screens of the registered proximate client devices based on the display capability information and synchronization information. The control device delivers the mapped portions of the visual data to the registered proximate client devices for presentation thereon.