Abstract: An embodiment is directed to switching between server-arbitrated group communication sessions at an access terminal (AT) within a wireless communications system. The AT participates in a first group communication session when it receives an announce message announcing a second group communication session, acquires priority levels for the first and/or second group communication sessions and determines whether to switch between sessions based on the priority level(s). In another embodiment, the AT participates in a given processing task (e.g., a gaming session, a voice call, a group session, etc.) when it receives an alert that relates to a group communication session. If the alert is specially configured to force the given access terminal to drop the given processing task, the AT drops the given processing task irrespective of whether the AT later joins the announced group communication session.

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: 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: The disclosure relates to collaborative intelligence and decision-making in an Internet of Things (IoT) device group. In particular, various IoT devices in the group may be interdependent, whereby a decision that one IoT device plans may impact other IoT devices in the group. Accordingly, in response to an IoT device planning a certain decision (e.g., to transition state or initiate another action), the IoT devices in the group may collaborate using distributed intelligence prior to taking action on the planned decision. For example, a recommendation request may be sent to other IoT devices in the group, which may then analyze relationships within the group to assess potential impacts associated with the planned decision and respond to approve or disapprove the planned decision. Based on the responses received from the other IoT devices, the IoT device may then determine whether to take action on the planned decision.

Abstract: The disclosure relates to adaptive advertisements that embedded devices may discover and use to connect to host devices. In particular, host devices may generally transmit multiple advertisements to signal a willingness to host one or more embedded devices, which may selectively process the advertisements to adaptively attach to a particular host device according to properties associated with the host device and/or requirements associated with the embedded devices. Furthermore, the host devices may have overload thresholds that control whether the host devices should be “discoverable” such that the advertisements may be dynamically adjusted (or suspended) according to current load status and connected embedded devices may be redirected to another target host device to shed load when the current load status exceeds the overload threshold.

Abstract: To ensure that multicasts from access points sent in response to periodic beacons reach a variety of listening clients that may have longer sleep intervals than an interval between beacons, this disclosure describes systems, methods, and apparatus for multicasting bursts of frames where a burst number is selected so as to be equal to or greater than a range of common sleep intervals. Further, where multicast frames are re-multicast according to known protocols, the repeated bursts can be offset from the re-multicast start time suggested by the protocol, in order to increase a likelihood that clients with especially long sleep intervals receive the multicast frame.

Abstract: A system and method for discovering services in an Internet of Things (IoT) environment are disclosed. The method may include providing service-feature information from a consumer app to a query service that is indicative of a service provided by a remotely located provider app and incorporating the service-feature information into resource records of an additional information section of a multicast domain name service (mDNS) message. The message is multicasted to other IoT devices, and a response message is received from at least one provider device. The additional information section of the response message is then analyzed to determine whether a service provided by the at least one provider device meets criteria defined by the service-feature information.

Abstract: The disclosure relates to using discoverable peer-to-peer (P2P) services to remotely “onboard” headless devices over a Wi-Fi network. In particular, an onboardee device may enter an onboarding mode in which the onboardee device becomes a Wi-Fi access point (AP) and an onboarder device connected to a private Wi-Fi network may discover the onboardee device and establish a secured session to engage with the P2P services running thereon. The first time that the onboarder device and the onboardee device engage with one another, the secured session may be established based on a key exchange that uses a well-known secret (e.g., a default passphrase), which may be immediately changed to a shared secret. The onboarder device may then transfer an onboarding configuration to the onboardee device, which may be instructed to validate the onboarding configuration and connect to the Wi-Fi network prior to entering the connected mode.

Abstract: A call request message is sent from an access terminal to an application server in order to request initiation of a group communication session to a communication group and to request that an allocation of the floor to the given access terminal for the duration of the given group communication session remain uninterrupted by call targets of the session. The application server announces the session, and sends a floor-grant to the access terminal after the session is accepted by at least one target. The access terminal forwards media to the application server which is then forwarded to the at least one target. The floor is not transferred away from the access terminal during the session. For example, floor requests are suppressed at the at least one target, or floor requests are sent by the at least one target but are then ignored or denied by the application server.

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: Methods and apparatuses for indicating a bearer status with a device are provided. A call setup message can be received from an application server indicating a request to initiate a call with a target device. A dedicated bearer status of a dedicated bearer with the target device can be verified, and a message can be sent to the application server indicating the dedicated bearer status with the target device.

Abstract: An embodiment is directed to switching between server-arbitrated group communication sessions at an access terminal (AT) within a wireless communications system. The AT participates in a first group communication session when it receives an announce message announcing a second group communication session, acquires priority levels for the first and/or second group communication sessions and determines whether to switch between sessions based on the priority level(s). In another embodiment, the AT participates in a given processing task (e.g., a gaming session, a voice call, a group session, etc.) when it receives an alert that relates to a group communication session. If the alert is specially configured to force the given access terminal to drop the given processing task, the AT drops the given processing task irrespective of whether the AT later joins the announced group communication session.

Abstract: The disclosure relates to allowing mass re-onboarding of onboardee devices. An onboarder device receives updated network configuration parameters for a local wireless network, and sends the updated network configuration parameters and a delay parameter to one or more onboardee devices, wherein the one or more user devices reconnect to the local wireless network using the updated network configuration parameters at a time indicated by the delay parameter. An onboardee device receives updated network configuration parameters for a local wireless network, receives a delay parameter indicating a time at which the updated network configuration parameters will be valid, and connects to the local wireless network at the time indicated by the delay parameter using the updated network configuration parameters.

Abstract: Methods and apparatuses for reducing time to receive a call failure indication in a wireless communications system are provided. A request to initiate a call with a target user equipment (UE) is received from an originating UE. A call setup message that corresponds to the request is sent to a network node, and an internet control message protocol (ICMP) message indicative of the network node lacking a dedicated bearer to a radio access network that corresponds to the target UE can be received in response to the request. Based on the ICMP message, a status failure message is sent to the originating UE indicating failure of the call.

Abstract: The disclosure relates to wireless communications. An aspect determines whether or not an attempt to connect to a local wireless network using a given network configuration failed, determines whether or not a previous attempt to connect to the local wireless network using the given network configuration was successful, and if the attempt to connect failed and the previous attempt was successful, switches between a state of retrying to connect to the local wireless network and a state of waiting to receive a new network configuration.

Abstract: The disclosure relates to wireless communications. An aspect receives, by an onboarder device, a list of local wireless network scan results from an onboardee device, selects a local wireless network on the list of local wireless network scan results, and sends an indication of the selected local wireless network to the onboardee device, wherein the onboardee device attempts to connect to the selected local wireless network. An aspect scans, by an onboardee device, for available local wireless networks, creates a list of local wireless network scan results based on the scanning, sends, by the first device, the list of local wireless network scan results to an onboarder device, wherein the onboarder device selects a local wireless network on the list of local wireless network scan results, and receives an indication of the selected local wireless network from the onboarder device.

Abstract: The disclosure relates to performing a remote Wi-Fi network configuration when a network security protocol is unknown. In particular, Wi-Fi network configurations typically require a name, a security protocol, and authentication credentials. However, users attempting to configure a Wi-Fi network may not know the security protocol or be unable to recall the security protocol when presented with a dialog requesting such details. As such, assuming a finite set of security protocols, the algorithm disclosed herein may assume an OPEN (e.g., unsecured) configuration on the destination Wi-Fi network if no credentials were supplied or alternatively a WPS configuration if credentials consisting of exactly eight digits were supplied. Otherwise, the algorithm may iterate through each security protocol supported on the device supports (e.g., according to popularity, complexity, etc.) until a successful network association occurs or all supported security protocols are exhausted.

Abstract: The disclosure relates to using discoverable peer-to-peer (P2P) services to remotely “onboard” headless devices over a Wi-Fi network. In particular, an onboardee device may enter an onboarding mode in which the onboardee device becomes a Wi-Fi access point (AP) and an onboarder device connected to a private Wi-Fi network may discover the onboardee device and establish a secured session to engage with the P2P services running thereon. The first time that the onboarder device and the onboardee device engage with one another, the secured session may be established based on a key exchange that uses a well-known secret (e.g., a default passphrase), which may be immediately changed to a shared secret. The onboarder device may then transfer an onboarding configuration to the onboardee device, which may be instructed to validate the onboarding configuration and connect to the Wi-Fi network prior to entering the connected mode.

Abstract: A call request message is sent from an access terminal to an application server in order to request initiation of a group communication session to a communication group and to request that an allocation of the floor to the given access terminal for the duration of the given group communication session remain uninterrupted by call targets of the session. The application server announces the session, and sends a floor-grant to the access terminal after the session is accepted by at least one target. The access terminal forwards media to the application server which is then forwarded to the at least one target. The floor is not transferred away from the access terminal during the session. For example, floor requests are suppressed at the at least one target, or floor requests are sent by the at least one target but are then ignored or denied by the application server.

Abstract: A call request message is sent from an access terminal to an application server in order to request initiation of a group communication session to a communication group and to request that an allocation of the floor to the given access terminal for the duration of the given group communication session remain uninterrupted by call targets of the session. The application server announces the session, and sends a floor-grant to the access terminal after the session is accepted by at least one target. The access terminal forwards media to the application server which is then forwarded to the at least one target. The floor is not transferred away from the access terminal during the session. For example, floor requests are suppressed at the at least one target, or floor requests are sent by the at least one target but are then ignored or denied by the application server.