Abstract:
The technology disclosed herein enhances the management of signaling resources of a wireless provider network using hidden public land mobile network (PLMN) signals. In one implementation, a Long Term Evolution (LTE) access node provides hidden and non-hidden PLMNs to wireless communication devices. During the communications for the wireless communication devices, the LTE access node identifies a transition condition for the network and a physical cell identifier (PCI) associated with a hidden PLMN. Once the PCI is identified, the PCI is provided to at least a subset of the wireless communication devices, permitting the subset to communicate using channels associated with the hidden PLMN.
Abstract:
A wireless network receives a registration from a wireless device. The network identifies an Extensible Mark-up Language Configuration Access Protocol (XCAP) service and establishes an XCAP bearer for the wireless device. The network receives an enabling instruction over the XCAP bearer to enable the mobile data service and establishes a mobile data bearer for the wireless device. The network exchanges user data with the wireless device over the mobile data bearer. The network automatically establishes the mobile data bearer for the wireless device responsive to subsequent registrations when the mobile data service is enabled. The network receives a disabling instruction over the XCAP bearer to disable the mobile data service for the wireless device. The network terminates the mobile data bearer for the wireless device and does not automatically establish the mobile data bearer for the wireless device responsive to subsequent registrations when the mobile data service is disabled.
Abstract:
A data communication network to provide hop count data for User Equipment (UE) selection of a wireless relay. The data communication network comprises a macro base station and a plurality of wireless relays that serve UEs. The wireless relays receive a hop count, and in response, increment their individual hop count and wirelessly broadcast individual relay Long Term Evolution (LTE) System Information Blocks (SIBs) indicating their individual hop counts. The wireless relays receive wireless UE attachments responsive to the relay LTE SIB broadcasts of their individual hop counts.
Abstract:
A Long Term Evolution (LTE) network receives a registration request from User Equipment (UE) and responsively identifies a mobile data Access Point Name (APN) and an Internet Multimedia Subsystem (IMS) APN for the UE. The LTE network establishes a mobile data bearer and an IMS bearer responsive to APNs. The LTE network receives a user instruction to disable the mobile data service for the UE and responsively releases the mobile data bearer and disables the mobile data APN for the UE. An IMS server system exchanges messages with the UE over the IMS bearer when the mobile data service is disabled. The LTE network receives a user instruction to enable the mobile data service for the UE and responsively enables the mobile data APN for the UE.
Abstract:
Examples disclosed herein provide systems, methods, and software to manage communication path settings for wireless messages based on quality of service. In one implementation, a messaging system on a first network for a wireless device may identify a message for a second wireless device. In response to the message, the messaging system queries a profile server for addressing information for the second device and quality of service information related to the communication path. Based on the information retrieved from the profile server, the messaging system determines a reply communication path for future messages and a time to live value that the reply path is valid. The messaging system then transfers the communication to the second wireless device with the reply communication path and the time to live information.
Abstract:
In an LTE network, an MME processes network status information to transfer aggregated data to an ANDSF. The ANDSF processes a request from a wireless communication device that indicates device location and the aggregated data to generate an information response indicating a priority between the LTE network and a non-LTE network at the device location. The ANDSF transfers the information response for delivery to the wireless communication device. The wireless communication device processes the information response to select between the LTE network and a non-LTE network at the device location.
Abstract:
A data message service system comprises a communication transceiver and a processing system. The communication transceiver is configured to receive a data message from a first wireless communication device for delivery to a second wireless communication device, wherein the data message indicates a delivery receipt request. The processing system is configured to, responsive to the delivery receipt request, store an identifier of a service node serving the first wireless communication device. The processing system is further configured to direct the communication transceiver to transfer the data message for delivery to the second wireless communication device, and transfer a delivery receipt for delivery to the first wireless communication device using the identifier of the service node serving the first wireless communication device.
Abstract:
Embodiments of the present invention direct a mobile device to communicate using a particular radio access technology when multiple access technologies are available. Many mobile devices have the capability to use multiple radio access technologies. The process of providing access guidance to the mobile device at a point in time is described herein as a radio access discovery and selection event. Embodiments of the present invention may complete the event using only two messages. In one embodiment, the first message is a SIP OPTIONS message communicated from the mobile device to the access guidance component. This message identifies the mobile device and the mobile device's present location. In one embodiment, the location identification information is communicated within the PANI header. In response, the access guidance component communicates a preferred radio access technology within a SIP 200 OK message.