Abstract: Solutions are disclosed that employ selective uplink (UL) carrier aggregation (CA) to enhance coverage. Examples include: determining, by a wireless network, a status of a first user equipment (UE) indicating at least whether the first UE is roaming or is associated with a heavy user account; determining a signal to interference and noise ratio (SINR) for a cell of the wireless network; determining locations of UEs experiencing call failures within the cell; and based on at least the status of the first UE, the SINR for the cell, and locations of call failures within the cell, performing an interference reduction action comprising: forcing a handover of the first UE to a neighboring cell; or based on at least the first UE roaming or being associated with a heavy user account, restricting the first UE from using UL CA.

Abstract: Solutions are disclosed that employ selective power class permission to enhance coverage. Examples include: determining, by a wireless network, a status of a first user equipment (UE) indicating at least whether the first UE is roaming or is associated with a heavy user account; determining a signal to interference and noise ratio (SINR) for a cell of the wireless network; determining locations of UEs experiencing call failures within the cell; and based on at least the status of the first UE, the SINR for the cell, and locations of call failures within the cell, restricting the first UE from using a transmit power above a maximum transmit of power class (PC) three (PC3). A PC two (PC2) UE, which is a higher power classification UE than a PC3 UE, typically has 3 decibels milliwatt (dBm) higher transmit power than a PC3 UE.

Abstract: A wireless communication network pages a wireless communication device over Orthogonal Frequency Division Multiplexing (OFDM) access points. To send the page, a WIFI gateway identifies WIFI networks that serve the wireless user device. The WIFI gateway determines individual ones of the Orthogonal Frequency Division Multiplexing (OFDM) access points to page the wireless user device based on the individual ones of the WIFI networks that serve the wireless user device. The WIFI gateway indicates the OFDM access points to a paging system. The paging system receives a page for the wireless user device and responsively transfers the page to a current one of the OFDM access points indicated by the WIFI gateway. The current one of the OFDM access points receives the page and wirelessly transfers the page to the wireless user device.

Abstract: A wireless communication network pages a wireless communication device over Orthogonal Frequency Division Multiplexing (OFDM) access points. To send the page, a WIFI gateway identifies WIFI networks that serve the wireless user device. The WIFI gateway determines individual ones of the Orthogonal Frequency Division Multiplexing (OFDM) access points to page the wireless user device based on the individual ones of the WIFI networks that serve the wireless user device. The WIFI gateway indicates the OFDM access points to a paging system. The paging system receives a page for the wireless user device and responsively transfers the page to a current one of the OFDM access points indicated by the WIFI gateway. The current one of the OFDM access points receives the page and wirelessly transfers the page to the wireless user device.

Abstract: A wireless communication system to deliver pages to wireless communication devices based on a Wireless Fidelity (WIFI) network identifier. Orthogonal Frequency-Division Multiplexing (OFDM) access points exchange wireless communications to serve a wireless communication device and transfer corresponding service messages to a paging control system. The paging control system processes the service messages to identify the current OFDM access point serving the wireless communication device. A WIFI gateway system receives a series of authorization requests for the wireless communication device to access a series of WIFI communication networks. The authorization requests indicate WIFI network identifiers. The WIFI gateway system transfers WIFI access authorizations to the WIFI communication networks. The wireless communication device is idle on the OFDM access points when on a WIFI communication network.

Abstract: A wireless relay attaches to a wireless base station and broadcasts a wireless hop count. Another wireless relay receives the wireless hop count and attaches to the wireless relay. The other wireless relay increments the wireless hop count and broadcasts the incremented wireless hop count. The wireless relays receive attachment requests from User Equipment (UEs) responsive to their wireless hop counts. The wireless relays exchange user data with the UEs after the attachments.

Abstract: A wireless access node transmits an available Public Land Mobile Network Identifier (PLMN ID) associated with available wireless channels to a wireless device. The wireless access node receives the available PLMN ID from the wireless device and responsively exchanges signals with the wireless device over the available wireless channels. The wireless access node identifies a transition condition for the wireless communication device and responsively transfers a Physical Cell Identifier (PCI) and a hidden PLMN ID to the wireless communication device. The hidden PLMN ID is associated with hidden wireless channels. The wireless access node receives the PCI and the hidden PLMN ID from the wireless communication device and responsively exchanges signals with the wireless communication device over the hidden wireless channels.

Abstract: A wireless access node transmits an available Public Land Mobile Network Identifier (PLMN ID) associated with available wireless channels to a wireless device. The wireless access node receives the available PLMN ID from the wireless device and responsively exchanges signals with the wireless device over the available wireless channels. The wireless access node identifies a transition condition for the wireless communication device and responsively transfers a Physical Cell Identifier (PCI) and a hidden PLMN ID to the wireless communication device. The hidden PLMN ID is associated with hidden wireless channels. The wireless access node receives the PCI and the hidden PLMN ID from the wireless communication device and responsively exchanges signals with the wireless communication device over the hidden wireless channels.

Abstract: A mobility management entity to facilitate responses to service requests comprises a communication transceiver and a processing system. The communication transceiver is configured to transfer a plurality of requests for delivery to a network element. The processing system is configured to monitor response times of individual responses transmitted from the network element in response to the plurality of requests, process the response times to determine whether or not at least one of the response times exceeds a threshold value, and responsive to determining that at least one of the response times exceeds the threshold value, increase a capacity indicator that indicates an amount of loading on the mobility management entity.

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 relay receives a user network Identifier (ID) and a relay network ID. The wireless relay attaches to the relay network responsive to the relay network ID. The wireless relay broadcasts the user network ID and User Equipment (UEs) attach to the wireless relay responsive to the user network ID. The wireless relay exchanges user data with the UEs over user network carrier aggregation links. The wireless relay exchanges the user data with the relay network over relay network carrier aggregation links. Responsive to carrier aggregation loading, the wireless relay receives an instruction to terminate the user network carrier aggregation links, and the wireless relay terminates the user network carrier aggregation links. The wireless relay now exchanges the user data with the UEs over non-carrier aggregation links. The wireless relay continues to exchange the user data with the relay network over the relay network carrier aggregation links.

Abstract: A wireless relay attaches to a wireless base station and broadcasts a wireless hop count. Another wireless relay receives the wireless hop count and attaches to the wireless relay. The other wireless relay increments the wireless hop count and broadcasts the incremented wireless hop count. The wireless relays receive attachment requests from User Equipment (UEs) responsive to their wireless hop counts. The wireless relays exchange user data with the UEs after the attachments.

Abstract: A method for adaptive Multiple-Input and Multiple-Output (MIMO) transmission modes (TMs) in wireless communication networks. The method comprising receiving an attachment request from a User Equipment (UE). The method further comprising retrieving a Subscriber Profile ID (SPID) for the UE, and qualifying the UE for an enhanced MIMO TM based on the SPID. If the UE qualifies, then determining if the UE is capable of the enhanced MIMO TM. If the UE is capable of the enhanced MIMO TM, then assigning the UE to the enhanced MIMO TM, and receiving a Rank Indicator (RI) from the UE. If the RI is less than a RI threshold, assigning the UE to a lower MIMO TM.

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 User Equipment (UE) registers with a Long Term Evolution (LTE) network. The UE registers with an Internet Multimedia Subsystem (IMS) over the LTE network. The UE registers with a Wireless Fidelity (WIF) network. The UE receives a status request from the LTE network responsive to a Session Initiation Protocol (SIP) invite for the UE received at the IMS. The UE transfers a status response to the LTE network that indicates the WIFI network responsive to the status request. The UE receives the SIP invite from the IMS over the WIFI network. The UE exchanges user data for the media session over the WIFI network.

Abstract: A method of operating User Equipment (UE) in a data communication network that comprises a macro base station and a plurality of wireless relays that serve the UE to select a communication session type based on a hop count. The method comprises UEs that attach to one of a plurality of wireless relays and determine a hop count for the attached wireless relay. The UEs select a session type based on the hop count and initiate a communication session of the selected session type with the attached wireless relay.

Abstract: A donor base station in a wireless communication network exchanges first user data with a wireless relay using a standard communication throughput. A relay control system in the wireless communication network exchanges data with the wireless relay over the donor base station and the neighboring base station. The relay control system detects Inter-Cell Interference Coordination (ICIC) between the wireless relay and the neighboring base station and in response, the relay control system identifies the donor base station serving the wireless relay and signaling the donor base station of the ICIC between the wireless relay and the neighboring base station. The donor base station receives the signaling and reduces the standard communication throughput of the wireless relay. The donor base station then exchanges second user data with the wireless relay using the reduced communication throughput.

Abstract: A wireless relay receives a user network Identifier (ID) and a relay network ID. The wireless relay attaches to the relay network responsive to the relay network ID. The wireless relay broadcasts the user network ID and User Equipment (UEs) attach to the wireless relay responsive to the user network ID. The wireless relay exchanges user data with the UEs over user network carrier aggregation links. The wireless relay exchanges the user data with the relay network over relay network carrier aggregation links. Responsive to carrier aggregation loading, the wireless relay receives an instruction to terminate the user network carrier aggregation links, and the wireless relay terminates the user network carrier aggregation links. The wireless relay now exchanges the user data with the UEs over non-carrier aggregation links. The wireless relay continues to exchange the user data with the relay network over the relay network carrier aggregation links.

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 method of operating a wireless packet access network comprises receiving, at a wireless network control system, a packet data request from an application in a wireless communication device, determining if the application is a member of a first application group or a second application group, and selecting a core packet network access point from a plurality of core packet network access points based on whether the application is a member of the first application group or the second application group. The method further comprises transmitting the packet data request to the selected core packet network access point to initiate access to a core packet network.