Abstract: Systems, methods, and software described herein provide enhancements for allocating Long Term Evolution (LTE) resources to a wireless relay node. In one implementation, a method of operating a LTE access node includes receiving device summary reports from a wireless relay node that indicate at least the quantity of wireless communication devices connected to the wireless relay node. Based on the received summaries, the LTE access node may determine scheduling weights for the wireless relay node, wherein the scheduling weights indicate a probability of scheduling resources in comparison to other wireless communication devices communicating using the same quality of service class identifier as the wireless relay node.

Abstract: A wireless communication network controls Carrier Aggregation (CA). A macrocell base station broadcasts a macro network Identifier (ID) and a relay network ID. A wireless relay broadcasts the macro network ID. The base station serves a first set of User Equipment (UEs) using CA responsive to the macro network ID. The wireless relay serves a second set of UEs using CA responsive to the macro network ID. The base station also serves the wireless relay using CA responsive to the relay network ID. The base station determines that a CA load threshold is exceeded and responsively terminates CA for the first set of UEs. The base station also transfers an instruction to terminate CA for the second set of UEs using the macro network ID. The wireless relay receives the instruction and responsively terminates CA for the second set of UEs.

Abstract: Examples disclosed herein provide systems, methods, and software to transition signaling formats for a wireless communication device. In one example, a method of operating an eNodeB to transition signaling formats or modes for a wireless communication device includes exchanging first wireless communication signals with the wireless communication device using multiple-input and multiple-output (MIMO) signaling. The method further includes identifying a signal transition event for the wireless communication device and, in response to identifying the signal transition event, determining whether the wireless communication device meets a transition criteria. The method also provides, if the wireless communication device meets the transition criteria, exchanging second wireless communication signals with the wireless communication device using beamforming signaling.

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: An Internet Multimedia Subsystem (IMS) identifies a Long Term Evolution (LTE) network serving the UE. The IMS receives a Session Initiation Protocol (SIP) Invite message for the media session to the UE and responsively transfers a status request for delivery to the LTE network serving the UE. The LTE network identifies a status of an LTE base station serving the UE and identifying an alternative communication network serving the UE. The LTE network determines that the media session should be redirected to the alternative communication network based on the status of the LTE base station and the identified alternative communication network serving the UE. The LTE network transfers a status response for delivery to the IMS indicating media session redirection to the alternative communication network. The IMS then transfers the SIP Invite message for the media session to the UE for delivery to the alternative communication network serving the UE.

Abstract: A wireless relay wirelessly receives user data from User Equipment (UE) using a UE uplink Carrier Aggregation (CA) configuration. The wireless relay wirelessly transfers the user data using a relay uplink. The wireless relay determines available Power Headroom (PHR) for the relay uplink and translates the available PHR into a new UE uplink CA configuration. The wireless relay wirelessly receives additional user data from the UE using the new UE uplink CA configuration.

Abstract: A wireless communication network controls Carrier Aggregation (CA), a donor base station wirelessly serves a wireless relay and the donor base station and the wireless relay wirelessly serve User Equipment (UE). The wireless relay wirelessly exchanges user data with a UE using CA based on an initial relay to UE (R2UE) CA threshold. The donor base station determines a donor base station utilization amount and processes the donor base station utilization amount to determine a modified R2UE CA threshold. The donor base station wirelessly transfers an instruction to the wireless relay indicating the modified R2UE CA threshold. The wireless relay wirelessly receives the modified R2UE CA threshold and exchanges additional user data with the UE using CA based on the modified R2UE CA threshold.

Abstract: A Long Term Evolution (LTE) wireless access system transfers wireless data to User Equipment (UE) over a first frequency band based on an initial frequency band selection priority. The LTE wireless access system processes a user Identifier (ID) associated with the UE to select a new frequency band selection priority for the UE. The LTE wireless access system transfers a connection release message to the UE indicating the new frequency band selection priority for the UE. The LTE wireless access system receives a data message for the UE and identifies a second frequency band for the UE based on the new frequency band selection priority. The LTE wireless access system transfers the data message to the UE over the second frequency band.

Abstract: Systems, methods, apparatuses, and software for operating a wireless access node are provided herein. In one example, a method includes providing wireless access from the wireless access node for one or more wireless devices using an initial protocol data unit (PDU) size for at least a portion of the wireless access. The method also includes receiving wireless transmission metrics transferred by a second wireless access node, and establishing a new PDU size for the portion of the wireless access at the wireless access node based at least on the wireless transmission metrics.

Abstract: Systems, methods, and computer-readable media, for facilitating providing network transfer messages based on network conditions are provided. In embodiments, one or more network-condition data that indicate a network condition of a first wireless network being used by a mobile device are received. The network-condition data are utilized to determine a transmission time attribute that indicates a time or a frequency at which to transmit a set of network transfer messages that provide an indication for the mobile device to seek a second wireless network. The set of network transfer messages are transmitted in accordance with the determined transmission time attribute.

Abstract: Embodiments disclosed herein provide systems and methods for override vocoder capacity operating point (COP) allocation. In a particular embodiment, a method provides determining a communication load on a wireless access node. Based on the communication load, the method provides allocating a first COP for a vocoder, wherein the vocoder is used on voice communications exchanged with the wireless access node. The method further provides determining a frame error rate of a wireless communication link between a wireless communication device and the wireless access node. If the frame error rate indicates that a COP of the wireless communication link should be lower than the first COP, the method provides allocating an override COP to the COP of the wireless communication link based on the frame error rate.

Abstract: A source macro base station exchanges user data with a wireless communication device using an enhanced Radio Frequency (RF) service and receives RF measurement data from the wireless communication device. The RF measurement data is processed using a hysteresis parameter to detect a pico handover event to a target pico base station, and in response, determine if the target pico base station supports the enhanced RF service, and if the target pico base station does not support the enhanced RF service, the hysteresis parameter is modified to inhibit a pico handover to the target pico base station. The RF measurement data is processed to detect a macro handover event to a target macro base station, and in response, the hysteresis parameter is modified to drive a macro handover to the target macro base station if the target macro base station supports the enhanced RF service.

Abstract: Systems, methods, and software for operating a wireless communication device are provided herein. In a first example, a method of operating a wireless communication device is provided. The method includes receiving user content and advertising content over a wireless link from a wireless communication network, and responsive to user input on the wireless communication device, altering a first resource portion associated with the wireless communication device for handling of the advertising content and altering a second resource portion associated with the wireless communication device for handling of the user content.

Abstract: A mobility server receives a tracking area update from User Equipment (UE) indicating UE Identifier (ID) and current tracking area ID and responsively determines if the current tracking area ID is new tracking area ID. If current tracking area ID comprises new tracking area ID, then the mobility server updates a tracking area database with new tracking area ID. The mobility server translates UE ID and current tracking area ID into candidate Access Point Name (APN) data set and determines if candidate APN data set is a new APN data set. If candidate APN data set comprises new APN data set, then the mobility server transfers an instruction for UE to perform a wireless reattachment to obtain candidate APN data set and receives an attachment request from UE indicating UE ID and current tracking area ID and responsively transfers candidate APN data set to a data network gateway.

Abstract: Embodiments disclosed herein provide systems, methods, and software for increasing reference signal power to prevent communication format change. In a particular embodiment, a method of operating a wireless communication system includes identifying a wireless communication device with first communication format to second communication format switching capability. The method further provides allocating a center bandwidth in the first communication format for the wireless communication device. The method further provides identifying a handover event from the wireless communication device requesting a switch from the first communication format to the second communication format and increasing the reference signal power for at least the center bandwidth in the first communication format.

Abstract: Systems, methods, and software for providing a preferred roaming list (PRL) to a wireless communication device are provided herein. In one example, a method of operating a wireless local area network (WLAN) device is presented. The method includes receiving a request for network access to the WLAN from a wireless communication device, identifying a PRL for the wireless communication device responsive to at least the request, where the wireless communication device can use the PRL to access a cellular communication service. The method also includes transferring the PRL to the wireless communication device.

Abstract: An orthogonal frequency-division multiplexing (OFDM) wireless access node to facilitate contention resolution between wireless communication devices is configured to receive connection requests on a random access channel transmitted from first and second wireless communication devices, transmit a resource allocation message comprising a same resource block to both the first and second wireless communication devices, and receive competing connection request messages transmitted from the first and second wireless communication devices on the same resource block. A contention resolution message is generated and transferred to the first and second wireless communication devices, wherein the first wireless communication device determines that a contention resolution identifier received in the contention resolution message is associated with the first wireless communication device and responsively decodes connection setup information.

Abstract: A Long Term Evolution (LTE) network wirelessly exchanges data with User Equipment (UE) over multiple data bearers having a combination of Quality-of-Service Class Indicators (QCIs). The LTE network wirelessly receives radio measurement data from the UE for a voice communication network and for a data communication network. The LTE network determines at network-selection parameters based on the combination of the QCIs for the UE. The LTE network processes the radio measurement data based on the network-selection parameters to select the data communication network for the UE instead of the voice communication network.

Abstract: A wireless communication device determines user interface activity initiated by a user application. The wireless communication device determines a timer setting based on the user interface activity initiated by the user application. The wireless communication device wirelessly transfers the timer setting to a wireless communication network. The wireless communication device exchanges wireless communications initiated by the user application with the wireless communication network. The wireless communication network uses a dormancy timer based on the user interface activity initiated by the user application.

Abstract: An LTE wireless access node selects a wireless access node based on Radio Access Terminal (RAT) measurements and subscriber wireless data scheduling weights. The LTE wireless access node includes a communication interface to transfer communications for a subscriber operating a UE. The communication interface of the LTE wireless node receives RAT measurements indicating individual RF signal quality for multiple eNodeBs from the UE. The communication interface of the LTE wireless access node receives subscriber wireless data scheduling weights indicating scheduling metrics for the subscriber operating the UE from the multiple eNodeBs. The LTE wireless access node also includes a processing system to process the RAT measurements and subscriber wireless data scheduling weights to select one of the eNodeBs. The communication interface of the LTE wireless access system further transfers a signaling message to the UE indicating the selected eNodeB.