Abstract: A wireless communication device (WCD) may determine that the WCD has bearer traffic queued for transmission to a radio access network (RAN). The WCD may be configured to transmit the bearer traffic and neighbor reports over a reverse-direction channel of the RAN. The neighbor reports may contain information related to wireless coverage areas. One or more characteristics of the bearer traffic may also be determined. Based on the one or more characteristics of the bearer traffic, the neighbor reports may be scheduled to be transmitted over the reverse-direction channel at a particular rate. The WCD may transmit the neighbor reports over the reverse-direction channel at the particular rate.

Abstract: An application requirement and a mobility is determined for each of a first plurality of wireless devices in communication with a first access node. Based on the respective application requirement and mobility, a priority of each of the first plurality of wireless devices. At least one wireless device comprising a priority meeting a priority criteria is selected from among the first plurality of wireless devices, and a transmission power of a signal between the first access node and the selected at least one wireless device is reduced.

Abstract: A first communication device receives a communication from a second communication device. The communication could be part of the signaling used to establish a call to the second communication device or an audio signal that the second communication device conveys after its user has answered the call and started speaking. Based on the communication from the second communication device, the first communication device provides a user-discernible indication regarding the environment in which the second communication device is being used, such as an indication that the second communication device is being used with a speakerphone. If the second communication device is being used in a vehicle, the first communication device may also provide a user-discernible indication regarding the operational status of the vehicle, such as whether the vehicle is in motion and/or the number of occupants in the vehicle.

Abstract: A first throughput is determined of a first data flow at a gateway from a first access node and a second throughput is determined of second data flow at an inspection node from the gateway. A third throughput is determined comprising one or more third data flows from the gateway to a second access node based on a difference between the first throughput and the second throughput. At least one of the third data flows of the third throughput is identified, and when the third throughput meets a throughput threshold the identified third data flow is adjusted.

Abstract: In systems and methods of transferring information to a wireless device, a first portion of information is received and stored in a memory of the wireless device, and the first portion is presented while a second portion of the information is received. A presentation rate at which the first portion is presented is determined, and a time until the first portion is completely presented is determined based on the presentation rate and a size of the first portion. A number of times that a packet retransmission criteria is met is determined, and a maximum permitted number of packet retransmissions is adjusted based on the time until the first portion is completely presented and the number of times that the packet retransmission criteria is met.

Abstract: In systems and method of frequency band selection, a mobility and an application requirement of an application running on a wireless device are determined for a wireless device in communication with an access node over a first frequency band using a first radio access technology. When it is detecting that a signal level of the first frequency band meets a handover criteria, a message is sent to the wireless device comprising information of a second frequency band and a third frequency band, wherein the second and third frequency bands use a second radio access technology. The wireless device is instructed to communicate with the access node using one of the second and third frequency bands based on the determined mobility and application requirement.

Abstract: Methods and systems are provided for transitioning an active communication session of a mobile station from being conducted over a communication path that includes a source base station to being conducted over a communication path that includes a target base station, without terminating the communication session. A wireless communication device situated within a source coverage area of a source base station operates as a clone of the mobile station that is situated within a source coverage area of the source base station and also within a target coverage area of the target base station. The transition involves the clone relaying the communication session between the source base station and the mobile station; meanwhile, the target base station (i) establishes an air-interface connection with the mobile station and (ii) detects a handoff-completion trigger, and responsively serves the mobile station over the air-interface connection with respect to the communication session.

Abstract: A first number of wireless devices in communication with an access node over a first frequency band is determined. A total bandwidth and a spectral efficiency of the first frequency band are determined, and a throughput provided to each of the first number of wireless devices in the communication between the access node and the first number of wireless devices is calculated. Based on the total bandwidth of the first frequency band, the spectral efficiency of the first frequency band, and the throughput provided to each of the first number of wireless devices, a second number of wireless devices permitted to communicate with the access node over the first frequency band is determined. To determine a third number of wireless devices permitted to communicate with the access node over the first frequency band, the throughput provided to each of the first number of wireless devices is adjusted.

Abstract: In systems and methods of determining the availability of a radio access technology, a first message is received from a wireless device in communication with an access node using a first radio access technology, wherein the first message comprises a request of the availability of a second radio access technology at the access node. Based on the first message, an identifier of the wireless device and an identifier of the first access node are determined. Based on the access node identifier, it is identified whether the second radio access technology is available at the access node, and a second message is sent to the wireless device instructing the wireless device to scan for the second radio access technology when it is available.

Abstract: An access node load distribution of a first radio access technology at a first time is received from a plurality of access nodes, the first time comprising a first deployment time of a second radio access technology to at least one of the plurality of access nodes. A baseline access node load distribution of the first radio access technology at a time before deployment of the second radio access technology to any of the plurality of access nodes is determined. A cross-correlation is calculated of the access node load distribution and the baseline access node load distribution. When a difference between the cross-correlation and the baseline access node load distribution is greater than or equal to a difference threshold, an access node load distribution of the second radio access technology is determined based on a combination of the access node load distribution of the first and second radio access technologies.

Abstract: In systems and methods of frequency band selection in a multiband communication system, it is determined for a wireless device that a lower frequency band signal strength criteria meets a first threshold above a higher frequency band signal strength criteria and that the higher frequency band signal strength meets a second threshold. A modulation and coding scheme of a communication link of the wireless device is determined. When the higher frequency band signal strength criteria meets the secpmd threshold and the determined modulation and coding scheme meets a third threshold, the wireless device is instructed to change from operating on the higher frequency band to operating on the lower frequency band.

Abstract: A method and system for managing the allocation of uplink transmission resources. A first subscriber device may communicate with a second subscriber device over a local communication link. The first subscriber device may also transmit data over an air interface to a radio access network (RAN) serving the first subscriber device, with the first subscriber device serving as a proxy between the second subscriber device and the RAN. In response to the data including first data originated by the first subscriber device and second data originated by the second subscriber device that is received by the first subscriber device from the second subscriber device over the local communication link, the first subscriber device may be arranged to apply a different transmission priority for the transmitting of the first data over the air interface than for the transmitting of the second data over the air interface.

Abstract: In systems and methods of mitigating L-band signal interference in a wireless communication system, it is determined that an aggregate power level of a plurality of wireless devices using an L-band carrier in communication with an access node meets a power level threshold. A probability of successful handover to a second carrier for each of the wireless devices is determined. At least one of the wireless devices is selected based on the determined probability of successful handover and a transmit power metric of the wireless device, and the selected at least one wireless device can be handed over to the second carrier.

Abstract: Embodiments are described that may help to provide wireless service in a circuit-switched fall back scenario. In particular, when a user entity (UE) falls back from a first network to a second network to conduct a voice call, the first network may instruct the UE to scan a certain predetermined channel or channels for coverage from the second network. However, certain types of base stations typically operate on unlisted channels that differ from the predetermined channels that the UE is instructed to scan. Accordingly, a UE may pre-emptively scan unlisted channels, and report any unlisted channel that is detected to the first network. The first network can then coordinate with the second network to re-provision the base station that was operating on an unlisted channel, to instead operate on one of the predetermined channels that a UE will be instructed to scan during fall back to the second network.

Abstract: Embodiments may involve the adjustment of the way in which coverage areas are included in the active set of a wireless communication device (WCD), based on the codec that is currently associated with the WCD. An illustrative method involves a radio access network (RAN): (a) determining a codec that is associated with a WCD; (b) using the associated codec as a basis for determining a value for at least one active-set parameter for the WCD; and (c) sending a message to the WCD, wherein the message indicates the determined value for the at least one active-set parameter.

Abstract: Disclosed herein are systems and methods for dynamically adjusting drop-timer thresholds based on loading. An embodiment takes the form of a method carried out by at least one network entity in a communication system that also includes a radio access network (RAN) providing wireless service to access terminals in a coverage area, in part by enforcing a drop timer having an associated start threshold and an associated stop threshold. The method includes determining a current level of load in the coverage area, and further includes adjusting one or both of the start threshold and the stop threshold based at least in part on the determined current level of load in the coverage area.

Abstract: A wireless communication device (WCD) stores a mapping that maps each of a plurality of ranges of signal-to-noise ratios (SNRs) to a respective data rate indicator in a plurality of data rate indicators. Each data rate indicator is associated with a respective modulation-and-coding scheme (MCS) that supports a respective downlink data rate from a radio access network (RAN). The WCD selects a maximum data rate indicator based on a type of application on the WCD that is to receive downlink data, a priority of downlink data to be received by the application, an amount of downlink data to be received by the application, a device type of the WCD, or a subscription level of the WCD. The WCD selects an applicable data rate indicator based on a measured SNR and the mapping, such that the applicable data rate indicator does not exceed the maximum data rate indicator.

Abstract: In systems and methods of managing push-to-talk registration of a wireless device, a network attachment request is received from a wireless device in a first geographic service area, a service plan identifier associated with the wireless device is received, and based on the service plan identifier a domain name node network address is provided to the wireless device. A network address of a push-to-talk application node associated with a second geographic service area is determined based on the domain name node network address. The wireless device is then registered in the first geographic service area with the push-to-talk application node associated with the second geographic service area.

Abstract: In systems and methods of wireless communication access control, link budget parameters are determined for an access node, and a network access criteria is calculated based on the determined link budget parameters. In embodiments, an offset value is applied to the network access criteria. The network access criteria is provided from the access node to a wireless device. When a signal level of the access node meets the network access criteria, a network access request is received from the wireless device.

Abstract: A first wireless communication network stores a buffer of data that is concurrently being sent to a wireless device via a first active connection with a second wireless communication network. A first indicator is received by the wireless device. The first indicator is associated with an availability of an access node of the first wireless communication network to serve the wireless device. Based on the first indicator and based on a second indicator of a signal strength associated with the access node, the wireless device ends the first active connection. The first wireless communication network provisions a second active connection to the wireless device. The first wireless communication network provisions the second active connection in response to a request by the wireless device. Data not already received by the wireless device is provided, via the second active connection, to the wireless device.