Abstract: In systems and method of determining a reordering timer in a wireless communication network, it is determined that a packet reordering of a plurality of data packets meets a reordering threshold, and the plurality of data packets is examined to determine a reordering severity of the plurality of data packets. Based on the determined reordering severity and an application requirement associated with the plurality of data packets, a reordering timer is determined.

Abstract: An application requirement is identified of a wireless device in communication with an access node using a first radio access technology, and a probability is determined that a communication session of the wireless device using the first radio access technology will be dropped based on a wireless device mobility and characteristics of a plurality of neighbor access nodes of the access node. A handover threshold is calculated based on the application requirement and the determined probability, and when a signal level of the first radio access technology received at the wireless device meets the handover threshold, the wireless device is instructed to change from communicating with the access node using the first radio access technology to communicating with the access node using the second radio access technology.

Abstract: In systems and methods of paging a wireless device, it is determined that an application requirement of an application running on a wireless device meets a requirement threshold. A first subset of tracking areas of a tracking area list are selected based on a paging load. A paging message is sent for the wireless device to the selected subset of tracking areas.

Abstract: Loading information of an access node and a random access failure rate at the access node are determined, wherein the access node is using a first physical random access channel (PRACH) configuration index. Based on the comparison of the loading information to a loading criteria and the comparison of the random access failure rate to a failure rate criteria, a second PRACH configuration index is selected for the access node.

Abstract: In systems and methods of detecting a wireless device utilizing unauthorized tethering, it is determined that a number of wireless devices in active communication with the access node meets a connections criteria, and that an access node loading meets a loading criteria. Packets received at the access node from the wireless devices are inspected to identify at least one short-lived data flow and a source wireless device of the at least one short-lived data flow. It is determined for the source wireless device a number of short-lived data flows during an observation time period, and the source wireless device is identified as performing unauthorized tethering when the number of short-lived data flows during the first time period meets a data flow threshold.

Abstract: Disclosed is an arrangement in which a radio access network detects a trigger such as the RAN being threshold loaded, and the RAN responsively causes each of one or more served UEs to transition from operating in a mode in which the UE would engage in call initiation signaling via the RAN to set up the call extending through the RAN, so the UE would then engage in the call served by the RAN to operating in a mode in which the UE would engage in call initiation signaling via the RAN to instead set up the call extending through another RAN and would transition to be served by the other RAN, so the UE would engage in the call served by the other RAN. As disclosed, one RAN may be an LTE RAN, and the other RAN may be a fallback RAN such as a CDMA or GSM RAN.

Abstract: In a communication system comprising a first base station of a plurality of base stations, a computing system may identify one or more other base stations of the plurality based on whether each of the one or more other base stations sits as a node on the same local area network (LAN) as the first base station, and perhaps based on other considerations, such as whether each of the one or more other base stations is geographically located near the first base station and whether each operates with a whitelist. The computing system may then cause the first base station to wirelessly transmit, to at least one user equipment device (UE) served by the first base station, a specification of the identified one or more base stations to enable the at least one UE to search for coverage of at least one of the specified one or more base stations.

Abstract: Disclosed is a method and system to help facilitate continued control of a mobile craft in a situation where the wireless link between the controller and mobile craft degrades. In accordance with the disclosure, the controller and mobile craft will each independently detect threshold degradation of their direct wireless link and will each respond to its detecting of the threshold degradation by acquiring a cellular wireless connection with a cellular radio access network and communicating via its acquired cellular wireless connection with a network-based control server. The control server will then automatically bridge together its communication with the controller and its communication with the mobile craft so as to enable the controller to continue controlling the mobile craft.

Abstract: In systems and methods of controlling a connection between a wireless device and an access point, it is determined that a first wireless device is not authorized to connect to an access point of a first data network. A message is transferred to a second wireless device by a second data network requesting permission for the first wireless device to connect to the access point. A message can be received from the second wireless device granting the first wireless device permission to connect to the access point.

Abstract: Disclosed are methods and systems for using mobile-station-specific gateway-burden data for assigning mobile stations to data-access gateways. One embodiment takes the form of a method carried out by at least one network entity in a communication system that includes a radio access network (RAN) for providing wireless service to mobile stations and that further includes multiple data-access gateways. The method includes maintaining mobile-station-specific gateway-burden data that associates each of multiple mobile stations with one or more indicia of the extent to which those mobile stations have respectively consumed one or more resources of one or more of the data-access gateways.

Abstract: A method and system for providing a user of a wireless communication device (WCD) with vending service. The WCD may present the user with data indicating items available for purchase from a vendor. The WCD may then receive the user's directive to order an item from the vendor. In response, the WCD may obtain data stored at a transponder in proximity to the WCD that indicates a location of the WCD. In one example, the transponder may be at a fixed location, such as by being affixed to a fixed object at a venue (e.g., a stadium seat), in which case the stored data may indicate the fixed location. The WCD may then send an order for the item and the obtained data to the vendor. In turn, the vendor may use the data to determine a location of the WCD and then deliver the item to the determined location.

Abstract: A wireless communication system serves a first wireless device with a first access node using a frequency band and serves a second wireless device in an adjacent cell with a second access node that uses the same frequency band. The communication of a first resource block is scheduled between the first wireless device and the first access node. The communication of a second resource block between the second wireless device and the second access node is also scheduled. The scheduling of the first resource block and the second resource block correspond in time and frequency. The first resource block is encoded with a first orthogonal code from a family of orthogonal codes. The second resource block is encoded with a second orthogonal code from the family of orthogonal codes. After encoding, the first resource block and the second resource blocks are transmitted using the frequency band.

Abstract: Methods and systems for reducing interference between base stations are disclosed herein. In accordance with an example method, a first base station iterates through emitting of a plurality of different radiation patterns from the first base station. The first base station also receives, from a second base station, feedback based on evaluation by the second base station of noise floor respectively for each of the different radiation patterns emitted from the first base station. Based on the received feedback, the first base station then sets itself to operate with a particular one of the radiation patterns. Example base stations and communication networks operable to perform the disclosed methods are also disclosed.

Abstract: Methods and systems are provided for using packet-transport metrics for setting DRCLocks. In an embodiment, an access node provides packet-data service to access terminals, which comprises (a) providing wireless service over an air interface in a wireless coverage area and (b) providing transport service over a packet-data network. The access node measures, over at least the packet-data network, each packet-transport metric in a set of one or more packet-transport metrics. The access node sets a DRCLock for at least one of the access terminals based at least in part on the one or more measured packet-transport metrics.

Abstract: A UE may be configured to support wireless communication in two or more frequency bands. In some embodiments, the UE initiates a first wireless communication session in a first frequency band of the two or more frequency bands, and in response to initiating the wireless communication session in the first frequency band, the UE prevents itself from communicating in a second frequency band of the set of two or more frequency bands until the first wireless communication session has ended. Some embodiments further include subsequently enabling the UE to communicate in the second frequency band of the set of two or more frequency bands in response to ending the first wireless communication session in the first frequency band.

Abstract: In systems and methods of selecting a sub-band, a first sub-band and a second sub-band of an access node are selected, and is it determined that an intermodulation product of the first sub-band and the second sub-band overlaps with a carrier band of the access node. A transmission of data is scheduled on the second sub-band when a power of the intermodulation product of the first sub-band and the second sub-band does not meet a power threshold.

Abstract: A base station is configured for latency-based contention free preamble reuse. The base station determines the latency between it and each of a plurality of neighboring stations and, in response to receiving two different handover requests for two different UEs from two different neighboring base stations, the base station assigns one contention free preamble for use by both of the two UEs based at least in part on respective latencies from the base station to each of the two different neighboring base stations.

Abstract: Disclosed herein is a method and corresponding system for management of neighbor scanning in a cellular wireless communication system. A radio access network (RAN) sends, and a mobile station receives, a neighbor list update message (NLUM) containing a plurality of different neighbor lists. The mobile station then selects one of the neighbor lists based on a determined first rank-ordering of its active set members. Once the mobile station selects one of the neighbor lists, the mobile station scans the neighbors listed in the selected neighbor list in accordance with the selected neighbor list. If the mobile station detects a change in rank-ordering from the determined first rank-ordering to another rank-ordering, the mobile station may select and transition to another one of the neighbor lists and may begin to scan the neighbors listed in the selected other neighbor list in accordance with the selected other neighbor list.

Abstract: A UE gauges how many UEs are currently served in each of various coverage systems, by evaluating downlink control channel signaling in each coverage system to determine from the control signaling an extent to which the signaling provides for UE scheduling and to establish a corresponding relative measure of an extent to which the coverage system is serving UEs. In an example implementation, this evaluation may involve eliminating from consideration any control channel signaling that is not associated with UE scheduling, so as to determine by exclusion an extent to which the downlink control channel signaling is associated with UE scheduling. The UE then compares such relative measures of the various coverage systems as a basis to select a coverage system in which to operate, such as by favoring operation in the coverage that thereby seems to be serving the fewest number of UEs.

Abstract: Methods and systems are disclosed herein that may be used to share transmit-power information between mobile stations. An exemplary method involves a first mobile station: (i) determining a verified transmit power (VTP) for the first mobile station; (ii) using the VTP to generate a transmit-power message, wherein the transmit-power message is usable to determine an initial transmit power (ITP) for the second mobile station; and (iii) the first mobile station sending the transmit-power message to at least the second mobile station. For instance, the first mobile station may set the ITP for the second mobile station equal to the VTP for the first mobile station, and include an indication of the ITP in the transmit-power message.