Abstract: A method and apparatus to restore always on connectivity to user equipment, the method having the steps of: monitoring whether the user equipment has transitioned to a network that supports concurrent voice and data; performing, upon the monitoring step detecting the transition, a routing area update; checking whether the user equipment was in a voice call at the time of the transition, and if yes, sending a data packet to the network.

Abstract: Systems and methods that provide a mechanism to relocate functions from one gateway to another gateway in a wireless communication network are disclosed. The gateway can implement an access service network (ASN) gateway in a WiMAX based network with a number of functionalities co-located on the gateway such as an authenticator, an anchor FA, an anchor DPF, a PMIP client, and a prepaid client. These functionalities can then be relocated from a first ASN gateway to a second ASN gateway. The proposed system and method reduces the messaging needed for the relocation and the number of components in the network, which can save capital and operating expenses. Additionally, the reduced messaging can reduce latency and delay in the process of relocating, which saves bandwidth and increases the level of service provided to the user.

Abstract: A network component for a cellular network. The cellular network includes a plurality of access nodes covering a cell area and an access control node common to all access nodes for controlling the provision of traffic. The network component includes a communication manager and a classifier for classifying users of the cellular network into a first group of users and a second group of users. The communication managers checks if a call or an SMS is set up by a user belonging to the first or second group of users, takes control over calls and/or SMSs set up between users of the first group of users, and passes control to the access control node of the remaining calls and/or SMSs.

Abstract: A method for increasing wireless networking speed is for use between an electronic device equipped with a wireless networking device and a wireless network having a group of wireless network base stations. The method includes the steps of: (A) providing the wireless network apparatus with two medium access control (MAC) addresses so as to simulate two wireless network cards; (B) selecting, from among the group of wireless network base stations, two wireless network base stations respectively for the wireless network cards; and (C) making the electronic device simultaneously communicate with the two wireless network base stations using the wireless network cards.

Abstract: The present invention discloses a method and an apparatus for handover preparation. The method includes: receiving, by a DeNB, a first handover request message sent by an RN; obtaining, by the DeNB, the first target cell identifier, and instructing a base station to which the first target cell belongs to perform handover preparation in the first target cell; receiving, by the DeNB, a second handover request message sent by the RN; and when a base station to which the second target cell belongs is different from the base station to which the first target cell belongs, instructing, by the DeNB, the base station to which the second target cell belongs to perform handover preparation in the second target cell. Embodiments of the present invention further disclose corresponding apparatuses.

Abstract: This disclosure sets forth methods and devices for communication between mobile devices and base stations with active and dormant states. In an embodiment, a base station transmits system information during an active state of the base station with at least one system-information message. The at least one system-information message includes a SystemInformationBlockType1 (“SIB1”) message with a first update-indicator field. The base station selects an update value that indicates whether the system information has changed since a previous transmission of a previous SIB1 message. The base station transmits at least one dormant-state message during a dormant state of the base station with the selected update value in a second update-indicator field of the at least one dormant-state message.

Abstract: A network access node selects one chunk of spectrum from a plurality of chunks of spectrum to be a primary chunk for a particular cell; transmits in the primary chunk from a broadcast channel BCH that contains information needed by a terminal to at least perform initial cell access; and uses a synchronization channel SCH to indicate which chunk of the plurality of chunks is the primary chunk. A user equipment receives a SCH in a particular chunk of spectrum; determines from it that one chunk is a primary chunk for a particular cell; tunes its receiver to a BCH in the primary chunk and uses information received on the BCH to obtain initial access to the particular cell. In various embodiments the SCH is only in the primary chunk or the SCH has some indication (e.g., cell ID or relative position of primary chunk) telling which chunk is primary.

Abstract: A relay node of a communication system includes a communication unit that initiates a session by executing an initial connection procedure for retrieving a cell list indicating one or more donor base station candidates from a maintenance node after establishment of an initial communication link among the relay node, a base station, and a switching center, and for establishing a communication link to a donor base station in the cell list and a switching center connected to the donor base station; a storing unit that stores the cell list; and a reconnection control unit that selects, when a radio link with the donor base station is lost, a donor base station satisfying a predetermined criterion in the cell list, and that causes the communication unit to establish a communication link to the selected donor base station and a switching center connected to the selected donor base station.

Abstract: A method and system for monitoring an output of an electronic processing component which detects an out-of-range value in the output of the electronic processing component during one time period during which one channel of input channels of a time multiplexer provides an input signal to the electronic processing component. Corrective actions are performed based on the detected out-of-range value. The corrective actions including excluding further multiplexing of signals from the one channel of the input channels.

Abstract: A method of handling system information reception for a mobile device having a plurality of connections to a plurality of cells in a wireless communication system comprising a network, the method comprises receiving a radio resource control (RRC) message indicating that one of the plurality of cells is a serving cell from the network, determining the cell indicated by the RRC message as the serving cell of the mobile device, and applying system information of the serving cell.

Abstract: Disclosed are a base station and mobile station to adaptively control a bandwidth of a channel. The base station includes a state information recognition unit to recognize neighboring-state information related with a traffic load of at least one neighboring network adjacent to a target network, a control state information transmitting unit to transmit control state information related with the controlled bandwidth of the target channel to mobile stations of the target network, and a bandwidth control unit to control a bandwidth of a target channel used in the target network according to a bandwidth of a channel used in the neighboring network based on the neighboring-state information.

Abstract: A method for transitioning communications of a mobile subscriber station from a serving base station to a target base station includes receiving from the mobile subscriber station a transition request message having an identifier which identifies the mobile subscriber station, and transmitting a transition request notification message having the identifier to the target base station. The method further includes receiving a transition request notification response message having information relating to capabilities of the target base station, and transmitting a transition response message having the information to the mobile subscriber station.

Abstract: A mobile communication method according to the present invention includes the steps of: when a gateway apparatus (S-GW) is switched from a first state where downlink data is transmitted to a first radio access apparatus to a second state where the downlink data is transmitted to a second radio access apparatus, transferring, from the first radio access apparatus to the second radio access apparatus, the downlink data which is received from the gateway apparatus and to which specific information is added; and transmitting, from the second radio access apparatus to a mobile station (UE), transfer downlink data which is transferred from the first radio access apparatus and to which the specific information is added, before new downlink data transmitted from the gateway apparatus (S-GW).

Abstract: A system and method for optimizing handover parameters for a plurality of mobile terminals on a common transportation platform in a cellular network includes at least a first terminal and a second terminal and a controller. The controller is configured to determine that each of the first and second terminal are on the common transportation platform, monitor a status of a handover attempt of the first terminal, and if the handover attempt is successful, adopt handover parameter settings of the first terminal for the second terminal, and if the handover attempt is not successful, change handover parameter settings for the second terminal.

Abstract: A master monitor/control (“M/C”) unit selects a base station controller (“BSC”) to serve a mobile radio base station (“RBS”). In one embodiment, the master M/C unit is configured to monitor and assess performance parameters of a communications link between the mobile RBS and a serving BSC and alternative communications links between the mobile RBS and a plurality of other BSCs. The master M/C unit is also configured to determine if the performance parameter of an alternative communications link between the mobile RBS and one of the plurality of other BSCs is better than the performance parameter of the communications link between the mobile RBS and the serving BSC, and select the one of the plurality of other BSCs as an alternative BSC accordingly. The master M/C unit is also configured to provide a new configuration for the mobile RBS and the alternative BSC to enable the alternative communications link therebetween.

Abstract: A method for reducing a delay in a wireless communications system resulting from a handoff while mitigating a risk of premature termination of wireless communications, the method includes comparing data indicative of actual use of the wireless communications systems to at least one predetermined criteria. If the comparing determines a sector pairing in the wireless communications system to be statistically significant for purposes of recommending at least one search window setting, at least one value related with a distance associated with the sector pairing may be used to automatically determine a corresponding signal delay. If the corresponding signal delay exceeds a prior determined signal delay, a recommended search window setting may be determined using the corresponding signal delay.

Abstract: A method of handling cell change for a mobile device compatible with a plurality of radio access technologies (RATs) including a first RAT supporting reception and transmission on a plurality of component carriers and a second RAT supporting reception and transmission on a single component carrier, in a wireless communication system, the method includes determining that cells using the first RAT have higher priority for cell selection or cell reselection than cells using the second RAT.

Abstract: A method and apparatus for efficient open loop power control in a packet data mobile communication system using Frequency Division Multiple Access (FDMA) is provided. The method includes receiving pilot signals from a scheduling cell that schedules a mobile station and neighboring cells located adjacent to the mobile station; calculating a number of neighboring cells having pathlosses that are less than a threshold; calculating a target Signal-to-Interference Ratio (SIR) of the mobile station using the number of neighboring cells having pathlosses that are less than the threshold; measuring a pathloss of the scheduling cell and calculating uplink transmission power using the measured pathloss of the scheduling cell and the calculated target SIR; and transmitting data with the calculated transmission power.

Abstract: A method for handover in a telecommunication system is disclosed. The method determines a traffic time pattern in a handover situation where a user equipment is handed over from a source cell to a target cell in the telecommunication system. History information relating to a traffic time pattern used in the source cell by the user equipment being handed over is forwarded from a controller node of said source cell to a controller node of said target cell. In the target cell, a traffic time pattern to be used by said user equipment in said target cell after the handover is estimated by taking into consideration at least said history information.

Abstract: Methods and apparatus are described herein to manage a serving cell change. Timers are used to monitor one or more cells which become stronger relative to a cell which is currently the best cell. These one or more cells may be referred to as pending best cells. Further, in some aspects, additional timers can be started for any cell relative to any pending best cell when the respective cell becomes stronger than the respective pending best cell.

Abstract: A base station device includes a processing unit that performs a base station process on a mobile terminal and a core network device; a cellular communication unit for connection to the mobile terminal; and a connection control unit, wherein the cellular communication unit receives a connection request message for connection to an external network from the mobile terminal, the base station processing unit replaces an access point name of the connection request message with “APN-L” and transfers the connection request message to a mobility management entity when the access point name indicating a local network is other than APN-L, and the connection control unit performs a radio bearer setting process between the mobile terminal and the connection control unit, based on a context setup request message in which the “APN-L”, having a bearer established, received from the mobility management entity is stored.

Abstract: A method for minimizing handoff latencies when a handoff is performed in a wireless network. An access point (AP) or base station associated to a current wireless station (STA) allows information required for a reassociation to the STA to be propagated to handoff-capable neighboring APs or base stations. When the STA moves, a neighboring AP or base station performs the reassociation to the STA on the basis of context. When a handoff procedure is performed, the time taken to receive context of a corresponding STA is reduced, such that a fast handoff can be implemented.

Abstract: Systems, methods, devices, and computer program products are described for supporting macrocell-to-femtocell hand-ins of active macro communications for mobile access terminals. A femto-proxy system is provided including a femtocell and an out-of-band (OOB) proxy. While the femtocell may be addressed by the macro network according to a potentially non-unique identifier (e.g., its PN offset), the OOB proxy is addressable according to a unique OOB identifier (e.g., a Bluetooth device address, BD_ADDR). When the mobile access terminal is in proximity to the femto-proxy system, it detects the OOB proxy and communicates the unique OOB identifier to the core network via the macro network (e.g., as part of a measurement report). The OOB identifier is mapped (e.g., in the core network) to the femtocell, allowing the core network to uniquely identify the appropriate target femtocell for active hand-in.

Abstract: The various embodiments provide methods, devices, and systems for conserving power by controlling a first radio based on a second radio. In various embodiments, the first radio may be generally on or periodically on, and in communication with or attempting to establish connections with a first radio network. The device may determine whether to energize or turn on a second radio to connect with a second radio network based on one or more connections or the absence of connections established by the primary radio. This determination may be further based on various factors, such as a beacon or identifier sent over a primary radio connection, information obtained from or regarding the first radio network, one or more data structures stored within the device, or previously recorded states of the device.

Abstract: Described embodiments provide a method of a circuit switched (CS) fallback procedure at a first network providing only a packet switched (PS) service. A CS fallback procedure may be initiated upon a receipt of a call associated with a CS service. One of carriers assigned to a second network that provides a circuit switched (CS) service may be selected. Then, a second network cell mapped to a serving cell of the first network and using the selected carrier may be selected as a target cell. The user equipment may be handed over o to the selected second network cell in order to provide a requested CS service.

Abstract: The radio communication system has a radio base station, a radio relay station connectable to the radio base station, and a radio terminal configured to connect to the radio base station. The radio base station notifies the radio terminal of identification information for a predetermined number of relay stations based on the number of radio relay stations that can be simultaneously connected to the radio base station. When the radio relay station is connected to the radio base station, identification information for any one of the relay stations is assigned to the radio relay station. The radio terminal performs a cell search based on the relay station identification information.

Abstract: Systems and methodologies are described that facilitate soft handoff and enhanced performance in a wireless communication environment. In multiple access systems, access points assign certain resources (e.g., time, frequency, code) to each terminal. This assignment information can also be provided to neighboring sectors, allowing such sectors to receive and decode terminal transmissions. The information can be provided via backhaul signaling. Decoding by sectors within the active set of the terminal facilitates smooth transition as terminals move between sectors during soft handoff. In addition, sectors can signal successful receipt and decoding of transmissions, avoiding redundant processing.

Abstract: A wireless, multi-modal access device and system adapted to integrate a number of communications networks operating in differing communication modes to facilitate transfer of communication links during a communication session to promote efficient use of the communication networks. The system includes a plurality of Universal Multi-Modal Access Devices UMMAD that are capable of operating at different frequencies and different protocols (TDMA, AMPS, CDMA, GSM, PCS etc) to communicate with any one of a number of Wide Bandwidth Gateways (WBG), which are each capable of communication using one or more of the protocols. The communication links may be switched from one WBG to another or from one protocol to another during a communication session to continue the session under the control of a Universal System Traffic Controller. Numerous other applications of the UMMADs for unique identification and e-commerce are disclosed.

Abstract: A mobile communications system including a network with a source network node and a target network node that supports a handover procedure, and a mobile terminal that is allowed to access the source network node and access the target network node according to the handover procedure, in which information related to a reception status of user data is delivered between at least two among a group including the mobile terminal, the source network node, and the target network node such that the target network node may receive status information from the source network node and the target network node may receive a status report from the mobile terminal.

Abstract: Provided is a handover originating base station which transmits data to a handover destination base station, for performing mobile communication terminal handover in a mobile communication system. The handover originating base station is provided with a means for transmitting data whose transmission is not confirmed by a communication terminal, with information which indicates data transmitted just before.

Abstract: Certain aspects of the present disclosure provide methods and apparatus that may help alleviate load conditions by taking action to select one or more mobile stations (MSs) for handover to a neighbor base station are provided.

Abstract: A method of sending status information (STATUS PDU) in which a receiving side reports a data received state to a transmitting side in a mobile telecommunication system. A receiving side radio link control (RLC) entity considers an available radio resource to construct a status PDU fit to a size of the available radio resource and then sends the constructed status PDU to a transmitting side RLC entity, thereby avoiding a deadlock situation of RLC protocols.

Abstract: A network controller including processing circuitry may be configured to receive dynamic position information indicative of a three dimensional position of at least one mobile communication node, compare fixed position information indicative of fixed geographic locations of respective access points of a network to the dynamic position information to determine a relative position of the at least one mobile communication node relative to at least one of the access points based on the fixed position information and the dynamic position information, and provide network control instructions to at least one network asset based on the relative position.

Abstract: The invention relates to a method of inter base station communication comprising: —receiving a first message (118) being indicative of a neighboring second base station (2) by a first base station (1), —sending a second message (120) to the second base station, —in response to the second message, receiving a third message (124) comprising information being indicative of at least a third base station (3), the third base station being a neighbor of the second base station, using the information received with the third message for enabling communication (128) between the first base station and the third base station, independently of any user equipment detection of the third base station.

Abstract: Provided is a base station that includes a cell that defines an area in which the base station can communicate with a mobile terminal by wireless. The cell is arranged adjacently to the other cell of another base station. The base station includes communication unit 70 that communicates with the other base station, and system information processing unit 40 that simultaneously broadcasts pieces of system information to the mobile terminal currently engaged in communication in the cell. Upon receiving, from the mobile terminal currently engaged in communication, information indicating that the mobile terminal is located in an adjacent area of the cell adjacent to the other cell, system information processing unit 40 acquires, from the other base station via communication unit 70, other system information currently broadcast in the other cell, and transmits the acquired other system information to the mobile terminal currently engaged in communication.

Abstract: Overlay handover is generally presented. In this regard, a method is introduced including storing a broadband wireless network composite signal in a sample buffer, processing the sample buffer using subcarriers associated with a serving base station to determine a bandwidth grant from a first MAP, and reprocessing the sample buffer using subcarriers associated with a neighboring co-channel base station to determine a bandwidth grant from a second MAP. Other embodiments are also described and claimed.

Abstract: A radio terminal (10) includes an MIH user (14) configured to manage mobility from the first network to the second network; and an MIH function unit (13) configured to control a handover from the first network to the second network. The MIH user (14) notifies a link controller (12) via the MIH function unit (13) of a condition setting request including a first judgment logical formula being a condition to start an establishment of a radio link with the second network and a second judgment logical formula being a condition to execute a handover from the first network to the second network. The first judgment logical formula and the second judgment logical formula each indicate a combination of thresholds to be satisfied by a plurality of respective link is parameters in the radio link established with the first network.

Abstract: A system and methodology that can utilize measurement data collected by a set of femto access points (FAPs), during a network listen procedure, to detect one or more areas with weak macro network coverage and/or high interference. Moreover, an automatic cell planning (ACP) component can be employed to analyze the measurement data and update a transmission parameter(s) associated with a macro access point. After the update is implemented, the ACP component can trigger another network listen procedure at the set of FAPs and receive new measurement data. The ACP component can evaluate the new measurement data to dynamically verify that the implementation of the update resulted in an improvement of macro network coverage and/or interference within the one or more areas.

Abstract: Embodiments of systems and methods for cell selection in a wireless network are generally described herein. Other embodiments may be described and claimed.

Abstract: A method and an Evolved Node Base-station (eNB) for avoiding an occurrence of a ping-pong handover between adjacent cells are provided. The eNB comprises: a statistics module, a storage module, a judging module and a parameter adjusting module. The method includes: during a statistics period, eNBs serving two adjacent cells involved in a ping-pong handover, making a statistics on times of the serving cell of the eNB being used as a source cell and a target cell in a second handover in a process of each ping-pong handover occurring between the two adjacent cells respectively; upon the end of the statistics period, if the eNB determines that the times of the serving cell of the eNB being used as the source cell in the second handover is greater than the times of as the target cell, the eNB increasing a value of a handover control parameter of this serving cell.

Abstract: A networked computing system for assigning regional wireless communications based on ancillary device feedback. The network computing system includes a radio communications controller, one or more transceiver device(s), user equipment, and data communications network facilitating data communications amongst the wireless communications devices of the networked computing system. The radio communications controller may be configured to receive a feedback communication from a network transceiver device capable of detecting ancillary wireless communications, and then determine whether an alternate service provider resource exists for providing wireless data communications service to the user equipment within the data communications network, based on the received feedback communication.

Abstract: A first handoff is for an inter-AN cell selection where a source AN allows the AT to add a cell under the control of a different AN to its active set and then allows the AT to switch to the target AN. A bearer path is established between the source and target AN to transfer the data traffic using an exchange of messages to register the AT's movement from one BTS to another BTS. The A8/A10 connections remain anchored at the source AN so a bearer path is needed between the source and target AN to transfer the data traffic. The second handoff occurs when the source AN specifies a move of the AT to a new AN proactively. New connections are established at the target AN to support the AT, and the AT is subsequently moved to the target AN via the relevant air-interface messaging.

Abstract: The transmission of data from base stations to users (and their devices) in a wireless network is made using proportional fairness without sacrificing throughput by taking in to account fairness considerations at the time the devices are associated with a base station.

Abstract: A relay node (110) for a radio access network (100), arranged to be a relay node between one or more User Equipments (105) in a cell (125) of the radio access network and a base station (115) serving the cell. The relay node (110) is arranged to identify itself as a relay node in the cell (125) in the radio access network (100), and is also arranged to receive a non-support indication indicating that the base station serving the cell (125) is unable to support a relay node. The relay node (110) is arranged to, upon receiving said non-support indication, attempt to establish itself as a relay node in another cell.

Abstract: Methods, apparatus and computer program products perform signal quality measurements for signals from a plurality of cells served by an apparatus, and transmit indications of the signal quality measurements to the apparatus. The signal quality measurements may include CQI measurements. Transmitting may include transmitting indications of the signal quality measurements to a source cell of the apparatus. Other methods, apparatus and computer program products perform signal quality measurements for signals from a plurality of cells served by an apparatus, determine, using at least the signal quality measurements, a frequency band to be used by each of the plurality of cells to transmit a command, and transmit an indication of the frequency band to the apparatus. Variants may include receiving over the frequency band the command from each of the plurality of cells.

Abstract: A GSM or UMTS mobile telecommunications network is disclosed. In addition to the conventional radio access network comprising macro base station, one or more additional access points are provided. The access point is connected to the network core by an IP transport broadband connection. The access point is configured to appear to the mobile terminal as a conventional base station—that is, it communicates with the mobile terminal using GSM or UMTS transport protocols and does not require any modification to a standard GSM or UMTS mobile terminal. A subscriber may be provided with a designated “home” access point to provide coverage in their premises. Arrangements are described which will tend to reduce the likelihood that reselection to the macro base station while radio coverage is available from the home access point.

Abstract: Methodologies are described that facilitate inter-eNode B handover. In various embodiments, logical protocol termination can be implemented between the user equipment and the target eNode B for inter-eNode B handover signaling. The provided handover forwarding and encapsulation mechanisms enable improved inter-operability between eNode Bs implementing different protocol versions or from different vendors, which in turn enables frequent protocol upgrades. Additionally, the invention enables the target eNode B to implement new radio configurations even if the configuration is unsupported by the source eNode B.

Abstract: A method of controlling handover in wireless cellular networks of user equipment in a first cell unit which is to be disabled to a second cell unit which is to provide extended coverage for the, or part of the, first cell unit, where the cell unit of the first and second cell units is a cell or a cell sector, including selecting a part of the signal bandwidth or time-frequency resource units, previously designated for use in normal operation by the second cell unit, which does not overlap with that to be used by the first cell unit during the handover; and designating the selected part for use by the user equipment to be handed over from the first cell unit.

Abstract: An operating method, a base station, and terminal of a cell of a first communication system for a handover between the first communication system and a second communication system are provided. The method includes, when a terminal initiates a handover between the first communication system and the second communication system, transmitting, by the base station, a message, requesting to measure a signal level of a downlink, to the terminal, when a signal level measured by the terminal falls below a preset threshold, requesting, by the base station, a handover to the second communication system over a core network, receiving, by the base station, a message, including radio channel parameters the that is required when the terminal accesses to the second communication system, from the second communication system, and forwarding, by the base station, the message, including the radio channel parameters of the second communication system, to the terminal.

Abstract: The disclosure provides an X2 handover method and device, the method comprises: after sending a Handover Request Acknowledge message, a target eNB sets, for handed-over UE, a flag for indicating whether or not a Sequence Number Status Transfer message is received and sets the flag to be ‘not received’; and after receiving an RRC Connection Reconfiguration Complete message, the target eNB directly sends a Path Switch Request message to a core network without determining whether or not the Sequence Number Status Transfer message is received. With the technical scheme provided in the disclosure, the problem in the current X2 handover is solved that handover delay is increased as an RRC Connection Reconfiguration completion message is received by a target side prior to a Sequence Number Status Transfer message, thus simplifying the processing of a target eNB and increasing handover speed.