Method for transferring packet data in wireless network and base station controller |
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IPC classes for russian patent Method for transferring packet data in wireless network and base station controller (RU 2490810):
   
 Method of determining location from encoded signals representing said location / 2490714
In the method, for a location fixing point, a candidate node existing in a second digital map is identified, and using fixing point attributes; one candidate line or candidate segment of the second digital map, originating from or identical to said candidate node, is identified; route search is performed within the second digital map between one candidate node and the corresponding candidate line or candidate segment, originating therefrom or identical thereto, and one candidate node for the next location fixing point found in a list, and the corresponding candidate line or candidate segment, originating therefrom or identical thereto, and each line or segment is extracted from said second digital map, which form part of the route defined between said candidate nodes for a successive pair of location fixing points up to and including the final location fixing point found in the list.
 Method and apparatus for automatic application selection in electronic device using multiple discovery managers / 2489813
Said automatic selection of one of the near field communication applications is performed by a protocol discovery manager and an application discovery manager. The application discovery manager is located within a default execution environment. The protocol discovery manager, which operates in a near field communication circuit controller, performs application discovery at the mode switch level, the collision detection level and the protocol level. The application discovery manager performs application discovery at the application level. Upon selecting an application, the application discovery can either launch the application or forward a message to the appropriate execution environment for further execution as required by the selected application.
 Method and apparatus for providing voice call in mobile communication and said system / 2489812
Method for providing a voice call service over a Circuit Switching (CS) domain by a Mobile Management Entity (MME) to User Equipment (UE) that was receiving a service in a Packet Switching (PS) domain in a mobile communication system, comprises steps of: sending a paging message to an evolved Node B (eNB) in the PS domain to provide a service in the CS domain to the UE; receiving from eNB, a report message indicating that the UE has switched to the CS domain, if the UE is located in the CS domain; and sending to a gateway in the PS domain, a suspend request message requesting suspension of the service being provided to the UE in the PS domain.
 Method of allocating radio resource / 2489811
Method includes steps of: receiving space division multiple access (SDMA) information from a responding station for SDMA transmission from a requesting station, the SDMA information including an address field and a first number field, the address field indicating the responding station, the first number field indicating a first number of spatial streams; and transmitting, by the responding station, feedback information to the requesting station, wherein the feedback information includes channel information in accordance with the first number of spatial streams.
 Method and apparatus for controlling sleep mode operation in communication system / 2489810
Sleep mode operates according to a sleep cycle including a listening window corresponding to an awake mode and a sleep window corresponding to a sleep state. The method includes starting a preset timer if there is a transmission of data between a mobile station (MS) and a base station (BS) during the listening window, restarting the timer upon receiving at least one acknowledgement (ACK) in response to uplink (UL) data, downlink (DL) data and control information indicating resource allocation from the BS during the listening window, maintaining the listening window until the timer expires, and transitioning to the sleep window if the timer expires.
 Timing and cell specific system information handling for handover in evolved utra / 2489809
Method for handover in a wireless transmit receive unit (WTRU) includes: receiving a handover signal, the handover signal including configuration information except a system frame number (SFN), a first evolved Node B (eNB) associated with a target cell, from a second eNB associated with the source cell; initiating reception and processing of a first primary broadcast channel (P-BCH) of the first eNB after receiving a handover command; performing configuration, at least partly, in that degree when SFN of the first eNB is still required; receiving the SFN of the first eNB; and further configuration using the SFN of the first eNB.
 Wireless transmission apparatus and mac frame transmission method / 2489808
Transmission device, which serves as a layer-2 switch (L2SW) or router, includes a MAC frame transmission device and a radio transmission device with an adaptive modulation function, which switches radio transmission capacity in response to fluctuations of quality of radio transmission lines. The radio transmission device determines a modulation method based on reception power of a reception signal transmitted from the radio counterpart station, wherein the modulation method is multiplexed with a PAUSE frame, which is then sent to the MAC frame transmission device. The MAC frame transmission device detects a current radio transmission capacity from the PAUSE frame, selects QoS setting suited to the radio transmission capacity from among a plurality of QoS settings, and performs a control operation based on the selected QoS setting with respect to a LAN signal from the user network. The radio transmission device modulates and transmits the LAN signal to a radio counterpart station.
 Radio communication system and method / 2489807
Radio communication system includes an base packet network 100, a 3G network 200 and a mobile station 10 connectable to an external network 300 via a base packet network 100 or the 3G network 200. A handover unit is configured to control handover from the base packet network 100 to the 3G network 200. The number of EPS bearers which can be set up with the mobile station 10 and the base packet network 100 is larger than the number of PDP contexts which can be set up with the mobile station 10 and the 3G network 200. The handover unit controls handover in accordance with the number of the EPS bearers already set up with the mobile station 10 and the base packet network 100 and the number of the PDP contexts to be newly set up with the mobile station 10 and the 3G network 200.
 Method for network management by assistance from terminal using control-plane signalling between terminal and network / 2488982
Network and a device exchange network management information, thereby supporting a self organised network (SON) architecture for improved network management and optimisation A non-access stratum (NAS) layer protocol and/or an internet protocol (IP) application are used to exchange network management information between devices and the network. Various procedures can be utilised to install a SON policy in a device in order to define the operating mode of the device for such operations as collecting and reporting information related to network management. Additionally, a set of standardised events can be defined, based on which a device can detect the occurrence of an event and report the occurrence to an associated network.
Method for network management by assistance from terminal using control-plane signalling between terminal and network / 2488982
Network and a device exchange network management information, thereby supporting a self organised network (SON) architecture for improved network management and optimisation A non-access stratum (NAS) layer protocol and/or an internet protocol (IP) application are used to exchange network management information between devices and the network. Various procedures can be utilised to install a SON policy in a device in order to define the operating mode of the device for such operations as collecting and reporting information related to network management. Additionally, a set of standardised events can be defined, based on which a device can detect the occurrence of an event and report the occurrence to an associated network.
 Base station, mobile station, communication system and reordering method / 2486685
Data are sent from a handover source base station to a mobile station notifying that transference of packets has been executed during execution of handover sequence if the handover source base station transfers to the target handover base station packets which were not sent to the mobile station, from packets received from a host station, and the target handover base station sends packets to the mobile station. The mobile station reorders the received packets if transference of packets has been executed.
 Method and system for controlling electronic mail message collection / 2485706
Electronic mail message collecting system has an internal interface and an external interface for managing message collection, as well as a collection module through which given source mail boxes are periodically checked and if there are messages present, the messages are forwarded to a common recipient box. The mail collection function is available for both authorised and unauthorised, as well as unregistered mail system users.
 Method and system to identify network protocols based on description of client-server interaction / 2485705
Method of network protocols identification on the basis of a description of client-server interaction contains a description of available protocols of client-server interaction, collection of data on a bidirectional network interaction between the client and the server, simultaneous identification of packets related to multiple sessions of bidirectional interaction between the client and the server by identified protocols, analysis of parameters and the sequence of interaction of client-server components, identification of network protocols, according to which the client-server interaction is carried out.
 Four-port backup device for coupling of circular networks of communication network / 2485704
Four-port backup device (FPBD), comprises two switchboards (2) of data packets, every of which is connected to the other switchboard (2) and with two ports (3 and 4), designed for connection into the first and second circular communications networks, and a clock synchronisation unit (5). To the unit (5) the outlets of two receivers (6) and (7) are connected, as well as inlets of two transmitters (8) and (9), designed for the first circular network, outlets of two receivers (10 and 11), inlets of two transmitters (12 and 13), designed for the second circular network, and the outlet of the receiver (14) of the external synchronisation signal. The unit (5) is made as capable of generation of a clock signal synchronised with output signals of receivers with introduction of a fixed delay of an output signal for each receiver, issue of a generated signal to inlets of transmitters, and as capable of translation of output signals of receivers to inlets of transmitters designed for the identical network. The device is equipped with a configuration interface (15) as capable of setting the receivers and transmitters of the synchronising signal, delay values of output signals of receivers and permit or prohibition of transmission of output signals of receivers to inlets of transmitters.
 Three-port backup device for ring communication network / 2484593
Three-port backup device (1) has a data packet switch (2) connected to a port (3) for connecting to an intelligent electronic device, and with two ports (4) for connecting to a ring communication network, and a clock synchronisation unit (5). The unit (5) is connected to outputs of receivers (6), (7) and inputs of transmitters (8) and (9) for connecting to the ring communication network, the output of a receiver (10) for external synchronisation and the input of a transmitter (11) for connecting to an intelligent electronic device. The unit (5) is configured to generate a clock signal which is synchronised by output signals of receivers with introduction of a fixed delay of the output signal for the receiver, transmitting the generated signal to inputs of transmitters, and transmitting signals between receivers and transmitters. The three-port backup device is provided with a configuration interface (12) capable of assigning receivers and transmitters a synchronisation signal, delay values of output signals of receivers and allowing or prohibiting transmission of signals between receivers and transmitters.
 Apparatus for detecting and eliminating faults when transmitting binary signals over two optical channel lines / 2484521
Apparatus has a first unit for relaying signals in a channel, having an optical signal coupler and a switch for selecting channel lines, which consists of four interconnected optical switches, and a second unit for detecting, allowing or prohibiting passage of external signals to the first unit, having a first unit for detecting presence of signals in two lines at the same time in the channel, presence of a signal in one line only, absence of signals in both lines during a given time interval, a second unit consisting of four delay elements for external signals, and a third unit consisting of four switches.
 Visual mapping of field device message routes in wireless mesh network / 2483478
Control system uses a wireless mesh network to provide communication between a host computer and field devices. Performance of the wireless mesh network is monitored by collecting network performance data from each node, e.g. nodes with which it is communicating, received signal strengths over links to different nodes, the number of errors occurring on each link, and how frequently communication is occurring with each of the other nodes. A visual network map is generated using performance statistics based on the data gathered from the nodes of the wireless mesh network.
 Message routing platform / 2483457
System for routing messages in a communication network includes a plurality of nodes, each including a plurality of servers connected to each other. Upon receipt of a packet for delivery to an intended recipient by a first server within the plurality of servers of a first node within the plurality of nodes, the system is configured to determine whether the intended recipient is connected to the first server. The packet is delivered if the recipient is connected to the first server. If it is determined that the intended recipient is not connected to the first selected server, the system is further configured to determine whether the packet contains a destination address and forward the packet to the destination address for delivery. If the packet does not contain a destination address, the system forwards the packet to a registry. The registry is configured to query at least one database to obtain the user profile of the intended recipient, and forward the packet to the intended recipient based on information contained in the user profile.
 Method, apparatus and system for service identification / 2483352
Disclosed is a service identification method which comprises steps for receiving a service request, which includes a unified resource locator address and a field for indicating the type of service content from the service request, determining if the unified resource locator address is properly configured, solving the service request in order to identify the type of service from the service request in accordance with the field of the type of service content included in the service request if it is determined that the unified resource locator address is not properly configured, and a request is sent for the server address of the service which corresponds to the identified type of service.
 Networks having multiple paths between nodes and nodes for said network / 2482614
Network (1) having a plurality of nodes (2, 3, 4), the plurality of nodes having a first node (A) and a second node (B), the first (A) and second (B) nodes being connected through the network of nodes (1) via a first path (2) and a second path (3), the first and second paths being different, wherein the network (1) has first and second modes of operation, a first mode (108) in which traffic between the first and second nodes is transmitted over the first path (2) and not the second path (3), and a second mode (106) where the traffic is transmitted over the first (2) and second (3) paths, wherein the network (1) has a mode selector (10) configured to select the mode of operation based on the required level of traffic between the first (A) and second (B) nodes.
 Telecommunication multi-functional multiplexer / 2269154
Multiplexer has system block, wherein four-channeled telegraph one-polar and two-polar modules are positioned, as well as four-channeled standard-joint C2 module, bi-impulse one-channeled and two-channeled modules, one-channeled telephone module, m modules of four-channeled asynchronous adapter, group control electronic board, and also block for adjustment and control, and combination board.
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FIELD: radio engineering, communication. SUBSTANCE: technical key points of the present invention are as follows: before the base station controller receives a message sent by the serving GPRS support node (SGSN) to request the confirmation of a cell update of a mobile station (MS), the packet data of the first cell, initially meant to be sent to the MS, are transferred to a temporary block flow (TBF) between the MS and a second cell, and then sent to the base station (BTS) of the second cell via the TBF and then sent to the MS by the base station of the second cell. EFFECT: effectively reducing packet data loss when a station moves from a first cell to a second cell. 9 cl, 5 dwg
The technical FIELD The present invention relates to the technology of packet data and, in particular, to a method of transmitting packet data in a wireless network to the base station controller of the network. The LEVEL of TECHNOLOGY The packet radio service (GPRS, General Packet Radio Service) is a data service in a global system for mobile communications (GSM, Global System for Mobile Communications). Usually, the wireless network packet data includes one or more subnets, each of which contains a certain number of nodes in the provision of services (SN service node), and in this case, these nodes SN are referred to as serving GPRS support nodes (SGSN, Serving GPRS Support Node). Nodes SGSN can provide packet data for the mobile station (MS, mobile station) using a base station controller (BSC, base station controller). The main functions of the nodes SGSN includes routing and packet forwarding, authentication and encryption, session management, mobility management, management of logical communication lines, as well as the formation and conclusion of phone bills. Usually one controller BSC can control many hundreds of and, respectively, the set of base transceiver stations (BTS, base transceiver station) and is the connection point between the BTS and the mobile switching center communications (MSC, mobile switching centre), and also provides an interface for the exchange of information between the BTS and the center MSC. The main functions of the controller BSC include: control channel, the calling, the establishment and disconnection of lines of communication and management handover station MS in the local SOTE control. Station MS is a user equipment, including devices that are placed on the Board, a laptop or portable device. BTS is a node in a radio access network (RAN, radio access network) in the GSM system and is responsible for the reception and transmission of mobile communication signals in one cell. Within the prior art, when the moving station MS from the first cell to the second cell, after receiving the message, the FLUSH-LL controller BSC selectively forwards the packet data to the first cell, originally rendered in station MS, using a temporary flow blocks (TBF temporary block flow) station MS and the second cell. If the station MS has just moved into the second cell, requires a certain period of time for normal communication with station MS in the second cell, while the controller BSC receives a message FLUSH-LL, in many cases, may be exempted flow TBF station MS and the first cell, which leads to loss of packet data, and strongly influences the exchange of data related to station MS. The INVENTION Cos the main purpose of the present invention is the provision of a method of forwarding a packet data in a wireless network and the controller of the base station of this network to effectively reduce loss of packet data during a move station MS from the first cell to the second cell and to guarantee the normal communication with the station MS. According to one aspect of the present invention proposes a method of forwarding a packet data in a wireless network, including: the movement of a mobile station from the first cell to the second cell; local search controller base station temporary stream blocks the mobile station and the first cell in accordance with the identifier temporary logical communication line (TLLI temporary logical link identifier)that is pre-allocated to the mobile station by the serving support node of the packet radio service General purpose, and receiving packet data to the first cell, originally to be transmitted to the mobile station using the temporary stream blocks the mobile station and the first cell; local search temporary stream blocks the mobile station and the second cell in accordance with the identifier temporary logical lines of communication and the transfer of packet data to a temporary stream of blocks of the mobile station and the second cell; transmitting packet data in a base transceiver station of the second cell by using the temporary stream blocks the mobile station and the second cell before receiving the messages sent by the serving support node of the packet radio service General purpose for confirmation updated the I cell in the mobile station; the transfer base transceiver station of the second cell packet data in a mobile station. Preferably, the method also includes: after the packet data controller of the base station, receiving a message for prompting the honeycomb update in the mobile station, and the said message contains the identifier temporary logical link identifier of the virtual connection Protocol packet radio service General purpose subsystem base station (BVCI, base station subsystem GPRS protocol virtual connection identifier) for the mobile station and the first cell, the identifier of the virtual connection Protocol packet radio service General purpose subsystem base station to the mobile station and the second cell; in accordance with the message for confirmation update cell in the mobile station, transmitting a response confirmation message to the service node support packet radio service General purpose, and a response confirmation message contains the identifier of the virtual connection Protocol packet radio service General purpose subsystem base station to the mobile station and the second cell, as well as information about the volume of packet data. Preferably, the method also includes, after moving mobile station of the PE the howling cell to the second cell, transmitting mobile station base transceiver station of the second cell request message allocation of the radio channel and the transmission base transceiver station of the second cell of the above mentioned request message to the base station controller; the selection controller base station to the new radio channel for the mobile station to establish a temporary stream of blocks of the mobile station and the second cell and the transmission in the base transceiver station of the second cell response message allocation of the radio channel. the transfer base transceiver station of the second cell response message to the mobile station and transmitting mobile station base transceiver station of the second cell of the resource request message containing the identifier temporary logical link, in accordance with the response message, and transmitting the base transceiver station of the second cell of the resource request message to the base station controller. Preferably, the method also includes, after sending the mobile station a request message resource and before reception by the base station controller messages transmitted by the serving support node of the packet radio service General purpose for confirmation update cell in the mobile station, the transfer of the mobile station unit of data is the control Protocol logical link in a serving support node of the packet radio service General purpose these Protocol data unit control logic communication line contains the identifier temporary logical link identifier of the second cell, which is located in a mobile station, and the controller ID of the base station managing the second cell. Preferably, the packet data of the first cell, originally rendered in the mobile station include packet data of the first cell, originally stored in the controller of the base station and be transferred to the mobile station and the packet data transmitted by the serving support node of the packet radio service General purpose in the first cell before initiating forwarding of the packet data. In another aspect, the present invention proposes a base station controller that contains the module packet capture module forwarding the packet data and the module packet data, while the collection module packet data is used for local search temporary stream blocks the mobile station and the first cell in accordance with the identifier temporary logical link, pre-allocated for the mobile station by the serving support node of the packet radio service General purpose, after movement of the mobile station from the first cell to the second cell, and to collect the package, the s data of the first cell, originally to be transmitted to the mobile station using the temporary stream blocks the mobile station and the first cell; module forwarding the packet of data is used for local search temporary stream blocks the mobile station and the second cell in accordance with the identifier temporary logical lines of communication and to transfer the packet data to a temporary stream of blocks of the mobile station and the second cell; the module packet data used for transmission in the mobile station packet data via the base transceiver station of the second cell by using the temporary stream blocks the mobile station and the second cell before receiving the messages sent by the serving support node of the packet radio service General purpose for confirmation update cell in the mobile station. Preferably, the base station controller also contains the first module receiving the message and the first transmission module messages and the first module receiving messages is used to receive messages for confirmation update cell in the mobile station after the transmission of packet data transmission module packet data, and the message for confirmation update cell in the mobile station contains the identifier temporary logical link, identifikatsionnogo connection Protocol packet radio service General purpose subsystem base station to the mobile station and the first cell, as well as the identity of the virtual connection Protocol packet radio service General purpose subsystem base station to the mobile station and the second cell; the first module transfer message is used to transmit the response message of confirmation in the service support node of the packet radio service General purpose upon receipt of a message for prompting the honeycomb update in the mobile station by the first module receiving messages, these response confirmation message contains the identifier of the virtual connection Protocol packet radio service General purpose subsystem base station to the mobile station and the second cell, as well as information about the volume of packet data. Preferably, the base station controller also includes a second module receiving messages, processing module, the second module send the message, and the third module receiving messages, while the second module receiving the message is used to receive a request message allocation channel transmitted by the mobile station via the base transceiver station of the second cell; the processing module is used for allocating a new radio channel to the mobile station in accordance with the request message and to establish a temporary stream blocks the mobile station of the second cell; the second module transfer message is used to send the reply message allocating radio channels in a mobile station via a base transceiver station of the second cell after the establishment of the module processing time stream blocks to the mobile station and the second cell; the third module receiving messages is used for receiving the resource request message transmitted by the mobile station via the base transceiver station of the second cell, after transmission of the response message by the second module to send the message, these resource request message contains the identifier temporary logical link. In the above technical scheme before receiving the message for confirmation update cell in the mobile station controller BSC transports the packet data of the first cell, originally to be transmitted to the mobile station, the flow TBF the mobile station and the second cell, and then use thread TBF the mobile station and the second cell data is transmitted to the BTS station of the second cell, and, finally, the BTS of the second cell transmits data to the mobile station, allowing effectively reduce the loss of packet data during the move, the mobile station from the first cell to the second cell, and ensures the normal data exchange with the mobile station, and also reduces efficient retransmission packet data after the honeycomb update. BRIEF DESCRIPTION of DRAWINGS Figure 1 shows a scenario variant implementation of the present invention. Figure 2 shows a method of transmitting packet data in a wireless network in accordance with the first embodiment of the present invention. Figure 3 shows the structure of a controller of a base station in accordance with the second embodiment of the present invention. Figure 4 shows the effect of using known technical schemes for packet data. Figure 5 shows the effect of using the technical scheme in accordance with the embodiment of the present invention for transmitting packet data. PREFERRED embodiments of the PRESENT INVENTION For a clearer understanding of the purpose, technical scheme and advantages of the present invention variations in its implementation are further described in more detail in conjunction with the attached drawings. It should be noted that the following describes only some, not all embodiments of the present invention. All other embodiments of the invention, implemented by the specialist based on the above scenarios without creative work, are within the claims. Figure 1 shows a scenario variant implementation of the present invention, and Fig shows the way forward packet data in a wireless network in accordance with the first embodiment of the present invention. Figure 1 and figure 2 it is shown that the controller BSC controls station BTS1 of the first cell and the station BTS2 of the second cell, when this station BTS1 and BTS2 are responsible for the reception and transmission of signals in the implementation of mobile communication between the network side and station MS, and the controller BSC is connected to the node SGSN. Controller BSC pre-sets BSSGP virtual connection (BVC, BSSGP virtual connections between station MS and the first hundredth, and between station MS and the second one hundredth and allocates identifiers BSSGP virtual connections (BVCI, BSSGP virtual connection identifier) for the first and second cells. The method in accordance with the first embodiment of the invention includes the following steps: S202: the Moving station MS from the first cell to the second cell and the implementation of a controller BSC local search thread TBF station MS and the first cell in accordance with the identifier TLLI temporary logical link, the pre-selected station MS node SGSN, and collect packet data for the first cell, originally to be transmitted to station MS using flow TBF station MS and the first cell. When this packet data to the first cell, originally rendered in station MS include packet data of the first cell, originally stored in the controller BSC and transferable in station MS, and packet data transmitted by the node SGSN in the first cell before initiating forwarding of the packet is the data. S204: the Implementation of a controller BSC local search thread TBF station MS and the second cell in accordance with the identifier TLLI and transferring the packet data to the stream TBF station MS and the second cell. The way forward packet data known from the prior art and are not further discussed. S206: the Transmission controller BSC packet data in the station BTS2 using flow TBF station MS and the second cell, and forwarding station BTS2 packet data at station MS before receiving controller BSC messages transmitted by the node SGSN to request confirmation of the update cell station MS. The packet data transfer completes. The method in accordance with this embodiment of the present invention also includes: after the packet data controller BSC, the transmission node SGSN message for confirmation update cell station MS, the message for confirmation update cell station MS contains the identifier TLLI, ID BVCI station MS and the first cell ID BVCI station MS and the second cell; in accordance with the message for confirmation update cell station MS transmission controller BSC return a confirmation message to the node SGSN, and a response confirmation message contains the ID of the BVCI station MS and the second cell, as well as information about the volume of the batch is given the s. It should be noted that the message for confirmation of the update data in station MS is a message FLUSH-LL, respectively, return the confirmation message is a message FLUSH-LL-ACK; message for confirmation of the update data in station MS and a response confirmation message can be a message to other types, in this description these messages are given only as examples, and the present invention is not limited to these types of messages. The method also includes, after moving station MS from the first cell to the second cell, the transfer station MS in the station BTS2 request message allocating a radio channel and transmitting station BTS2 request message to the controller BSC, the allocation controller BSC of the new radio station MS, the establishment of this controller flow TBF station MS and the second cell, and transmitting the response message of allocating radio station BTS2; forwarding station BTS2 response message to the station MS and the transfer station MS in the station BTS2 of the resource request message containing the identifier TLLI, in accordance with the accepted response and the confirmation message, and the sending station BTS2 in controller BSC of the resource request message. After the transfer station MS request message resource and before the reception controller BSC transmitted by the node SGSN messages on the I asks you update cell station MS, the method in accordance with this embodiment of the present invention includes: a transfer station MS to the node SGSN Protocol data unit control logic communication line (LLC PDU logical link control protocol data unit), the block LLC PDU contains the identifier TLLI, the identifier of the second cell, which is a station MS and the ID controller BSC, managing the second cell. The identifier of the second cell, which is a station MS, indicate through a combination of area code location (LAC, location area code and area code routing (RAC routing area code) or by other means. The ID controller BSC can be specified using the MAC address or other means. A means of specifying the cell ID and the ID controller BSC is provided only as an example and do not limit the present invention. Figure 3 shows the structure of a controller of a base station in accordance with the second embodiment of the present invention. As shown in figure 1 and figure 3, the controller 300 of the base station in accordance with the second embodiment of the present invention contains: module 301 collecting batch data used for local search thread TBF station MS and the first cell in accordance with the identifier TLLI, pre-allocated for station MS node SGSN, the donkey move station MS from the first cell to the second cell, and to collect packet data for the first cell, originally to be transmitted to station MS using flow TBF station MS and the first cell; module 302 forwarding packet data used for local search TBF station MS and the second cell in accordance with the identifier TLLI and to transfer the packet data to the stream TBF station MS and the second cell; module 303 packet data used for transmission in a station MS packet data through the station BTS2 using flow TBF station MS and the second cell before receiving the messages sent by the node SGSN to request confirmation of the update cell station MS. Controller BSC 300 according to the second variant of implementation of the present invention also contains: the first module 304 receiving messages, used to receive messages for confirmation update cell station MS after the transmission of packet data module 303 packet data, and the message for confirmation update cell station MS contains the identifier TLLI, ID BVCI station MS and the first cell and the ID of BVCI station MS and the second cell; the first module 305 send the message used to send the reply confirmation message to the node SGSN after receiving the message for confirmation update cell station MS first module 304 receipt of a message, when the response is a confirmation message contains the ID of the BVCI station MS and the second cell, as well as information about the volume of packet data. Controller BSC 300 according to the second variant of implementation of the present invention also contains: the second module 306 receiving messages used for receiving a request message allocation channel transmitted by station MS through the station BTS2; module 307 of the processing used to allocate a new channel for station MS in accordance with the request message and to establish the flow TBF station MS and the second cell; the second module 308 send the message used to transfer station MS through the station BTS2 response message allocation of the radio channel after establishing module 307 flow TBF station MS and the second cell; the third module 309 receiving messages used for receiving a request message resources sent by station MS through the station BTS2, after transmitting the response message to the second module 308 send the message, and the resource request message contains the identifier TLLI. In accordance with the second embodiment of the present invention to packet data first cell, originally rendered in station MS include packet data of the first cell, originally stored in the controller BSC 300 and transferable in station MS, and packet data transmitted by the node SGSN in the first cell before initiating forwarding akutnych data. The processes of information exchange and interaction between modules described above device may refer to the method in accordance with the embodiment of the present invention, because they are based on the same concept as this way, so these processes are not described again. Further, as an example to illustrate the advantages of the technical schemes of the present invention shows the results obtained using the tool DuMeter designed to measure the characteristics of the packet data. Figure 4 shows the effect of using known technical schemes for packet data. Pause, shown in figure 4 and figure 5, indicate that you cannot resolve intermittent interruption during transfer station MS from the first cell to the second cell. From a comparison of the sizes of the intervals shown in figure 4 and figure 5, it is seen that the loss of packet data due to the disadvantages of the known technical schemes, while the technical scheme according to the present invention can effectively reduce the loss of packet data generated during handling station MS from the first cell to the second cell, and ensure the normal communication station MS, as well as reduce the rate of repeated packet data after the honeycomb update. <> From the above description, the specialist it is obvious that the present invention can be implemented using software and related hardware platform, or only using hardware, although the first option in most cases is the most preferred. In this regard, some or all of the improvements implemented by using the technical scheme in accordance with the present invention, may be made in the form of software products, computer software may be stored on data media (such as ROM/RAM, magnetic or optical disk)containing several commands used to run on a computer device (such as a personal computer, server, or network device) method corresponding to some options each option or implementation of the present invention.The above description relates only to the specific modalities for the implementation of the present invention and does not limit the invention. All modifications or changes within the entity of the present invention are within the scope of the claims. 1. The way forward packet data in a wireless network, including: 2. The method of claim 1, also including: 3. The method according to claim 1 or 2, comprising, after moving the mobile station from the first cell to the second cell 4. The method according to claim 3, comprising, after the transmitting mobile station a request message resource and before reception by the base station controller messages transmitted by the serving support node of the packet radio service General purpose for confirmation update cell in the mobile station, 5. The method according to claim 1 or 2, in which the packet data of the first cell, originally rendered in the mobile station include packet data of the first cell, originally stored in the controller of the base station and be transferred to the mobile station and the packet data transmitted by the serving support node pluripotency radio General purpose in the first cell before initiating forwarding of the packet data. 6. The base station controller that contains the module packet capture module forwarding the packet data and the module packet data, while 7. The base station controller according to claim 6, containing the first module receiving the message and the first transmission module messages and 8. The base station controller according to claim 6 or 7, containing the second module receiving messages, processing module, the second module send the message, and the third module receiving messages, while 9. The base station controller according to claim 6 or 7, in which the package is haunted data of the first cell, originally transferable in the mobile station include packet data of the first cell, originally stored in the controller of the base station and be transferred to the mobile station and the packet data transmitted by the serving support node of the packet radio service General purpose in the first cell before initiating forwarding of the packet data.
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