WO2011082598A1 - Method and system for transmitting uplink data on enhanced dedicated channel - Google Patents

Method and system for transmitting uplink data on enhanced dedicated channel Download PDF

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Publication number
WO2011082598A1
WO2011082598A1 PCT/CN2010/077479 CN2010077479W WO2011082598A1 WO 2011082598 A1 WO2011082598 A1 WO 2011082598A1 CN 2010077479 W CN2010077479 W CN 2010077479W WO 2011082598 A1 WO2011082598 A1 WO 2011082598A1
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WO
WIPO (PCT)
Prior art keywords
carrier
dedicated channel
enhanced dedicated
uplink data
network controller
Prior art date
Application number
PCT/CN2010/077479
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French (fr)
Chinese (zh)
Inventor
程翔
刘霖
柯雅珠
Original Assignee
中兴通讯股份有限公司
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Application filed by 中兴通讯股份有限公司 filed Critical 中兴通讯股份有限公司
Publication of WO2011082598A1 publication Critical patent/WO2011082598A1/en

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Classifications

    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04LTRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L5/00Arrangements affording multiple use of the transmission path
    • H04L5/0001Arrangements for dividing the transmission path
    • H04L5/0014Three-dimensional division
    • H04L5/0023Time-frequency-space
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04LTRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L5/00Arrangements affording multiple use of the transmission path
    • H04L5/003Arrangements for allocating sub-channels of the transmission path
    • H04L5/0032Distributed allocation, i.e. involving a plurality of allocating devices, each making partial allocation
    • H04L5/0035Resource allocation in a cooperative multipoint environment

Definitions

  • the present invention relates to an enhanced dedicated channel transmission bearer mode technique, and more particularly to an enhanced dedicated channel for transmitting uplink data.
  • an IUB (Interconnection of Type B) interface is a logical interface between a radio network controller and a Node B.
  • the IUR (Interconnection of RNC) interface is the interface used by the radio network controller for signaling and data interaction with other wireless network controllers. It is the link between the wireless network subsystems.
  • the radio network controller for maintaining the interface connection between the terminal and the core network is called a service radio network controller.
  • the service radio network controller is responsible for data transmission between the core network and the terminal and transmission and reception of interface signaling with the core network, is responsible for radio resource control, is responsible for layer 2 processing of the air interface data, and performs basic wireless operation. Resource management operations, such as handover decisions, outer loop power control, and conversion of radio access bearer parameters to air interface transmission channel parameters.
  • drift wireless network controllers other wireless network controllers other than the serving radio network controller are called drift wireless network controllers.
  • the drift radio network controller controls the cell used by the terminal, and if necessary, the drift radio network controller can also perform macro diversity combining.
  • the drift radio network controller does not perform layer 2 processing of the user plane data, but only passes the route of the air interface data transparently through the IUR interface to the serving radio network controller.
  • the goal of high-speed uplink packet access technology is to improve capacity and data throughput in the upstream direction and reduce hysteresis in dedicated channels.
  • a new transport channel is introduced by the high-speed uplink packet access technology:
  • the enhanced dedicated channel improves the implementation of the physical layer and the medium access control layer to achieve a maximum theoretical uplink data rate of 5.6 megabits per second.
  • High-speed uplink packet access technology retains soft cut Change the characteristics.
  • the media access control protocol data unit received by the air interface is demultiplexed into a media access control flow, and is transmitted from the node B via the IUB interface or the drift radio network controller via the IUR interface in the form of an enhanced dedicated channel uplink data frame.
  • the transmission bearers corresponding to the access control flow (each medium access control flow has a corresponding IUB interface and/or IUR interface transmission bearer) and are transmitted to the serving radio network controller.
  • dual-carrier high-speed uplink packet access technology is expected to be introduced into existing systems, which enables the terminal to transmit data on two carriers with high-speed uplink packet access technology, thereby making the uplink data rate Can be multiplied.
  • the carrier including the high-speed dedicated physical control channel in the dual carrier is called the primary carrier, and the other carrier in the dual carrier is called the secondary carrier.
  • each carrier in the dual carrier has its own independent enhanced dedicated channel activation set.
  • the introduction of dual-carrier high-speed uplink packet access technology requires consideration of the scalability of subsequent multi-carriers (such as three-carrier and four-carrier).
  • a carrier including a high-speed dedicated physical control channel in a multi-carrier is referred to as a primary carrier, and other carriers are referred to as a second carrier, a third carrier, and a fourth carrier among the four carriers, respectively.
  • FIG. 1 A typical dual-carrier high-speed uplink packet access technology scenario is shown in Figure 1: The terminal uses dual-carrier high-speed uplink packet access technology to transmit data on both the primary and secondary carriers.
  • the primary carrier has its own independent enhanced dedicated channel activation set, including cell 1 under node B1 and cell 3 under node B2.
  • the secondary carrier has its own independent enhanced dedicated channel activation set, including cell 2 under node B1 and cell 4 under node B3.
  • the terminal sends uplink data to the network side through the primary carrier, and the transmission path of the uplink data on the network side is:
  • Node B1 to radio network controller 1 (ie serving radio network controller)
  • Node B2- to radio network controller 1 (ie service radio network controller)
  • the terminal sends the uplink data to the network side through the secondary carrier, and the transmission path of the uplink data on the network side is:
  • node B1 to radio network controller 1 (ie serving radio network controller) 1.
  • radio network controller 1 ie serving radio network controller
  • Node B3 to Radio Network Controller 2 (ie, Drift Radio Network Controller) to Radio Network Controller 1 (ie, Serving Radio Network Controller).
  • the enhanced dedicated channel transmission bearer mode is defined to include "shared mode” and "separate mode".
  • the "shared mode” means that the same MAC (Media Access Control) stream received on all uplink carriers is sent on the same transport bearer; “separate mode” refers to different uplink carriers.
  • the received MAC flows are sent on different transport bearers.
  • Defining the "uplink multiplexing information" in the uplink channel of the enhanced dedicated channel is: When the transmission bearer mode of the enhanced dedicated channel is "shared mode", the "uplink multiplexing information" is set to the corresponding code to indicate that the bearer is carried.
  • the carrier of the data frame such as the primary carrier or the secondary carrier; when the transmission bearer mode of the enhanced dedicated channel is "separate mode", the "uplink multiplexing information" is set to null, or the "uplink multiplexing information" is ignored by the receiver.
  • the specific manner of transmitting the enhanced dedicated channel uplink data frame carrying the uplink multiplexing information on the selected transmission bearer is as shown in FIG. 2.
  • Node B1 receives the same MAC stream -1 on both the primary and secondary carriers, and sends it to the radio network controller 1 on the same transmission bearer -1.
  • the "uplink multiplexing information" is respectively filled with the code corresponding to the primary carrier or the code corresponding to the secondary carrier, to indicate that the carrier carrying the data frame is the primary carrier or the secondary carrier. .
  • the enhanced dedicated channel uplink data frame from the node B3 is received and forwarded to the radio network controller 1 (serving radio network controller), enhanced dedicated The channel uplink data frame is transmitted on the transmission bearers -2 and -3.
  • the "uplink multiplexing information" in the enhanced dedicated channel uplink data frame is set to the code corresponding to the primary carrier, to indicate that the carrier carrying the data frame is the primary carrier.
  • the specific manner of transmitting the enhanced dedicated channel uplink data frame carrying the uplink multiplexing information on the selected transmission bearer is as shown in FIG.
  • the IUB interface connected to the Node B1 and the Radio Network Controller 1 (Serving Radio Network Controller) has two separate transmission bearers.
  • the Transport Bearer-1 is dedicated to carry the data received on the primary carrier.
  • the Transport Bearer-4 is dedicated to The data received on the secondary carrier is carried.
  • the Node B1 transmits an enhanced dedicated channel uplink data frame derived from the primary carrier received data on the transport bearer-1, and transmits an enhanced dedicated channel uplink data frame derived from the secondary carrier received data on the transport bearer-4.
  • the "uplink multiplexing information" in the enhanced dedicated channel uplink data frame is empty, or "uplink multiplexing signal" The information is ignored by the receiver.
  • the enhanced dedicated channel uplink data frame from the node B3 is received and forwarded to the radio network controller 1 (serving the wireless network) Controller), the enhanced dedicated channel uplink data frame derived from the primary carrier receiving data is transmitted on the transmission bearers-2 and -3 dedicated to receiving the received data on the primary carrier, and the enhanced dedicated channel uplink data frame is "upward complex" Use the message "Set to empty, or "Uplink multiplexing information" to be ignored by the ⁇ : party.
  • Wireless Network Controller 1 For Wireless Network Controller 1 (Serving Radio Network Controller), it aggregates upstream data over all transmission paths. Then, through the above information, the uplink multiplexing information in the uplink data frame of the enhanced dedicated channel in the "shared mode" or the separate transmission bearer in the "separate mode” is used to separate the data received from the primary carrier or the secondary source.
  • the carrier receives data, and performs reordering and macro diversity combining based on individual carriers. Once the data received from different carriers is confused, the reordering and macro diversity cannot be performed normally, and all data errors are caused, resulting in the actual service being unavailable and eventually falling out of the network.
  • the enhanced dedicated dedicated channel transmission bearer mode information is set by the serving radio network controller, both the primary carrier enhanced dedicated channel cell and the secondary carrier enhanced dedicated channel small node B or the drift wireless network controller.
  • the radio network controller 1 serving radio network controller
  • the radio network controller 2 drift radio network controller
  • the Node B or the radio network controller requests to select a transmission bearer according to the enhanced dedicated channel transmission bearer mode information, and set "uplink multiplexing information" in the enhanced dedicated channel uplink data frame to perform an enhanced dedicated channel uplink data frame. Transmission.
  • the Node B or the drift radio network controller of the enhanced dedicated channel cell of a single carrier including the Node B of the primary carrier enhanced dedicated channel cell or the drift radio network controller (such as Node B2 in FIG. 1) And the Node B or the drift radio network controller (such as Node B3 and Radio Network Controller 2 in FIG. 1) that only has the secondary carrier enhanced dedicated channel cell, is not set by the serving radio network controller to set the enhanced dedicated channel. Transfer bearer mode information. Subsequently, the Node B or the drift radio network controller transmits the enhanced dedicated channel uplink data frame in a single carrier manner.
  • the same MAC stream is selected to be sent on the same transport bearer, and the uplink multiplexing information in the uplink data frame of the enhanced dedicated channel is set to be empty, or the enhanced dedicated channel is used.
  • the uplink multiplexing information in the uplink data frame is ignored by the receiver, and the enhanced dedicated channel uplink data frame is transmitted to the receiver.
  • the code value corresponding to the primary carrier is 0, and the "uplink multiplexing information" in the enhanced dedicated channel uplink data frame is set to null, which corresponds to The encoded value is also 0. That is to say, the data of the primary carrier source in the shared mode, all the data in the split mode, all the data of the single carrier, and the code value of the "uplink multiplexing information" in the uplink data frame of the enhanced dedicated channel are all 0.
  • the radio network controller of the aggregator as shown in Figure 1, the radio network controller 1 cannot distinguish between the three cases, and will only be unified according to the currently recorded "enhanced dedicated channel transmission bearer mode information" configuration information. deal with.
  • the radio network controller 1 (Serving Radio Network Controller) gives the Node B1 enhanced dedicated channel transmission bearer mode to "shared mode", to the node B2 and the radio network controller 2 (drift)
  • the radio network controller does not configure any enhanced dedicated channel transport bearer mode, as shown in Figure 5:
  • Node B 1 receives the same MAC stream - 1 on both the primary and secondary carriers and sends it to the radio network controller 1 on the same transmission bearer -1.
  • the "uplink multiplexing information" is respectively filled in the code value corresponding to the primary carrier or the secondary carrier, and is represented as the carrier carrying the data frame as the primary carrier or the secondary carrier.
  • the enhanced dedicated channel uplink data frame is transmitted to the radio network controller 1 (Serving Radio Network Controller).
  • the node B2 and the radio network controller 2 (drift radio network controller) and the node B3 of the radio network controller 2 perform the transmission of the enhanced dedicated channel uplink data frame in a single carrier manner. That is, the same MAC stream is selected to be sent on the same transport bearer, and the uplink multiplexing information in the uplink data frame of the enhanced dedicated channel is set to be empty, or the uplink multiplexing information in the uplink data frame of the enhanced dedicated channel is ignored by the receiver. , transmitting the enhanced dedicated channel uplink data frame to the radio network controller 1 (serving radio network controller).
  • Wireless Network Controller 1 For Wireless Network Controller 1 (Serving Radio Network Controller), it aggregates upstream data coming through all transmission paths.
  • the radio network controller 1 (serving the radio network controller) configures information according to the currently recorded "enhanced dedicated channel transmission bearer mode information", that is, "Shared mode” information, unified processing.
  • the radio network controller 1 (serving radio network controller) will transmit the enhanced dedicated channel uplink data frame in a single carrier manner from the node B2 and the radio network controller 2 (drift radio network controller), where " The uplink multiplexing information "meaning "single carrier” and coded to 0, the error is identified as the "main carrier” meaning of the same code 0.
  • the radio network controller 1 serving radio network controller
  • the radio network controller 2 drift radio network controller
  • the erroneous identification is that the air interface is derived from the enhanced dedicated channel uplink data frame of the primary carrier, and the actual air interface from the node B1 is derived from the enhanced dedicated channel uplink data frame of the primary carrier, which is confused.
  • the radio network controller 1 (serving the radio network controller) configures the enhanced dedicated channel transmission bearer mode to "shared mode" for the node B1 and the radio network controller 2 (drift radio network controller), the radio network controller 2 (drift)
  • the radio network controller does not configure any enhanced dedicated channel transmission bearer mode for node B2 and node B3, as shown in Figure 7: Node B 1 receives the same MAC stream on both the primary and secondary carriers - 1 It is sent to the radio network controller 1 on the same transport bearer-1.
  • the "uplink multiplexing information" is respectively filled in the code value corresponding to the primary carrier or the secondary carrier, and is represented as the carrier carrying the data frame as the primary carrier or the secondary carrier.
  • the enhanced dedicated channel uplink data frame is transmitted to the radio network controller 1.
  • Node B2 and Node B3 perform the transmission of the enhanced dedicated channel uplink data frame in a single carrier manner. That is, the same MAC stream is selected to be sent on the same transport bearer, and the uplink multiplexing information in the uplink data frame of the enhanced dedicated channel is set to be empty, or the uplink multiplexing information in the uplink data frame of the enhanced dedicated channel is ignored by the receiver. , transmitting the enhanced dedicated channel uplink data frame to the radio network controller 2 (drift radio network controller).
  • the radio network controller 2 drift radio network controller
  • the radio network controller 2 is in the role of a drift radio network controller and can only transparently forward the enhanced dedicated channel uplink data frames received from the Node B2 and the Node B3 to the radio network controller 1.
  • the number of uplinks of the enhanced dedicated channel that the radio network controller 2 cannot receive from the node B2 and the node B3 make any changes based on the contents of the frame. Therefore, the "uplink multiplexing information" of the enhanced dedicated channel uplink data frame transmitted on the IUR interface is empty and coded to zero.
  • Wireless Network Controller 1 For Wireless Network Controller 1 (Serving Radio Network Controller), it aggregates upstream data over all transmission paths.
  • the radio network controller 1 serving radio network controller
  • the radio network controller 1 performs unified processing according to the currently recorded "enhanced dedicated channel transmission bearer mode information" configuration information, that is, “shared mode” information.
  • the radio network controller 1 serving radio network controller
  • the information “intended to be “single carrier” and coded to 0, the error is identified as the "main carrier” meaning of the same code 0.
  • the actual air interface forwarded by the radio network controller 1 (the serving radio network controller) from the radio network controller 2 (the drift radio network controller) is derived from the primary carrier (node B2) and the secondary carrier (node B3).
  • All the enhanced dedicated channel uplink data frames are erroneously identified as the enhanced dedicated channel uplink data frame from the primary carrier, and the actual air interface from the node B1 is derived from the enhanced dedicated channel uplink data frame of the primary carrier.
  • the configuration in the prior art does not carefully consider all possible scenario implementations. Therefore, there may be a problem that the received data from different carriers is confused.
  • the wireless network controller cannot distinguish the primary carrier.
  • the received data is still derived from the secondary carrier receiving data, and the reordering and macro diversity are not performed normally, and all the data errors are caused, so that the actual service is unavailable, and eventually the network is dropped.
  • the present invention provides a method and system for transmitting uplink data on an enhanced dedicated channel, so that the serving radio network controller can accurately distinguish received data originating from different carriers.
  • the present invention discloses a method for transmitting data by using an enhanced dedicated channel, including:
  • the radio network controller When establishing a multi-carrier enhanced dedicated channel cell, the radio network controller increases the multi-carrier The information about the transmission bearer mode of the enhanced dedicated channel in the strong dedicated channel cell is notified to the node B that is in charge of the cell, where the transport bearer mode includes a sharing mode;
  • the Node B receives the information of the transmission bearer mode, and transmits uplink data to the terminal that uses the multi-carrier high-speed uplink packet access technology in the multi-carrier enhanced dedicated channel cell according to the transmission bearer mode, where When the transmission bearer mode information is in the shared mode, the Node B carries the carrier identification information of the carrier carrying the uplink data in the transmitted uplink data.
  • the above method may further include: when establishing the multi-carrier enhanced dedicated channel cell, the wireless network controller sends the carrier identification information of the carrier for carrying the uplink data in the multi-carrier enhanced dedicated channel cell to the node B.
  • the carrier identification information of the carrier carrying the uplink data in the transmitted uplink data may refer to: the Node B fills in the uplink multiplexing information in the transmitted uplink data frame as the carrier identifier of the carrier carrying the uplink data. information.
  • the radio network controller may be a serving radio network controller; the method may further include: the serving radio network controller receiving the uplink data of the terminal using the multi-carrier high-speed uplink packet access technology in the multi-carrier enhanced dedicated channel cell transmitted by the Node B If it is determined that the transmission bearer mode of the enhanced dedicated channel of the cell is the shared mode, the uplink multiplexing information of the uplink data is read, and the carrier identification information that carries the uplink data is obtained.
  • the radio network controller may be a drift radio network controller; the method may further include: the serving radio network controller receiving the uplink data of the terminal using the multi-carrier high-speed uplink packet access technology in the multi-carrier enhanced dedicated channel cell transmitted by the Node B If it is determined that the transmission bearer mode of the enhanced dedicated channel of the cell is the shared mode, the uplink multiplexing information of the uplink data is read, and the carrier identification information that carries the uplink data is obtained.
  • the invention also discloses an enhanced dedicated channel for transmitting data, comprising a wireless network controller and a node B, wherein:
  • the radio network controller is configured to: notify, when establishing a multi-carrier enhanced dedicated channel cell, information about a transmission bearer mode of the enhanced dedicated channel in the multi-carrier enhanced dedicated channel cell to a node B that governs the cell
  • the transmission bearer mode includes a sharing mode
  • the Node B is configured to: receive the transmission bearer mode information, and use the multi-carrier high-speed uplink packet access technology in the multi-carrier enhanced dedicated channel cell according to the transmission bearer mode.
  • the terminal transmits the uplink data, where, when the transmission bearer mode is the shared mode, the transmitted uplink data carries the carrier identification information of the carrier that carries the uplink data.
  • the radio network controller may be further configured to: when establishing the multi-carrier enhanced dedicated channel cell, send carrier identification information of the carrier for carrying the uplink data in the multi-carrier enhanced dedicated channel cell to the node B .
  • the Node B may be configured to carry the carrier identification information that carries the uplink data in the transmitted uplink data by: filling in the “uplink multiplexing information” in the transmitted uplink data frame into the carrier identifier of the carrier carrying the uplink data. information.
  • the radio network controller may be a serving radio network controller; the serving radio network controller may be further configured to: receive uplink data of the terminal using the multi-carrier high-speed uplink packet access technology in the multi-carrier enhanced dedicated channel cell transmitted by the Node B, And when the transmission bearer mode of the enhanced dedicated channel of the cell is the shared mode, the uplink multiplexing information of the uplink data is read, and the carrier identification information that carries the uplink data is obtained.
  • the radio network controller may be a drift radio network controller; the system may further include a serving radio network controller, the service radio network controller may be configured to: use multi-carrier high speed in a multi-carrier enhanced dedicated channel cell transmitted by the receiving Node B
  • the uplink data of the terminal of the uplink packet access technology and the uplink bearer information of the uplink data are read when the transmission bearer mode of the enhanced dedicated channel of the cell is the shared mode, and the carrier identification information that carries the uplink data is obtained.
  • the technical solution of the invention avoids the problem that the received data from different carriers are confused, so that the wireless network controller of the convergence party can clearly distinguish the data received from each carrier, ensure the normal transmission of the actual service data of the terminal, and ensure the dual carrier.
  • High speed uplink packet access technology is available.
  • FIG. 1 is a schematic diagram of a typical dual-carrier high-speed uplink packet access technology
  • FIG. 2 is a schematic diagram of an enhanced dedicated channel uplink data frame transmission of "shared mode”
  • FIG. 3 is a schematic diagram of an enhanced dedicated channel uplink data frame transmission of "separation mode”
  • FIG. 4 is a second dual carrier high speed uplink packet access technique Schematic diagram of the scene
  • FIG. 5 is a schematic diagram of an enhanced dedicated channel uplink data frame transmission in a scenario of a second dual-carrier high-speed uplink packet access technology
  • 6 is a schematic diagram of a scenario of a third dual-carrier high-speed uplink packet access technology
  • FIG. 7 is a schematic diagram of an enhanced dedicated channel uplink data frame transmission in a scenario of a third dual-carrier high-speed uplink packet access technology
  • Figure 9 (a) is a schematic diagram of a scenario of Embodiment 1;
  • Figure 9 (b) is a process flow diagram of Embodiment 1;
  • Figure 10 (b) is a process flow diagram of Embodiment 2;
  • Figure 11 (a) is a schematic diagram of a scenario of Embodiment 3.
  • Figure 11 (b) is a process flow diagram of Embodiment 3.
  • Figure 12 (a) is a schematic diagram of a scenario of Embodiment 4.
  • Figure 12 (b) is a process flow diagram of Embodiment 4.
  • Figure 13 (a) is a schematic diagram of a scenario of Embodiment 5;
  • Figure 13 (b) is a process flow diagram of Embodiment 5.
  • Figure 14 (a) is a schematic diagram of a scenario of Embodiment 6;
  • the main idea of the present invention is to provide a multi-carrier enhanced dedicated channel cell in a Node B or a drift radio network controller for a terminal using a multi-carrier high-speed uplink packet access technology, by a serving radio network controller or a drift radio network.
  • the controller notifies the transmission bearer mode information of the enhanced dedicated channel configured by the Node B, and the Node B or the drift radio network controller performs the transmission of the enhanced dedicated channel uplink data frame according to the acquired transmission bearer mode information of the enhanced dedicated channel.
  • the Node B or the drift radio network controller carries the carrier carrying the uplink data in the transmitted uplink data frame when the enhanced dedicated channel transmission bearer mode acquired by the Node B or the drift radio network controller is the shared mode.
  • the carrier identifier so that the serving network controller can obtain the carrier identifier from the received uplink data, so as to know which carrier the uplink data is derived from, Therefore, the problem that the received data from different carriers is confusing in each scenario and the actual service is unavailable is available, and the existing dual-carrier high-speed uplink packet access technology is unavailable.
  • a system for transmitting uplink data by a strong dedicated channel includes at least a serving radio network controller and a node B.
  • a service radio network controller is mainly used for transmitting a bearer mode of an enhanced dedicated channel in a multi-carrier enhanced dedicated channel cell when establishing a multi-carrier enhanced dedicated channel cell for a terminal using a multi-carrier high-speed uplink packet access technology
  • the information is notified to the node B that governs the cell, where the transport bearer mode information includes a sharing mode and a split mode;
  • the enhanced dedicated channel uplink data frame sent by the receiving node when the transmission mode of the enhanced dedicated channel is the shared mode, is also used to read the "uplink multiplexing information" in the uplink data frame, that is, it is known.
  • a carrier carrying the uplink data
  • the serving radio network controller may further notify the node B of the transmission bearer mode information of the enhanced dedicated channel by using the drift radio network controller; the node B is mainly used for receiving the radio network controller to send
  • the transmission bearer mode information according to the transmission bearer mode, the terminal that uses the multi-carrier high-speed uplink packet access technology in the multi-carrier enhanced dedicated channel cell transmits uplink data, where when the received transport bearer mode information is the shared mode,
  • the Node B also carries the carrier identification information of the carrier carrying the uplink data in the transmitted uplink data.
  • the serving radio network controller when establishing a multi-carrier enhanced dedicated channel cell, is further configured to notify the Node B of the carrier identification information of the carrier used to carry the uplink data in the multi-carrier enhanced dedicated channel cell.
  • the Node B may carry the received carrier identification information in the transmitted uplink data, where the serving radio network controller may enhance the type through a message.
  • the transmission bearer mode information of the dedicated channel and the carrier identification information of the carrier carrying the uplink data are simultaneously sent to the Node B, and the transmission bearer mode information of the enhanced dedicated channel and the carrier identifier of the carrier carrying the uplink data may be transmitted through different messages. The information is sent to Node B.
  • Step 800 When a multi-carrier enhanced dedicated channel cell is established for a terminal using a multi-carrier high-speed uplink packet access technology, the serving radio network controller notifies the node B of the enhanced dedicated channel in the cell. Transmission bearer mode information;
  • the serving radio network controller directly notifies the node B, or notifies the node B of the enhanced dedicated channel transmission bearer mode information by using the drift radio network controller;
  • the "multi-carrier enhanced dedicated channel cell” refers to a cell in which the enhanced dedicated channel is used in the uplink direction of one of the multiple carriers, that is, in the enhanced dedicated channel cell, the carrier corresponding to the cell is any of the multiple carriers.
  • a carrier specifically, a multi-carrier enhanced dedicated channel cell includes a primary carrier enhanced dedicated channel cell, a secondary carrier enhanced dedicated channel cell, a third carrier enhanced dedicated channel cell, and the like.
  • Enhanced Dedicated Channel Transport Bearer Mode Information includes “Shared Mode” and "Separate Mode". Where: “shared mode” means that the same MAC stream received on all uplink carriers is sent on the same transport bearer; “separate mode” means that each MAC stream received on a different uplink carrier is placed in a different transmission. Send on bearer;
  • the process of establishing a multi-carrier enhanced dedicated channel cell refers to a radio link establishment process in which a serving radio network controller transmits a transmission bearer mode information of an enhanced dedicated channel using a "radio link setup request" signaling during a radio link setup process.
  • a serving radio network controller transmits a transmission bearer mode information of an enhanced dedicated channel using a "radio link setup request" signaling during a radio link setup process.
  • Step 810 The Node B obtains the transmission bearer mode information of the enhanced dedicated channel, and performs the transmission of the enhanced dedicated channel uplink data frame according to the acquired transmission bearer mode information of the enhanced dedicated channel, where the enhanced dedicated channel is transmitted.
  • the bearer mode is the "shared mode"
  • the Node B carries the carrier identification information of the carrier carrying the uplink data in the uplink data frame;
  • the Node B when the acquired transmission bearer mode of the enhanced dedicated channel is using the "separation mode", the Node B sets the uplink multiplexing information in the uplink channel of the enhanced dedicated channel to be empty, or in the uplink data frame of the enhanced dedicated channel.
  • the uplink multiplexing information is ignored by the receiver; when the acquired transmission bearer mode of the enhanced dedicated channel is the "shared mode", the specific manner in which the Node B carries the carrier identification information of the carrier carrying the uplink data in the uplink data frame For: filling the uplink multiplexing information cell in the enhanced dedicated channel uplink data frame into the carrier identifier of the carrier carrying the data frame Knowledge.
  • the carrier identifier filled in the uplink multiplexed cell may be a primary carrier or a secondary carrier (which may also be a first carrier or a second carrier); for the three carriers, filled in the uplink multiplexed cell
  • the carrier identifier may be a primary carrier, a second carrier, or a third carrier.
  • the carrier identifier filled in the uplink multiplexed cell may be a primary carrier, a second carrier, a third carrier, or a fourth carrier.
  • the Node B selects the same MAC stream received on all uplink carriers to be transmitted on one transmission bearer; when the transmission mode of the enhanced dedicated channel is "separated” In the mode, the Node B selects each MAC stream received on a different uplink carrier to be sent on a different transport bearer;
  • the enhanced dedicated channel uplink data frame refers to the type 2 enhanced dedicated channel uplink data frame, that is, the data frame type used for the multi-carrier technology;
  • the Node B applies the enhanced dedicated channel transmission bearer mode information to the enhanced dedicated channel cell on each frequency layer of the multi-carrier under its own control, and performs the transmission of the enhanced dedicated channel uplink data frame.
  • Step 820 The serving radio network controller receives the enhanced dedicated channel uplink data frame sent by the node B, performs corresponding operations according to the transmission bearer mode of the enhanced dedicated channel, and finally can distinguish the received data from different carriers.
  • the serving radio network controller reads the "uplink multiplexing information" of the received uplink data frame to obtain the carrier identification information that carries the uplink data, that is, when the transmission bearer mode of the enhanced dedicated channel is the shared mode, that is, Determining which carrier the uplink data is derived from;
  • the serving radio network controller can uniquely determine the carrier carrying the uplink data through the transmission bearer, that is, determine which carrier the uplink data is derived from.
  • the serving radio network controller may further notify the Node B of the carrier identification information of the carrier used to carry the uplink data in the multi-carrier enhanced dedicated channel cell.
  • the Node B may carry the received carrier identification information in the transmitted uplink data, where the serving radio network controller may use the enhanced dedicated mode by using a message.
  • Channel transmission bearer The mode information and the carrier identification information of the carrier carrying the uplink data are simultaneously sent to the node B, and the transmission bearer mode information of the enhanced dedicated channel and the carrier identification information of the carrier carrying the uplink data are respectively sent to the different messages. Node B.
  • the setting scenario is as shown in Figure 9 (a):
  • the terminal currently uses the dual-carrier high-speed uplink packet access technology only in the small area 1 (primary carrier) and the cell 2 (secondary carrier) under the node B1.
  • the Radio Network Controller 1 (Serving Radio Network Controller) will establish an Enhanced Dedicated Channel Cell: Cell 2 (Subcarrier) under Node B2.
  • the establishment of the multi-carrier enhanced dedicated channel area means that the cell using the enhanced dedicated channel in the uplink direction on the secondary carrier frequency layer in the multi-carrier is established for the first time.
  • Step 910 For a terminal using the dual-carrier high-speed uplink packet access technology, the Node B2 under the radio network controller 1 establishes a multi-carrier enhanced dedicated channel cell (Cell 3, which is used in the uplink direction on the secondary carrier frequency layer in the multi-carrier).
  • Cell 3 which is used in the uplink direction on the secondary carrier frequency layer in the multi-carrier.
  • the radio network controller 1 sends a "radio link setup request" signaling to the node B2 during the radio link setup process, and sets an enhanced dedicated channel transport bearer mode in this signaling.
  • the information is "shared mode", and the node B2 receives the enhanced dedicated channel transmission bearer mode information.
  • Step 920 The Node B2 applies the obtained enhanced dedicated channel transmission bearer mode information to the enhanced dedicated channel cell on each frequency layer of the multi-carrier under its jurisdiction, that is, the cell 3 (only one cell in this scenario), Performing transmission of the enhanced dedicated channel uplink data frame, and the Node B2 selects the same MAC stream received on all the uplink carriers in the dual carrier according to the "shared mode" to be transmitted on one transport bearer, that is, is transmitted on the transport bearer 1, and The Node B2 fills in the uplink multiplexing information cell in the enhanced dedicated channel uplink data frame as the carrier identifier of the carrier carrying the data frame, that is, the identifier of the secondary carrier;
  • the node B2 transmits with the type 2 enhanced dedicated channel uplink data frame (E-DCH UL DATA FRAME type 2).
  • Step 930 The serving radio network controller receives the enhanced dedicated channel uplink data frame sent by the Node B, and finds that the enhanced bearer mode of the enhanced dedicated channel is the shared mode, so the "uplink multiplexing information" of the uplink data frame is read as The identifier of the secondary carrier, that is, the uplink data is learned from the secondary carrier.
  • the radio network controller 1 when establishing a multi-carrier enhanced dedicated channel cell, the radio network controller 1
  • the serving radio network controller may also notify the Node B of the carrier identifier (ie, the secondary carrier identifier) information of the carrier used to carry the uplink data in the multi-carrier enhanced dedicated channel cell, so that the Node B is in the transmitted uplink.
  • the data carries the received carrier identification information.
  • the setting scenario is as shown in FIG. 10( a ):
  • the terminal currently uses the dual-carrier high-speed uplink packet access technology only in the cell 1 (primary carrier) and the cell 2 (secondary carrier) under the node B1.
  • the Radio Network Controller 1 (Serving Radio Network Controller) will establish an Enhanced Dedicated Channel Cell: Cell 2 (Subcarrier) under Node B2.
  • Node B2 it is the first time to establish a multi-carrier enhanced dedicated channel cell, that is, to establish a cell in the uplink direction using the enhanced dedicated channel in the uplink direction on the secondary carrier frequency layer in the multi-carrier.
  • the process of transmitting uplink data by the enhanced dedicated channel is as shown in FIG. 10(b), and includes the following steps:
  • Step 1010 For a terminal using the dual-carrier high-speed uplink packet access technology, the Node B2 under the radio network controller 1 establishes a multi-carrier enhanced dedicated channel cell (Cell 3, which is used in the uplink direction on the secondary carrier frequency layer in the multi-carrier).
  • Cell 3 which is used in the uplink direction on the secondary carrier frequency layer in the multi-carrier.
  • the radio network controller 1 sends a "radio link setup request" signaling to the node B2 during the radio link setup process, and sets an enhanced dedicated channel transport bearer mode in this signaling.
  • the information is "separate mode", and the node B2 receives and obtains the enhanced dedicated channel transmission bearer mode information;
  • Step 1020 The Node B2 applies the obtained transmission bearer mode information of the enhanced dedicated channel to the enhanced dedicated channel cell on each frequency layer of the multi-carrier under its jurisdiction, that is, the cell 3 (only one cell in this scenario), Performing transmission of the enhanced dedicated channel uplink data frame, the Node B2 selects each MAC stream received from each different uplink carrier in the multi-carrier according to the "separation mode" to be transmitted on one transmission bearer, that is, corresponding to the secondary carrier. The transmission is carried on bearer 3. Node B2 sets the uplink in the enhanced dedicated channel uplink data frame according to the "separation mode" The multiplexing information is empty, or the uplink multiplexing information in the uplink data frame of the enhanced dedicated channel is ignored by the receiver;
  • the node B2 transmits with the type 2 enhanced dedicated channel uplink data frame.
  • Step 1030 The serving radio network controller receives the enhanced dedicated channel uplink data frame sent by the node B according to the "separation mode", and obtains which carrier the uplink data is derived from by transmitting the bearer.
  • the radio network controller 1 when establishing a multi-carrier enhanced dedicated channel cell, the radio network controller 1 (ie, the serving radio network controller) may further use the carrier identification information of the carrier used to carry the uplink data in the multi-carrier enhanced dedicated channel cell. Notify to Node B.
  • the setting scenario is as shown in Figure 11 (a):
  • the terminal currently uses the dual-carrier high-speed uplink packet access technology only in the small area 1 (primary carrier) and the cell 2 (secondary carrier) under the node B1.
  • the Wireless Network Controller 1 (Serving Radio Network Controller) will establish an Enhanced Dedicated Channel Cell: Cell 3 (Secondary Carrier) under Radio Network Controller 2 (Drift Radio Network Controller).
  • Radio Network Controller 2 drift radio network controller
  • it is the first time to establish a multi-carrier enhanced dedicated channel cell that is, the first time to establish the multi-carrier mid-carrier frequency layer on the uplink direction using enhanced dedicated The cell of the channel.
  • the process of transmitting uplink data by the enhanced dedicated channel includes the following steps:
  • Step 1110 For the terminal using the dual-carrier high-speed uplink packet access technology, the radio network controller 2 under the radio network controller 1 establishes a multi-carrier enhanced dedicated channel cell (cell 3, which is on the secondary carrier frequency layer in the multi-carrier).
  • cell 3 which is on the secondary carrier frequency layer in the multi-carrier.
  • the radio network controller 1 transmits to the radio network controller 2 using the "radio link setup request" signaling during the radio link setup process, and the enhanced type is set in the signaling.
  • the dedicated channel transmission bearer mode information is "shared mode", and the radio network controller 2 obtains enhanced dedicated channel transmission bearer mode information.
  • Step 1120 The radio network controller 2 applies the obtained enhanced dedicated channel transmission bearer mode information to an enhanced dedicated channel cell on each frequency layer of the multi-carrier under its jurisdiction, that is, cell 3 (only one cell in this scenario) ), performing enhanced dedicated channel uplink data frames Transmission, the radio network controller 2 selects the same MAC stream received on all uplink carriers in the dual carrier to be transmitted on one transmission bearer according to the "shared mode", that is, it is sent on the transmission bearer 1, and the radio network controller 2 will The uplink multiplexing information cell in the uplink data frame of the enhanced dedicated channel is filled in as the carrier identifier of the carrier carrying the data frame, that is, the identifier of the secondary carrier;
  • the radio network controller 2 transmits the type 2 enhanced dedicated channel uplink data frame.
  • Step 1130 The serving radio network controller receives the enhanced dedicated channel uplink data frame sent by the Node B, and finds that the enhanced bearer mode of the enhanced dedicated channel is a shared module, so the "uplink multiplexing information" of the uplink data frame is read as The identifier of the secondary carrier, that is, the uplink data is learned from the secondary carrier.
  • the radio network controller 1 when establishing a multi-carrier enhanced dedicated channel, the radio network controller 1 (ie, the serving radio network controller) may further use the carrier identifier of the carrier used to carry the uplink data in the multi-carrier enhanced dedicated channel cell.
  • the information (that is, the secondary carrier identifier) is notified to the Node B, so that the Node B carries the received carrier identification information in the transmitted uplink data.
  • the setting scenario is as shown in Figure 12 (a):
  • the terminal currently uses the dual-carrier high-speed uplink packet access technology only in the small area 1 (primary carrier) and the cell 2 (secondary carrier) under the node B1.
  • the Wireless Network Controller 1 (Serving Radio Network Controller) will establish an Enhanced Dedicated Channel Cell: Cell 3 (Primary Carrier) under Radio Network Controller 2 (Drift Radio Network Controller).
  • Radio Network Controller 2 drift radio network controller
  • a multi-carrier enhanced dedicated channel cell is established, that is, a cell in which the enhanced dedicated channel is used in the uplink direction on the main carrier frequency layer in the multi-carrier is established for the first time.
  • the process of transmitting uplink data by the enhanced dedicated channel includes the following steps:
  • Step 1210 For the terminal using the dual-carrier high-speed uplink packet access technology, the radio network controller 2 under the radio network controller 1 establishes a multi-carrier enhanced dedicated channel cell (cell 3, which is on the main carrier frequency layer in the multi-carrier) When the cell in the uplink direction uses the enhanced dedicated channel), the radio network controller 1 sends a "radio link setup request" signaling to the radio link setup process. The radio network controller 2 sets the enhanced dedicated channel transmission bearer mode information to "separate mode" in the signaling, and the radio network controller 2 obtains the enhanced dedicated channel transmission bearer mode information.
  • cell 3 which is on the main carrier frequency layer in the multi-carrier
  • the radio network controller 1 sends a "radio link setup request" signaling to the radio link setup process.
  • the radio network controller 2 sets the enhanced dedicated channel transmission bearer mode information to "separate mode" in the signaling, and the radio network controller 2 obtains the enhanced dedicated channel transmission bearer mode information.
  • Step 1220 Subsequently, the radio network controller 2 applies the obtained enhanced dedicated channel transmission bearer mode information to the enhanced dedicated channel cell on each frequency layer of the multi-carrier under its own jurisdiction, that is, the cell 3 (in this scenario) Only one cell) performs transmission of the enhanced dedicated channel uplink data frame, wherein the radio network controller 2 selects each MAC stream received from each different uplink carrier in the multi-carrier according to the "separation mode" to be placed in one transmission bearer.
  • the upper transmission that is, is transmitted on the transmission bearer 3 corresponding to the primary carrier, and the node B2 sets the uplink multiplexing information in the uplink data frame of the enhanced dedicated channel according to the "separation mode" to be empty, or the enhanced dedicated channel uplink data frame.
  • the uplink multiplexing information in the middle is ignored by the receiver;
  • the node B2 transmits with the type 2 enhanced dedicated channel uplink data frame.
  • Step 1230 The serving radio network controller receives the enhanced dedicated channel uplink data frame sent by the node B according to the "separation mode", and the transmission bearer can learn which carrier the uplink data is derived from.
  • Each of the above dual-carrier embodiments can be extended to multiple carriers, such as three carriers and four carriers, which are respectively illustrated below.
  • the radio network controller 1 when establishing a multi-carrier enhanced dedicated channel cell, the radio network controller 1 (ie, the serving radio network controller) may further use the carrier identification information of the carrier used to carry the uplink data in the multi-carrier enhanced dedicated channel cell. Notify to Node B.
  • the setting scenario is as shown in FIG. 13( a ):
  • the terminal is currently only used in the cell 1 (main carrier) and the cell 2 (second carrier) and the cell 3 (third carrier) under the node B1.
  • the radio network controller 1 (Serving Radio Network Controller) will establish a multi-carrier enhanced dedicated channel cell: Node B2 under Cell 4 (Second Carrier).
  • Node B2 it is the first time to establish a multi-carrier enhanced dedicated channel cell, that is, to establish a cell using an enhanced dedicated channel in the uplink direction on the second carrier frequency layer in the multi-carrier for the first time.
  • the process of transmitting the uplink data on the enhanced dedicated channel includes the following steps: Step 1310: For the terminal using the three-carrier high-speed uplink packet access technology, the enhanced dedicated channel cell on the second carrier frequency layer is established in the cell 4 under the node B2 under the radio network controller 1, and the radio network controller 1 is in the radio. In the link establishment process, the "radio link setup request" signaling is used to send to the node B2, in which the enhanced dedicated channel transmission bearer mode information is set to "shared mode", and the node B2 obtains the enhanced dedicated channel transmission. Bearer mode information.
  • Step 1320 The Node B2 applies the set enhanced dedicated channel transmission bearer mode information to the enhanced dedicated channel cell on each frequency layer of the multi-carrier under its jurisdiction, that is, the cell 4 (only one cell in this scenario), Performing transmission of the enhanced dedicated channel uplink data frame, and the Node B2 selects the same MAC stream received on all the uplink carriers in the three carriers to be transmitted on one transport bearer according to the "shared mode", that is, is transmitted on the transport bearer 1, and Node B2 fills in the uplink multiplexing information cell in the enhanced dedicated channel uplink data frame as the carrier identifier of the carrier carrying the data frame, that is, the second carrier;
  • the node B2 transmits with the type 2 enhanced dedicated channel uplink data frame.
  • Step 1330 The serving radio network controller receives the enhanced dedicated channel uplink data frame sent by the Node B, and finds that the enhanced bearer mode of the enhanced dedicated channel is the shared mode, so the "uplink multiplexing information" of the uplink data frame is read as The identifier of the second carrier, that is, the uplink data is learned from the second carrier.
  • the radio network controller 1 when establishing a multi-carrier enhanced dedicated channel cell, the radio network controller 1 (ie, the serving radio network controller) may further use a carrier for carrying the carrier of the uplink data in the multi-carrier enhanced dedicated channel cell.
  • the identifier (ie, the second carrier identifier) information is notified to the node B, so that the node B carries the received carrier identification information in the transmitted uplink data.
  • the setting scenario is as shown in FIG. 14( a ): the terminal is currently only in the cell 1 (main carrier) and the cell 2 (second carrier), the cell 3 (the third carrier), and the cell 4 under the node B1.
  • a four-carrier high-speed uplink packet access technique is used under the (fourth carrier).
  • the radio network controller 1 will establish a multi-carrier enhanced dedicated channel cell: Cell 5 (fourth carrier) under Node B2.
  • the multi-carrier enhanced dedicated channel cell is established for the first time, that is, the cell in which the enhanced dedicated channel is used in the uplink direction on the fourth carrier frequency layer in the multi-carrier is established for the first time.
  • the process of transmitting the uplink data on the enhanced dedicated channel includes the following steps:
  • Step 1410 For the terminal using the four-carrier high-speed uplink packet access technology, the enhanced dedicated channel cell on the fourth carrier frequency layer is established in the cell 5 under the node B2 under the radio network controller 1, and the radio network controller 1 is in the radio.
  • the "radio link setup request" signaling is used to send to the node B2, in which the enhanced dedicated channel transmission bearer mode information is set to "shared mode", and the node B obtains the enhanced dedicated channel transmission.
  • Carrying mode information For the terminal using the four-carrier high-speed uplink packet access technology, the enhanced dedicated channel cell on the fourth carrier frequency layer is established in the cell 5 under the node B2 under the radio network controller 1, and the radio network controller 1 is in the radio.
  • the "radio link setup request" signaling is used to send to the node B2, in which the enhanced dedicated channel transmission bearer mode information is set to "shared mode", and the node B obtains the enhanced dedicated channel transmission.
  • Step 1420 The Node B2 applies the set enhanced dedicated channel transmission bearer mode information to the enhanced dedicated channel cell on each frequency layer of the multi-carrier under its jurisdiction, that is, the cell 5 (only one cell in this scenario), For the transmission of the enhanced dedicated channel uplink data frame, the Node B2 selects the same MAC stream received on all the uplink carriers in the four carriers to be transmitted on one transmission bearer according to the "shared mode", that is, is transmitted on the transport bearer 1, and the node B2 fills in the uplink multiplexing information cell in the enhanced dedicated channel uplink data frame as the carrier identifier of the carrier carrying the data frame, that is, the fourth carrier;
  • the node B2 transmits with the type 2 enhanced dedicated channel uplink data frame.
  • Step 1430 The serving radio network controller receives the enhanced dedicated channel uplink data frame sent by the Node B, and finds that the transmission bearer mode of the strong dedicated channel is the shared mode, so the "uplink multiplexing information" of the uplink data frame is read as The identifier of the fourth carrier, that is, the uplink data is learned from the fourth carrier.
  • the radio network controller 1 may further use the carrier used to carry the uplink data in the multi-carrier enhanced dedicated channel cell.
  • the information of the carrier identifier (that is, the fourth carrier identifier) is notified to the node B, so that the node B carries the received carrier identification information in the transmitted uplink data.
  • the present invention avoids the problem that the received data from different carriers is confused, so that the wireless network controller of the convergence party can clearly distinguish the data received from each carrier to ensure the normal transmission of the actual service data of the terminal. , to ensure that dual carrier high speed uplink packet access technology is available.

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Abstract

The present invention discloses a method and a system for transmitting uplink data on an enhanced dedicated channel and relates to the transmission bearer mode technology of the enhanced dedicated channel. The method of the present invention includes: when a multi-carrier enhanced dedicated channel cell is established, a radio network controller notifies the transmission bearer mode information of the enhanced dedicated channel in the multi-carrier enhanced dedicated channel cell to the node B which manages the cell, wherein, the transmission bearer mode information includes a sharing mode; the node B receives said transmission bearer mode information, and according to the transmission bearer mode, transmits the uplink data for the terminal which uses the multi-carrier high speed uplink packet access technology in the multi-carrier enhanced dedicated channel cell, wherein, when the transmission bearer mode is the sharing mode, in the transmitted uplink data, the node B carries the carrier identity information of the carrier which bears the uplink data. The technical solution of the present invention avoids the problem that the received data from different carriers is mixed together.

Description

一种增强型专用信道传输上行数据的方法及***  Method and system for transmitting uplink data by enhanced dedicated channel
技术领域 Technical field
本发明涉及增强型专用信道传输承载模式技术, 尤其涉及到一种增强型 专用信道传输上行数据的方法及***。  The present invention relates to an enhanced dedicated channel transmission bearer mode technique, and more particularly to an enhanced dedicated channel for transmitting uplink data.
背景技术 Background technique
在无线通讯***中, IUB ( Interconnection of type B, B类互联)接口是 无线网络控制器和节点 B之间的逻辑接口。 IUR ( Interconnection of RNC , 无 线网络控制器之间互联接口)接口是无线网络控制器用于同其他无线网络控 制器进行信令和数据交互的接口, 是无线网络子***之间互联的纽带。  In a wireless communication system, an IUB (Interconnection of Type B) interface is a logical interface between a radio network controller and a Node B. The IUR (Interconnection of RNC) interface is the interface used by the radio network controller for signaling and data interaction with other wireless network controllers. It is the link between the wireless network subsystems.
当一个终端建立了无线接入网的连接, 并在 IUR接口产生了软切换, 就 会用到多个无线网络控制器的资源, 此时, 不同的无线网络控制器充当着不 同的角色: 其中, 用于保持该终端与核心网的接口连接的无线网络控制器称 为服务无线网络控制器。 服务无线网络控制器负责核心网和终端之间的数据 传送和与核心网的接口信令的转送和接收, 负责进行无线资源控制, 负责对 空中接口的数据进行层二的处理, 并执行基本无线资源管理操作, 如切换判 决、 外环功率控制和无线接入承载的参数向空口传输信道参数的转化等。  When a terminal establishes a connection to the radio access network and soft handover occurs on the IUR interface, resources of multiple radio network controllers are used. At this time, different radio network controllers play different roles: The radio network controller for maintaining the interface connection between the terminal and the core network is called a service radio network controller. The service radio network controller is responsible for data transmission between the core network and the terminal and transmission and reception of interface signaling with the core network, is responsible for radio resource control, is responsible for layer 2 processing of the air interface data, and performs basic wireless operation. Resource management operations, such as handover decisions, outer loop power control, and conversion of radio access bearer parameters to air interface transmission channel parameters.
而服务无线网络控制器以外的其他无线网络控制器称为漂移无线网络控 制器。 漂移无线网络控制器控制该终端使用的小区, 如果需要, 漂移无线网 络控制器还可以进行宏分集合并。 当该终端使用公共传输信道时, 漂移无线 网络控制器不会进行用户面数据的层二处理, 只是将空口数据透明的通过 IUR接口的路由传递给服务无线网络控制器。 一个终端的漂移无线网络控制 器可以不止一个。  Other wireless network controllers other than the serving radio network controller are called drift wireless network controllers. The drift radio network controller controls the cell used by the terminal, and if necessary, the drift radio network controller can also perform macro diversity combining. When the terminal uses the common transport channel, the drift radio network controller does not perform layer 2 processing of the user plane data, but only passes the route of the air interface data transparently through the IUR interface to the serving radio network controller. There can be more than one drift wireless network controller for one terminal.
高速上行分组接入技术的目标是在上行方向改善容量和数据吞吐量, 降 低专用信道中的迟滞。 由高速上行分组接入技术引入了一条新的传输信道: 增强型专用信道, 对物理层和媒体接入控制层的实现进行改进, 可以达到最 大理论上行数据速率为 5.6 兆比特每秒。 高速上行分组接入技术保留了软切 换的特性。 空中接口接收的媒体接入控制协议数据单元, 解复用为媒体接入 控制流, 以增强型专用信道上行数据帧的形式从节点 B经由 IUB接口或者漂 移无线网络控制器经由 IUR接口, 通过媒体接入控制流对应的传输承载 (每 一个媒体接入控制流有一个对应的 IUB接口和 /或 IUR接口传输承载),传输 到服务无线网络控制器。 The goal of high-speed uplink packet access technology is to improve capacity and data throughput in the upstream direction and reduce hysteresis in dedicated channels. A new transport channel is introduced by the high-speed uplink packet access technology: The enhanced dedicated channel improves the implementation of the physical layer and the medium access control layer to achieve a maximum theoretical uplink data rate of 5.6 megabits per second. High-speed uplink packet access technology retains soft cut Change the characteristics. The media access control protocol data unit received by the air interface is demultiplexed into a media access control flow, and is transmitted from the node B via the IUB interface or the drift radio network controller via the IUR interface in the form of an enhanced dedicated channel uplink data frame. The transmission bearers corresponding to the access control flow (each medium access control flow has a corresponding IUB interface and/or IUR interface transmission bearer) and are transmitted to the serving radio network controller.
随着技术发展, 双载波高速上行分组接入技术()希望被引入现有***, 此技术可以使终端能够在两个载波上以高速上行分组接入技术发送数据, 从 而使得上行链路数据速率得以倍增。 双载波中包含高速专用物理控制信道的 载波称为主载波, 双载波中余下的另外一个载波称为辅载波。 对于一个终端 而言, 双载波中的各载波均有自己独立的增强型专用信道激活集。 双载波高 速上行分组接入技术的引入, 需要考虑后续多载波(如三载波, 四载波) 的 易扩展性。 多载波中包含高速专用物理控制信道的载波称为主载波, 其他载 波分别称为第二载波, 第三载波, 以及四载波中的第四载波。  With the development of technology, dual-carrier high-speed uplink packet access technology () is expected to be introduced into existing systems, which enables the terminal to transmit data on two carriers with high-speed uplink packet access technology, thereby making the uplink data rate Can be multiplied. The carrier including the high-speed dedicated physical control channel in the dual carrier is called the primary carrier, and the other carrier in the dual carrier is called the secondary carrier. For a terminal, each carrier in the dual carrier has its own independent enhanced dedicated channel activation set. The introduction of dual-carrier high-speed uplink packet access technology requires consideration of the scalability of subsequent multi-carriers (such as three-carrier and four-carrier). A carrier including a high-speed dedicated physical control channel in a multi-carrier is referred to as a primary carrier, and other carriers are referred to as a second carrier, a third carrier, and a fourth carrier among the four carriers, respectively.
一个典型的双载波高速上行分组接入技术的场景如图 1所示: 终端使用 双载波高速上行分组接入技术技术, 同时在主载波和辅载波上发送数据。 主 载波有自己独立的增强型专用信道激活集, 包含节点 B1 下的小区 1和节点 B2 下的小区 3。 辅载波有自己独立的增强型专用信道激活集, 包含节点 B1 下的小区 2和节点 B3下的小区 4。  A typical dual-carrier high-speed uplink packet access technology scenario is shown in Figure 1: The terminal uses dual-carrier high-speed uplink packet access technology to transmit data on both the primary and secondary carriers. The primary carrier has its own independent enhanced dedicated channel activation set, including cell 1 under node B1 and cell 3 under node B2. The secondary carrier has its own independent enhanced dedicated channel activation set, including cell 2 under node B1 and cell 4 under node B3.
终端通过主载波发送上行数据到网络侧, 该上行数据在网络侧的传输路 径为:  The terminal sends uplink data to the network side through the primary carrier, and the transmission path of the uplink data on the network side is:
(管辖小区 1的节点)节点 B1至无线网络控制器 1 (即服务无线网络控 制器)  (node of jurisdiction 1) Node B1 to radio network controller 1 (ie serving radio network controller)
(管辖小区 3的节点)节点 B2-至无线网络控制器 1 (即服务无线网络控 制器)  (node of jurisdiction cell 3) Node B2- to radio network controller 1 (ie service radio network controller)
终端通过辅载波发送上行数据到网络侧, 该上行数据在网络侧的传输路 径为:  The terminal sends the uplink data to the network side through the secondary carrier, and the transmission path of the uplink data on the network side is:
(管辖小区 2的节点)节点 B1至无线网络控制器 1 (即服务无线网络控 制器) 1、 (管辖小区 4 )节点 B3至无线网络控制器 2 (即漂移无线网络控 制器)至无线网络控制器 1 (即服务无线网络控制器) 。 (node of jurisdiction cell 2) node B1 to radio network controller 1 (ie serving radio network controller) 1. (Jurisdiction 4) Node B3 to Radio Network Controller 2 (ie, Drift Radio Network Controller) to Radio Network Controller 1 (ie, Serving Radio Network Controller).
现有双载波高速上行分组接入技术中, 定义增强型专用信道传输承载模 式包括 "共享模式" 和 "分离模式" 。 其中: "共享模式" 是指所有上行载 波上接收的同一个 MAC ( Media Access Control, 媒体接入控制)流均放在同 一个传输承载上发送; "分离模式" 是指从不同的上行载波上接收的 MAC 流分别放在不同的传输承载上发送。定义增强型专用信道上行数据帧中的 "上 行复用信息"为: 当增强型专用信道的传输承载模式是 "共享模式"时, "上 行复用信息" 设置为相应的编码, 以表示承载此数据帧的载波, 如主载波或 者辅载波; 当增强型专用信道的传输承载模式是 "分离模式" 时, "上行复 用信息" 设置为空, 或者 "上行复用信息" 被接收方忽略。  In the existing dual-carrier high-speed uplink packet access technology, the enhanced dedicated channel transmission bearer mode is defined to include "shared mode" and "separate mode". The "shared mode" means that the same MAC (Media Access Control) stream received on all uplink carriers is sent on the same transport bearer; "separate mode" refers to different uplink carriers. The received MAC flows are sent on different transport bearers. Defining the "uplink multiplexing information" in the uplink channel of the enhanced dedicated channel is: When the transmission bearer mode of the enhanced dedicated channel is "shared mode", the "uplink multiplexing information" is set to the corresponding code to indicate that the bearer is carried. The carrier of the data frame, such as the primary carrier or the secondary carrier; when the transmission bearer mode of the enhanced dedicated channel is "separate mode", the "uplink multiplexing information" is set to null, or the "uplink multiplexing information" is ignored by the receiver.
"共享模式" 下, 在选定的传输承载上, 传输携带有上行复用信息的增 强型专用信道上行数据帧的具体方式如图 2所示。节点 B1接收了主辅两个载 波上的同一个 MAC流 -1,放在同一个传输承载 -1上发送给无线网络控制器 1。 在图示的 2个增强型专用信道上行数据帧中, "上行复用信息" 分别填写为 主载波对应的编码或者辅载波对应的编码, 来表示承载此数据帧的载波为主 载波或者辅载波。 同样, 对于无线网络控制器 2 (漂移无线网络控制器) , 接收到来自节点 B3的增强型专用信道上行数据帧,将其转发至无线网络控制 器 1 (服务无线网络控制器), 增强型专用信道上行数据帧在传输承载 -2和 -3 上传递, 增强型专用信道上行数据帧中 "上行复用信息" 设置为主载波对应 的编码, 来表示承载此数据帧的载波为主载波。  In the "shared mode", the specific manner of transmitting the enhanced dedicated channel uplink data frame carrying the uplink multiplexing information on the selected transmission bearer is as shown in FIG. 2. Node B1 receives the same MAC stream -1 on both the primary and secondary carriers, and sends it to the radio network controller 1 on the same transmission bearer -1. In the two enhanced dedicated channel uplink data frames shown in the figure, the "uplink multiplexing information" is respectively filled with the code corresponding to the primary carrier or the code corresponding to the secondary carrier, to indicate that the carrier carrying the data frame is the primary carrier or the secondary carrier. . Similarly, for the radio network controller 2 (drift radio network controller), the enhanced dedicated channel uplink data frame from the node B3 is received and forwarded to the radio network controller 1 (serving radio network controller), enhanced dedicated The channel uplink data frame is transmitted on the transmission bearers -2 and -3. The "uplink multiplexing information" in the enhanced dedicated channel uplink data frame is set to the code corresponding to the primary carrier, to indicate that the carrier carrying the data frame is the primary carrier.
"分离模式" 下, 在选定的传输承载上, 传输携带有上行复用信息的增 强型专用信道上行数据帧的具体方式如图 3所示。节点 B1和无线网络控制器 1 (服务无线网络控制器)相连的 IUB接口, 有 2个分开的传输承载, 传输承 载 -1专门用来承载主载波上接收的数据, 传输承载 -4专门用来承载辅载波上 接收的数据。 节点 B1在传输承载 -1 上发送来源于主载波接收数据的增强型 专用信道上行数据帧, 在传输承载 -4上发送来源于辅载波接收数据的增强型 专用信道上行数据帧。 由于通过传输承载已经可以区别主辅载波接收数据,所 以增强型专用信道上行数据帧中 "上行复用信息" 为空, 或者 "上行复用信 息" 被接收方忽略。 同样, 对于无线网络控制器 2 (漂移无线网络控制器) , 接收到来自节点 B3的增强型专用信道上行数据帧,将其转发至无线网络控制 器 1 (服务无线网络控制器) , 来源于主载波接收数据的增强型专用信道上 行数据帧在专门用于承载主载波上接收数据的传输承载 -2和 -3上传递, 增强 型专用信道上行数据帧中 "上行复用信息"设置为空, 或者 "上行复用信息" 被接^:方忽略。 In the "separation mode", the specific manner of transmitting the enhanced dedicated channel uplink data frame carrying the uplink multiplexing information on the selected transmission bearer is as shown in FIG. The IUB interface connected to the Node B1 and the Radio Network Controller 1 (Serving Radio Network Controller) has two separate transmission bearers. The Transport Bearer-1 is dedicated to carry the data received on the primary carrier. The Transport Bearer-4 is dedicated to The data received on the secondary carrier is carried. The Node B1 transmits an enhanced dedicated channel uplink data frame derived from the primary carrier received data on the transport bearer-1, and transmits an enhanced dedicated channel uplink data frame derived from the secondary carrier received data on the transport bearer-4. Since the primary and secondary carrier receiving data can be distinguished by the transmission bearer, the "uplink multiplexing information" in the enhanced dedicated channel uplink data frame is empty, or "uplink multiplexing signal" The information is ignored by the receiver. Similarly, for the radio network controller 2 (drift radio network controller), the enhanced dedicated channel uplink data frame from the node B3 is received and forwarded to the radio network controller 1 (serving the wireless network) Controller), the enhanced dedicated channel uplink data frame derived from the primary carrier receiving data is transmitted on the transmission bearers-2 and -3 dedicated to receiving the received data on the primary carrier, and the enhanced dedicated channel uplink data frame is "upward complex" Use the message "Set to empty, or "Uplink multiplexing information" to be ignored by the ^: party.
对于无线网络控制器 1 (服务无线网络控制器) 而言, 其会聚了通过所 有的传输途径上来的上行数据。 然后通过上述信息, 通过 "共享模式" 下的 增强型专用信道上行数据帧中上行复用信息, 或者通过 "分离模式" 下的分 开的传输承载, 以分开来源于主载波接收数据还是来源于辅载波接收数据, 基于单独载波分别进行重排序以及宏分集合并。 一旦来源于不同载波接收数 据混淆在一起, 则无法正常进行重排序以及宏分集合并, 所有数据错误, 导 致实际业务不可用, 最终掉网。  For Wireless Network Controller 1 (Serving Radio Network Controller), it aggregates upstream data over all transmission paths. Then, through the above information, the uplink multiplexing information in the uplink data frame of the enhanced dedicated channel in the "shared mode" or the separate transmission bearer in the "separate mode" is used to separate the data received from the primary carrier or the secondary source. The carrier receives data, and performs reordering and macro diversity combining based on individual carriers. Once the data received from different carriers is confused, the reordering and macro diversity cannot be performed normally, and all data errors are caused, resulting in the actual service being unavailable and eventually falling out of the network.
目前, 既有主载波增强型专用信道小区, 又有辅载波增强型专用信道小 区的节点 B或者漂移无线网络控制器, 才会被服务无线网络控制器设定增强 型专用信道传输承载模式信息。 如图 1 中的无线网络控制器 1 (服务无线网 络控制器)经由 IUB接口或者 IUR接口配置给节点 B1 , 节点 B2, 无线网络 控制器 2 (漂移无线网络控制器) 。 随后, 这些节点 B 或者无线网络控制器 要求依照增强型专用信道传输承载模式信息选择传输承载, 以及设置增强型 专用信道上行数据帧中的 "上行复用信息" , 进行增强型专用信道上行数据 帧的传输。  At present, the enhanced dedicated dedicated channel transmission bearer mode information is set by the serving radio network controller, both the primary carrier enhanced dedicated channel cell and the secondary carrier enhanced dedicated channel small node B or the drift wireless network controller. The radio network controller 1 (serving radio network controller) in Fig. 1 is configured to the node B1, the node B2, and the radio network controller 2 (drift radio network controller) via the IUB interface or the IUR interface. Subsequently, the Node B or the radio network controller requests to select a transmission bearer according to the enhanced dedicated channel transmission bearer mode information, and set "uplink multiplexing information" in the enhanced dedicated channel uplink data frame to perform an enhanced dedicated channel uplink data frame. Transmission.
而其他情况, 只有单一载波的增强型专用信道小区的节点 B或者漂移无 线网络控制器, 包括只有主载波增强型专用信道小区的节点 B或漂移无线网 络控制器(如图 1中的节点 B2 ) , 以及只有辅载波增强型专用信道小区的节 点 B或漂移无线网络控制器(如图 1中的节点 B3 , 无线网络控制器 2 ) , 是 不会被服务无线网络控制器设定增强型专用信道传输承载模式信息。 随后 , 这些节点 B或漂移无线网络控制器以单载波的方式进行增强型专用信道上行 数据帧的传输。 也就是选择同一个 MAC 流放在同一个传输承载上发送, 设 置增强型专用信道上行数据帧中的上行复用信息为空, 或者增强型专用信道 上行数据帧中的上行复用信息被接收方忽略, 将增强型专用信道上行数据帧 传输到接收方。 In other cases, only the Node B or the drift radio network controller of the enhanced dedicated channel cell of a single carrier, including the Node B of the primary carrier enhanced dedicated channel cell or the drift radio network controller (such as Node B2 in FIG. 1) And the Node B or the drift radio network controller (such as Node B3 and Radio Network Controller 2 in FIG. 1) that only has the secondary carrier enhanced dedicated channel cell, is not set by the serving radio network controller to set the enhanced dedicated channel. Transfer bearer mode information. Subsequently, the Node B or the drift radio network controller transmits the enhanced dedicated channel uplink data frame in a single carrier manner. That is, the same MAC stream is selected to be sent on the same transport bearer, and the uplink multiplexing information in the uplink data frame of the enhanced dedicated channel is set to be empty, or the enhanced dedicated channel is used. The uplink multiplexing information in the uplink data frame is ignored by the receiver, and the enhanced dedicated channel uplink data frame is transmitted to the receiver.
但是, 在增强型专用信道上行数据帧中的 "上行复用信息" 中, 主载波 对应的编码值为 0 , 而增强型专用信道上行数据帧中 "上行复用信息" 设置 为空, 其对应的编码值也是 0。 也就意味着共享模式下的主载波来源的数据, 分离模式下的所有数据, 单载波的所有数据以及增强型专用信道上行数据帧 中 "上行复用信息" 的编码值均为 0。 对于汇聚方的服务无线网络控制器, 如图 1 中的无线网络控制器 1 , 是无法区别这 3种情况的, 只会根据当前记 录的 "增强型专用信道传输承载模式信息" 配置信息进行统一处理。  However, in the "uplink multiplexing information" in the enhanced dedicated channel uplink data frame, the code value corresponding to the primary carrier is 0, and the "uplink multiplexing information" in the enhanced dedicated channel uplink data frame is set to null, which corresponds to The encoded value is also 0. That is to say, the data of the primary carrier source in the shared mode, all the data in the split mode, all the data of the single carrier, and the code value of the "uplink multiplexing information" in the uplink data frame of the enhanced dedicated channel are all 0. For the service provider radio network controller of the aggregator, as shown in Figure 1, the radio network controller 1 cannot distinguish between the three cases, and will only be unified according to the currently recorded "enhanced dedicated channel transmission bearer mode information" configuration information. deal with.
因此, 在图 4所示的这个场景下(和图 1的典型场景的差别在于节点 B2 下的小区 3为辅载波频率层上的宏分集小区) , 依照现有技术的配置方式, 以及对应的进行增强型专用信道上行数据帧的传输, 无线网络控制器 1 (服 务无线网络控制器)给节点 B1增强型专用信道传输承载模式为 "共享模式", 给节点 B2和无线网络控制器 2 (漂移无线网络控制器)不配置任何增强型专 用信道传输承载模式 , 会出现如图 5所示:  Therefore, in the scenario shown in FIG. 4 (the difference from the typical scenario of FIG. 1 is that the cell 3 under the node B2 is a macro diversity cell on the secondary carrier frequency layer), according to the configuration manner of the prior art, and the corresponding Performing transmission of the enhanced dedicated channel uplink data frame, the radio network controller 1 (Serving Radio Network Controller) gives the Node B1 enhanced dedicated channel transmission bearer mode to "shared mode", to the node B2 and the radio network controller 2 (drift) The radio network controller) does not configure any enhanced dedicated channel transport bearer mode, as shown in Figure 5:
节点 B 1接收了主辅两个载波上的同一个 MAC流- 1 , 放在同一个传输承 载 -1上发送给无线网络控制器 1。 在图示的 2个增强型专用信道上行数据帧 中, "上行复用信息" 分别填写为主载波或者辅载波对应的编码值, 来表示 为承载此数据帧的载波为主载波或者辅载波。 将增强型专用信道上行数据帧 传输到无线网络控制器 1 (服务无线网络控制器) 。  Node B 1 receives the same MAC stream - 1 on both the primary and secondary carriers and sends it to the radio network controller 1 on the same transmission bearer -1. In the two enhanced dedicated channel uplink data frames shown in the figure, the "uplink multiplexing information" is respectively filled in the code value corresponding to the primary carrier or the secondary carrier, and is represented as the carrier carrying the data frame as the primary carrier or the secondary carrier. The enhanced dedicated channel uplink data frame is transmitted to the radio network controller 1 (Serving Radio Network Controller).
节点 B2和无线网络控制器 2 (漂移无线网络控制器) 以及无线网络控制 器 2下辖节点 B3 , 以单载波的方式进行增强型专用信道上行数据帧的传输。 也就是选择同一个 MAC 流放在同一个传输承载上发送, 设置增强型专用信 道上行数据帧中的上行复用信息为空, 或者增强型专用信道上行数据帧中的 上行复用信息被接收方忽略, 将增强型专用信道上行数据帧传输到无线网络 控制器 1 (服务无线网络控制器) 。  The node B2 and the radio network controller 2 (drift radio network controller) and the node B3 of the radio network controller 2 perform the transmission of the enhanced dedicated channel uplink data frame in a single carrier manner. That is, the same MAC stream is selected to be sent on the same transport bearer, and the uplink multiplexing information in the uplink data frame of the enhanced dedicated channel is set to be empty, or the uplink multiplexing information in the uplink data frame of the enhanced dedicated channel is ignored by the receiver. , transmitting the enhanced dedicated channel uplink data frame to the radio network controller 1 (serving radio network controller).
对于无线网络控制器 1 (服务无线网络控制器) 而言, 其会聚了通过所 有的传输途径上来的上行数据。 无线网络控制器 1 (服务无线网络控制器) 根据当前的记录的 "增强型专用信道传输承载模式信息" 配置信息, 也就是 "共享模式" 信息, 进行统一处理。 无线网络控制器 1 (服务无线网络控制 器)将会把从节点 B2和无线网络控制器 2 (漂移无线网络控制器)过来的以 单载波的方式的增强型专用信道上行数据帧, 其中的 "上行复用信息" 本意 为 "单载波" 且编码为 0, 错误识别为同样编码为 0的 "主载波" 含义。 也 就是无线网络控制器 1 (服务无线网络控制器)将会把从节点 B2和无线网络 控制器 2 (漂移无线网络控制器)过来的实际空口来源于辅载波的增强型专 用信道上行数据帧, 错误识别为空口来源于主载波的增强型专用信道上行数 据帧,和从节点 B1过来的实际空口来源于主载波的增强型专用信道上行数据 帧, 混淆在一起。 一旦来源于不同载波接收数据混淆在一起, 则无法正常进 行重排序以及宏分集合并, 所有数据错误, 导致实际业务不可用, 最终掉网。 For Wireless Network Controller 1 (Serving Radio Network Controller), it aggregates upstream data coming through all transmission paths. The radio network controller 1 (serving the radio network controller) configures information according to the currently recorded "enhanced dedicated channel transmission bearer mode information", that is, "Shared mode" information, unified processing. The radio network controller 1 (serving radio network controller) will transmit the enhanced dedicated channel uplink data frame in a single carrier manner from the node B2 and the radio network controller 2 (drift radio network controller), where " The uplink multiplexing information "meaning "single carrier" and coded to 0, the error is identified as the "main carrier" meaning of the same code 0. That is, the radio network controller 1 (serving radio network controller) will source the actual air interface from the node B2 and the radio network controller 2 (drift radio network controller) from the enhanced dedicated channel uplink data frame of the subcarrier. The erroneous identification is that the air interface is derived from the enhanced dedicated channel uplink data frame of the primary carrier, and the actual air interface from the node B1 is derived from the enhanced dedicated channel uplink data frame of the primary carrier, which is confused. Once the data received from different carriers is confused, the reordering and macro diversity cannot be performed normally, and all data errors are caused, resulting in the actual service being unavailable and eventually falling out of the network.
在图 6所示的场景下(和图 1的典型场景的差别在于节点 B2归属于无线 网络控制器 2 ) , 依照现有技术的配置方式, 以及对应的进行增强型专用信 道上行数据帧的传输, 无线网络控制器 1 (服务无线网络控制器)给节点 B1 和无线网络控制器 2 (漂移无线网络控制器) 配置增强型专用信道传输承载 模式为 "共享模式" , 无线网络控制器 2 (漂移无线网络控制器)给节点 B2 和节点 B3不配置任何增强型专用信道传输承载模式, 会出现如图 7所示: 节点 B 1接收了主辅两个载波上的同一个 MAC流- 1 , 放在同一个传输承 载 -1上发送给无线网络控制器 1。 在图示的 2个增强型专用信道上行数据帧 中, "上行复用信息" 分别填写为主载波或者辅载波对应的编码值, 来表示 为承载此数据帧的载波为主载波或者辅载波。 将增强型专用信道上行数据帧 传输到无线网络控制器 1。  In the scenario shown in FIG. 6 (the difference from the typical scenario of FIG. 1 is that the Node B2 belongs to the radio network controller 2), according to the configuration mode of the prior art, and corresponding transmission of the enhanced dedicated channel uplink data frame. , the radio network controller 1 (serving the radio network controller) configures the enhanced dedicated channel transmission bearer mode to "shared mode" for the node B1 and the radio network controller 2 (drift radio network controller), the radio network controller 2 (drift) The radio network controller does not configure any enhanced dedicated channel transmission bearer mode for node B2 and node B3, as shown in Figure 7: Node B 1 receives the same MAC stream on both the primary and secondary carriers - 1 It is sent to the radio network controller 1 on the same transport bearer-1. In the two enhanced dedicated channel uplink data frames shown in the figure, the "uplink multiplexing information" is respectively filled in the code value corresponding to the primary carrier or the secondary carrier, and is represented as the carrier carrying the data frame as the primary carrier or the secondary carrier. The enhanced dedicated channel uplink data frame is transmitted to the radio network controller 1.
节点 B2和节点 B3 , 以单载波的方式进行增强型专用信道上行数据帧的 传输。 也就是选择同一个 MAC 流放在同一个传输承载上发送, 设置增强型 专用信道上行数据帧中的上行复用信息为空, 或者增强型专用信道上行数据 帧中的上行复用信息被接收方忽略, 将增强型专用信道上行数据帧传输到无 线网络控制器 2 (漂移无线网络控制器) 。  Node B2 and Node B3 perform the transmission of the enhanced dedicated channel uplink data frame in a single carrier manner. That is, the same MAC stream is selected to be sent on the same transport bearer, and the uplink multiplexing information in the uplink data frame of the enhanced dedicated channel is set to be empty, or the uplink multiplexing information in the uplink data frame of the enhanced dedicated channel is ignored by the receiver. , transmitting the enhanced dedicated channel uplink data frame to the radio network controller 2 (drift radio network controller).
无线网络控制器 2处于漂移无线网络控制器的角色, 只能够透明转发从 节点 B2和节点 B3接收的增强型专用信道上行数据帧至无线网络控制器 1。 无线网络控制器 2无法对从节点 B2和节点 B3接收的增强型专用信道上行数 据帧的内容进行任何更改。 所以在 IUR接口上传输的增强型专用信道上行数 据帧的 "上行复用信息" 均为空且编码为 0。 The radio network controller 2 is in the role of a drift radio network controller and can only transparently forward the enhanced dedicated channel uplink data frames received from the Node B2 and the Node B3 to the radio network controller 1. The number of uplinks of the enhanced dedicated channel that the radio network controller 2 cannot receive from the node B2 and the node B3 Make any changes based on the contents of the frame. Therefore, the "uplink multiplexing information" of the enhanced dedicated channel uplink data frame transmitted on the IUR interface is empty and coded to zero.
对于无线网络控制器 1 (服务无线网络控制器) 而言, 其会聚了通过所 有的传输途径上来的上行数据。 无线网络控制器 1 (服务无线网络控制器) 根据当前的记录的 "增强型专用信道传输承载模式信息" 配置信息, 也就是 "共享模式" 信息, 进行统一处理。 无线网络控制器 1 (服务无线网络控制 器)将会把从无线网络控制器 2 (漂移无线网络控制器)转发过来的以单载 波的方式的增强型专用信道上行数据帧,其中的 "上行复用信息"本意为 "单 载波" 且编码为 0, 错误识别为同样编码为 0的 "主载波" 含义。 也就是无 线网络控制器 1 (服务无线网络控制器)将会把无线网络控制器 2 (漂移无线 网络控制器)转发过来的实际空口来源于主载波(节点 B2 )和辅载波(节点 B3 ) 的所有的增强型专用信道上行数据帧, 均错误识别为空口来源于主载波 的增强型专用信道上行数据帧,和从节点 B1过来的实际空口来源于主载波的 增强型专用信道上行数据帧, 混淆在一起。 一旦来源于不同载波接收数据混 淆在一起, 则无法正常进行重排序以及宏分集合并, 所有数据错误, 导致实 际业务不可用, 最终掉网。  For Wireless Network Controller 1 (Serving Radio Network Controller), it aggregates upstream data over all transmission paths. The radio network controller 1 (serving radio network controller) performs unified processing according to the currently recorded "enhanced dedicated channel transmission bearer mode information" configuration information, that is, "shared mode" information. The radio network controller 1 (serving radio network controller) will forward the enhanced dedicated channel uplink data frame in a single carrier manner from the radio network controller 2 (drift radio network controller), wherein "upward complex" The information "intended to be "single carrier" and coded to 0, the error is identified as the "main carrier" meaning of the same code 0. That is, the actual air interface forwarded by the radio network controller 1 (the serving radio network controller) from the radio network controller 2 (the drift radio network controller) is derived from the primary carrier (node B2) and the secondary carrier (node B3). All the enhanced dedicated channel uplink data frames are erroneously identified as the enhanced dedicated channel uplink data frame from the primary carrier, and the actual air interface from the node B1 is derived from the enhanced dedicated channel uplink data frame of the primary carrier. Together. Once the data received from different carriers is confusing together, the reordering and macro diversity cannot be performed normally, and all data errors are caused, resulting in the actual service being unavailable and eventually falling out of the network.
综上所述, 现有技术中的配置方式没有仔细考虑到所有可能出现的场景 实现, 因此, 可能会出现来源于不同载波接收数据混淆在一起的问题, 无线 网络控制器无法区别来源于主载波接收数据还是来源于辅载波接收数据, 也 就无法正常进行重排序以及宏分集合并, 所有数据错误, 导致实际业务不可 用, 最终掉网。  In summary, the configuration in the prior art does not carefully consider all possible scenario implementations. Therefore, there may be a problem that the received data from different carriers is confused. The wireless network controller cannot distinguish the primary carrier. The received data is still derived from the secondary carrier receiving data, and the reordering and macro diversity are not performed normally, and all the data errors are caused, so that the actual service is unavailable, and eventually the network is dropped.
发明内容 Summary of the invention
本发明提供一种增强型专用信道传输上行数据的方法及***, 从而使得 服务无线网络控制器可以准确地区分来源于不同载波的接收数据。  The present invention provides a method and system for transmitting uplink data on an enhanced dedicated channel, so that the serving radio network controller can accurately distinguish received data originating from different carriers.
为了解决上述问题,本发明公开了一种增强型专用信道传输数据的方法, 包括:  In order to solve the above problem, the present invention discloses a method for transmitting data by using an enhanced dedicated channel, including:
在建立多载波增强型专用信道小区时, 无线网络控制器将所述多载波增 强型专用信道小区中的增强型专用信道的传输承载模式的信息通知给管辖该 小区的节点 B, 其中, 所述传输承载模式包括共享模式; When establishing a multi-carrier enhanced dedicated channel cell, the radio network controller increases the multi-carrier The information about the transmission bearer mode of the enhanced dedicated channel in the strong dedicated channel cell is notified to the node B that is in charge of the cell, where the transport bearer mode includes a sharing mode;
所述节点 B接收所述传输承载模式的信息, 并按照所述传输承载模式为 所述多载波增强型专用信道小区中使用多载波高速上行分组接入技术的终端 传输上行数据, 其中, 当所述传输承载模式信息为共享模式时, 所述节点 B 在所传输的上行数据中携带承载该上行数据的载波的载波标识信息。  The Node B receives the information of the transmission bearer mode, and transmits uplink data to the terminal that uses the multi-carrier high-speed uplink packet access technology in the multi-carrier enhanced dedicated channel cell according to the transmission bearer mode, where When the transmission bearer mode information is in the shared mode, the Node B carries the carrier identification information of the carrier carrying the uplink data in the transmitted uplink data.
上述方法还可包括: 在建立多载波增强型专用信道小区时, 无线网络控 制器将多载波增强型专用信道小区中用于承载上行数据的载波的载波标识信 息发送给节点 B。  The above method may further include: when establishing the multi-carrier enhanced dedicated channel cell, the wireless network controller sends the carrier identification information of the carrier for carrying the uplink data in the multi-carrier enhanced dedicated channel cell to the node B.
节点 B在所传输的上行数据中携带承载该上行数据的载波的载波标识信 息可以指: 节点 B将传输的上行数据帧中的 "上行复用信息" 填写为承载该 上行数据的载波的载波标识信息。 无线网络控制器可以为服务无线网络控制 器; 该方法还可包括: 服务无线网络控制器接收节点 B传输的多载波增强型 专用信道小区中使用多载波高速上行分组接入技术的终端的上行数据, 若判 断小区的增强型专用信道的传输承载模式为共享模式,则读取上行数据的"上 行复用信息" , 获取承载该上行数据的载波标识信息。  The carrier identification information of the carrier carrying the uplink data in the transmitted uplink data may refer to: the Node B fills in the uplink multiplexing information in the transmitted uplink data frame as the carrier identifier of the carrier carrying the uplink data. information. The radio network controller may be a serving radio network controller; the method may further include: the serving radio network controller receiving the uplink data of the terminal using the multi-carrier high-speed uplink packet access technology in the multi-carrier enhanced dedicated channel cell transmitted by the Node B If it is determined that the transmission bearer mode of the enhanced dedicated channel of the cell is the shared mode, the uplink multiplexing information of the uplink data is read, and the carrier identification information that carries the uplink data is obtained.
无线网络控制器可以为漂移无线网络控制器; 该方法还可包括: 服务无 线网络控制器接收节点 B传输的多载波增强型专用信道小区中使用多载波高 速上行分组接入技术的终端的上行数据, 若判断小区的增强型专用信道的传 输承载模式为共享模式, 则读取上行数据的 "上行复用信息" , 获取承载该 上行数据的载波标识信息。  The radio network controller may be a drift radio network controller; the method may further include: the serving radio network controller receiving the uplink data of the terminal using the multi-carrier high-speed uplink packet access technology in the multi-carrier enhanced dedicated channel cell transmitted by the Node B If it is determined that the transmission bearer mode of the enhanced dedicated channel of the cell is the shared mode, the uplink multiplexing information of the uplink data is read, and the carrier identification information that carries the uplink data is obtained.
本发明还公开了一种增强型专用信道传输数据的***, 包括无线网络控 制器和节点 B, 其中:  The invention also discloses an enhanced dedicated channel for transmitting data, comprising a wireless network controller and a node B, wherein:
所述无线网络控制器设置成: 在建立多载波增强型专用信道小区时, 将 所述多载波增强型专用信道小区中的增强型专用信道的传输承载模式的信息 通知给管辖该小区的节点 B, 其中, 所述传输承载模式包括共享模式;  The radio network controller is configured to: notify, when establishing a multi-carrier enhanced dedicated channel cell, information about a transmission bearer mode of the enhanced dedicated channel in the multi-carrier enhanced dedicated channel cell to a node B that governs the cell The transmission bearer mode includes a sharing mode;
所述节点 B设置成: 接收所述传输承载模式信息, 并按照所述传输承载 模式为所述多载波增强型专用信道小区中使用多载波高速上行分组接入技术 的终端传输上行数据, 其中, 当所述传输承载模式为共享模式时, 在所传输 的上行数据中携带承载该上行数据的载波的载波标识信息。 The Node B is configured to: receive the transmission bearer mode information, and use the multi-carrier high-speed uplink packet access technology in the multi-carrier enhanced dedicated channel cell according to the transmission bearer mode. The terminal transmits the uplink data, where, when the transmission bearer mode is the shared mode, the transmitted uplink data carries the carrier identification information of the carrier that carries the uplink data.
上述***中, 无线网络控制器还可设置成: 在建立多载波增强型专用信 道小区时, 将多载波增强型专用信道小区中用于承载上行数据的载波的载波 标识信息发送给所述节点 B。  In the foregoing system, the radio network controller may be further configured to: when establishing the multi-carrier enhanced dedicated channel cell, send carrier identification information of the carrier for carrying the uplink data in the multi-carrier enhanced dedicated channel cell to the node B .
节点 B可设置成通过如下方式在所传输的上行数据中携带承载该上行数 据的载波标识信息: 将传输的上行数据帧中的 "上行复用信息" 填写为承载 该上行数据的载波的载波标识信息。 无线网络控制器可以为服务无线网络控 制器; 服务无线网络控制器还可设置成: 接收节点 B传输的多载波增强型专 用信道小区中使用多载波高速上行分组接入技术的终端的上行数据, 以及在 小区的增强型专用信道的传输承载模式为共享模式时, 读取所述上行数据的 "上行复用信息" , 获取承载该上行数据的载波标识信息。  The Node B may be configured to carry the carrier identification information that carries the uplink data in the transmitted uplink data by: filling in the “uplink multiplexing information” in the transmitted uplink data frame into the carrier identifier of the carrier carrying the uplink data. information. The radio network controller may be a serving radio network controller; the serving radio network controller may be further configured to: receive uplink data of the terminal using the multi-carrier high-speed uplink packet access technology in the multi-carrier enhanced dedicated channel cell transmitted by the Node B, And when the transmission bearer mode of the enhanced dedicated channel of the cell is the shared mode, the uplink multiplexing information of the uplink data is read, and the carrier identification information that carries the uplink data is obtained.
无线网络控制器可以为漂移无线网络控制器; 该***还可包括服务无线 网络控制器, 该服务无线网络控制器可设置成: 接收节点 B传输的多载波增 强型专用信道小区中使用多载波高速上行分组接入技术的终端的上行数据, 以及在小区的增强型专用信道的传输承载模式为共享模式时, 读取上行数据 的 "上行复用信息" , 获取承载该上行数据的载波标识信息。  The radio network controller may be a drift radio network controller; the system may further include a serving radio network controller, the service radio network controller may be configured to: use multi-carrier high speed in a multi-carrier enhanced dedicated channel cell transmitted by the receiving Node B The uplink data of the terminal of the uplink packet access technology and the uplink bearer information of the uplink data are read when the transmission bearer mode of the enhanced dedicated channel of the cell is the shared mode, and the carrier identification information that carries the uplink data is obtained.
本发明技术方案, 避免了来源于不同载波接收数据混淆在一起的问题, 使得汇聚方的无线网络控制器能够清楚区别来源于各个载波接收数据情况, 确保终端实际业务数据的正常发送,确保双载波高速上行分组接入技术可用。  The technical solution of the invention avoids the problem that the received data from different carriers are confused, so that the wireless network controller of the convergence party can clearly distinguish the data received from each carrier, ensure the normal transmission of the actual service data of the terminal, and ensure the dual carrier. High speed uplink packet access technology is available.
附图概述 BRIEF abstract
图 1 是典型的双载波高速上行分组接入技术的场景示意图;  FIG. 1 is a schematic diagram of a typical dual-carrier high-speed uplink packet access technology;
图 2 是 "共享模式" 的增强型专用信道上行数据帧传输示意图; 图 3是 "分离模式" 的增强型专用信道上行数据帧传输示意图; 图 4是第 2个双载波高速上行分组接入技术的场景示意图;  2 is a schematic diagram of an enhanced dedicated channel uplink data frame transmission of "shared mode"; FIG. 3 is a schematic diagram of an enhanced dedicated channel uplink data frame transmission of "separation mode"; FIG. 4 is a second dual carrier high speed uplink packet access technique Schematic diagram of the scene;
图 5是第 2个双载波高速上行分组接入技术的场景下的增强型专用信道 上行数据帧传输示意图; 图 6是第 3个双载波高速上行分组接入技术的场景示意图; 图 7是第 3个双载波高速上行分组接入技术的场景下的增强型专用信道 上行数据帧传输示意图; 5 is a schematic diagram of an enhanced dedicated channel uplink data frame transmission in a scenario of a second dual-carrier high-speed uplink packet access technology; 6 is a schematic diagram of a scenario of a third dual-carrier high-speed uplink packet access technology; FIG. 7 is a schematic diagram of an enhanced dedicated channel uplink data frame transmission in a scenario of a third dual-carrier high-speed uplink packet access technology;
图 8是本发明增强型专用信道传输上行数据的流程图;  8 is a flow chart of transmitting uplink data of the enhanced dedicated channel of the present invention;
图 9 (a)是实施例 1的场景示意图;  Figure 9 (a) is a schematic diagram of a scenario of Embodiment 1;
图 9 (b)是实施例 1的处理流程图;  Figure 9 (b) is a process flow diagram of Embodiment 1;
10 (a)是实施例 2的场景示意图;  10 (a) is a schematic diagram of the scenario of Embodiment 2;
图 10 (b)是实施例 2的处理流程图;  Figure 10 (b) is a process flow diagram of Embodiment 2;
图 11 (a)是实施例 3的场景示意图;  Figure 11 (a) is a schematic diagram of a scenario of Embodiment 3;
图 11 (b)是实施例 3的处理流程图;  Figure 11 (b) is a process flow diagram of Embodiment 3;
图 12 (a)是实施例 4的场景示意图;  Figure 12 (a) is a schematic diagram of a scenario of Embodiment 4;
图 12 (b)是实施例 4的处理流程图;  Figure 12 (b) is a process flow diagram of Embodiment 4;
图 13 (a)是实施例 5的场景示意图;  Figure 13 (a) is a schematic diagram of a scenario of Embodiment 5;
图 13 (b)是实施例 5的处理流程图;  Figure 13 (b) is a process flow diagram of Embodiment 5;
图 14 (a)是实施例 6的场景示意图;  Figure 14 (a) is a schematic diagram of a scenario of Embodiment 6;
14 (b)是实施例 6的处理流程图。  14(b) is a flowchart of the processing of the embodiment 6.
本发明的较佳实施方式 Preferred embodiment of the invention
本发明的主要构思是, 针对使用多载波高速上行分组接入技术的终端, 在节点 B或者漂移无线网络控制器中建立多载波增强型专用信道小区时, 由 服务无线网络控制器或者漂移无线网络控制器通知给节点 B所配置的增强型 专用信道的传输承载模式信息, 节点 B或漂移无线网络控制器依照所获取的 增强型专用信道的传输承载模式信息进行增强型专用信道上行数据帧的传 输, 其中, 当节点 B或漂移无线网络控制器所获取的增强型专用信道传输承 载模式是共享模式时, 节点 B或漂移无线网络控制器在所传输的上行数据帧 中携带承载该上行数据的载波的载波标识, 这样, 服务网络控制器就可以从 接收的上行数据中获取载波标识, 以获知该上行数据是来源于哪个载波的, 从而解决上述分析各个场景下的来源于不同载波接收数据混淆在一起, 导致 的实际业务不可用, 现有双载波高速上行分组接入技术不可用的问题。 The main idea of the present invention is to provide a multi-carrier enhanced dedicated channel cell in a Node B or a drift radio network controller for a terminal using a multi-carrier high-speed uplink packet access technology, by a serving radio network controller or a drift radio network. The controller notifies the transmission bearer mode information of the enhanced dedicated channel configured by the Node B, and the Node B or the drift radio network controller performs the transmission of the enhanced dedicated channel uplink data frame according to the acquired transmission bearer mode information of the enhanced dedicated channel. The Node B or the drift radio network controller carries the carrier carrying the uplink data in the transmitted uplink data frame when the enhanced dedicated channel transmission bearer mode acquired by the Node B or the drift radio network controller is the shared mode. The carrier identifier, so that the serving network controller can obtain the carrier identifier from the received uplink data, so as to know which carrier the uplink data is derived from, Therefore, the problem that the received data from different carriers is confusing in each scenario and the actual service is unavailable is available, and the existing dual-carrier high-speed uplink packet access technology is unavailable.
下面结合附图对本发明所述技术方案的实施作进一步的详细描述: 一种强型专用信道传输上行数据的***, 至少包括服务无线网络控制器 和节点 B。  The implementation of the technical solution of the present invention is further described in detail below with reference to the accompanying drawings. A system for transmitting uplink data by a strong dedicated channel includes at least a serving radio network controller and a node B.
服务无线网络控制器, 主要用于在针对使用多载波高速上行分组接入技 术的终端建立多载波增强型专用信道小区时, 将多载波增强型专用信道小区 中的增强型专用信道的传输承载模式信息通知给管辖该小区的节点 B,其中, 传输承载模式信息包括共享模式和分离模式;  A service radio network controller is mainly used for transmitting a bearer mode of an enhanced dedicated channel in a multi-carrier enhanced dedicated channel cell when establishing a multi-carrier enhanced dedicated channel cell for a terminal using a multi-carrier high-speed uplink packet access technology The information is notified to the node B that governs the cell, where the transport bearer mode information includes a sharing mode and a split mode;
以及用于接收节点发送的增强型专用信道上行数据帧, 当该增强型专用 信道的传输模式为共享模式时, 还用于读取该上行数据帧中的 "上行复用信 息" , 即获知了承载该上行数据的载波;  And the enhanced dedicated channel uplink data frame sent by the receiving node, when the transmission mode of the enhanced dedicated channel is the shared mode, is also used to read the "uplink multiplexing information" in the uplink data frame, that is, it is known. a carrier carrying the uplink data;
当***中还包括漂移无线网络控制器, 服务无线网络控制器还可以通过 漂移无线网络控制器将增强型专用信道的传输承载模式信息通知给节点 B; 节点 B主要用于接收无线网络控制器发送的传输承载模式信息, 按照所 述传输承载模式为多载波增强型专用信道小区中使用多载波高速上行分组接 入技术的终端传输上行数据, 其中, 当接收的传输承载模式信息为共享模式 时, 节点 B还在所传输的上行数据中携带承载该上行数据的载波的载波标识 信息。  When the system further includes a drift radio network controller, the serving radio network controller may further notify the node B of the transmission bearer mode information of the enhanced dedicated channel by using the drift radio network controller; the node B is mainly used for receiving the radio network controller to send The transmission bearer mode information, according to the transmission bearer mode, the terminal that uses the multi-carrier high-speed uplink packet access technology in the multi-carrier enhanced dedicated channel cell transmits uplink data, where when the received transport bearer mode information is the shared mode, The Node B also carries the carrier identification information of the carrier carrying the uplink data in the transmitted uplink data.
在其他应用场景中, 在建立多载波增强型专用信道小区时, 服务无线网 络控制器还用于将通知节点 B所述多载波增强型专用信道小区中用于承载上 行数据的载波的载波标识信息, 这样, 当增强型专用信道的传输承载模式为 共享模式时,节点 B在所传输的上行数据中携带所接收的载波标识信息即可, 其中, 服务无线网络控制器可以通过一条消息将增强型专用信道的传输承载 模式信息和承载上行数据的载波的载波标识信息同时下发给节点 B, 也可以 通过不同的消息, 将增强型专用信道的传输承载模式信息和承载上行数据的 载波的载波标识信息分别下发给节点 B。  In other application scenarios, when establishing a multi-carrier enhanced dedicated channel cell, the serving radio network controller is further configured to notify the Node B of the carrier identification information of the carrier used to carry the uplink data in the multi-carrier enhanced dedicated channel cell. In this way, when the transmission bearer mode of the enhanced dedicated channel is the shared mode, the Node B may carry the received carrier identification information in the transmitted uplink data, where the serving radio network controller may enhance the type through a message. The transmission bearer mode information of the dedicated channel and the carrier identification information of the carrier carrying the uplink data are simultaneously sent to the Node B, and the transmission bearer mode information of the enhanced dedicated channel and the carrier identifier of the carrier carrying the uplink data may be transmitted through different messages. The information is sent to Node B.
下面介绍上述***, 通过增强型专用信道传输上行数据的具体过程, 如 图 8所示, 包括以下步骤: The following describes the specific process of the above system for transmitting uplink data through an enhanced dedicated channel, such as As shown in Figure 8, the following steps are included:
步骤 800: 针对使用多载波高速上行分组接入技术的终端, 节点 B或漂 移无线网络控制器建立多载波增强型专用信道小区时, 服务无线网络控制器 将通知节点 B该小区中增强型专用信道的传输承载模式信息;  Step 800: When a multi-carrier enhanced dedicated channel cell is established for a terminal using a multi-carrier high-speed uplink packet access technology, the serving radio network controller notifies the node B of the enhanced dedicated channel in the cell. Transmission bearer mode information;
其中, 服务无线网络控制器将直接通知节点 B, 或者通过漂移无线网络 控制器通知节点 B增强型专用信道传输承载模式信息;  The serving radio network controller directly notifies the node B, or notifies the node B of the enhanced dedicated channel transmission bearer mode information by using the drift radio network controller;
"多载波增强型专用信道小区" 是指多载波中其一载波的上行方向使用 增强型专用信道的小区, 也就是说在增强型专用信道小区中, 该小区对应的 载波为多载波中的任一载波, 具体地, 多载波增强型专用信道小区包括主载 波增强型专用信道小区、 辅载波增强型专用信道小区、 第三载波增强型专用 信道小区等等。  The "multi-carrier enhanced dedicated channel cell" refers to a cell in which the enhanced dedicated channel is used in the uplink direction of one of the multiple carriers, that is, in the enhanced dedicated channel cell, the carrier corresponding to the cell is any of the multiple carriers. A carrier, specifically, a multi-carrier enhanced dedicated channel cell includes a primary carrier enhanced dedicated channel cell, a secondary carrier enhanced dedicated channel cell, a third carrier enhanced dedicated channel cell, and the like.
"增强型专用信道传输承载模式信息" 包括 "共享模式" 和 "分离模 式" 。 其中: "共享模式" 是指在所有上行载波上接收的同一个 MAC 流放 在同一个传输承载上发送; "分离模式" 是指在从不同的上行载波上接收的 每一个 MAC流放在不同的传输承载上发送;  "Enhanced Dedicated Channel Transport Bearer Mode Information" includes "Shared Mode" and "Separate Mode". Where: "shared mode" means that the same MAC stream received on all uplink carriers is sent on the same transport bearer; "separate mode" means that each MAC stream received on a different uplink carrier is placed in a different transmission. Send on bearer;
建立多载波增强型专用信道小区的过程是指无线链路建立过程, 无线链 路建立过程中服务无线网络控制器使用 "无线链路建立请求" 信令将增强型 专用信道的传输承载模式信息发送给节点 B。  The process of establishing a multi-carrier enhanced dedicated channel cell refers to a radio link establishment process in which a serving radio network controller transmits a transmission bearer mode information of an enhanced dedicated channel using a "radio link setup request" signaling during a radio link setup process. Give node B.
步骤 810: 节点 B获得增强型专用信道的传输承载模式信息, 并依照所 获取的增强型专用信道的传输承载模式信息进行增强型专用信道上行数据帧 的传输, 其中, 当增强型专用信道的传输承载模式是使用 "共享模式" 时, 节点 B在上行数据帧中携带承载该上行数据的载波的载波标识信息;  Step 810: The Node B obtains the transmission bearer mode information of the enhanced dedicated channel, and performs the transmission of the enhanced dedicated channel uplink data frame according to the acquired transmission bearer mode information of the enhanced dedicated channel, where the enhanced dedicated channel is transmitted. When the bearer mode is the "shared mode", the Node B carries the carrier identification information of the carrier carrying the uplink data in the uplink data frame;
其中, 当所获取的增强型专用信道的传输承载模式是使用 "分离模式" 时, 节点 B将增强型专用信道上行数据帧中的上行复用信息设置为空, 或者 增强型专用信道上行数据帧中的上行复用信息被接收方忽略; 当所获取的增 强型专用信道的传输承载模式是使用 "共享模式" 时, 节点 B在上行数据帧 中携带承载该上行数据的载波的载波标识信息的具体方式为: 将增强型专用 信道上行数据帧中的上行复用信息信元填写为承载此数据帧的载波的载波标 识。 对于双载波, 在上行复用信元中所填写的载波标识可以是主载波或者辅 载波(也可以是第一载波或第二载波) ; 对于三载波, 在上行复用信元中所 填写的载波标识可以是主载波、 第二载波或第三载波; 对于四载波, 在上行 复用信元中所填写的载波标识可以是主载波、 第二载波、 第三载波或第四载 波。 Wherein, when the acquired transmission bearer mode of the enhanced dedicated channel is using the "separation mode", the Node B sets the uplink multiplexing information in the uplink channel of the enhanced dedicated channel to be empty, or in the uplink data frame of the enhanced dedicated channel. The uplink multiplexing information is ignored by the receiver; when the acquired transmission bearer mode of the enhanced dedicated channel is the "shared mode", the specific manner in which the Node B carries the carrier identification information of the carrier carrying the uplink data in the uplink data frame For: filling the uplink multiplexing information cell in the enhanced dedicated channel uplink data frame into the carrier identifier of the carrier carrying the data frame Knowledge. For the dual carrier, the carrier identifier filled in the uplink multiplexed cell may be a primary carrier or a secondary carrier (which may also be a first carrier or a second carrier); for the three carriers, filled in the uplink multiplexed cell The carrier identifier may be a primary carrier, a second carrier, or a third carrier. For four carriers, the carrier identifier filled in the uplink multiplexed cell may be a primary carrier, a second carrier, a third carrier, or a fourth carrier.
当增强型专用信道的传输承载模式是使用 "共享模式" 时, 节点 B选择 所有上行载波上接收的同一个 MAC 流放在一个传输承载上发送; 当增强型 专用信道的传输承载模式是使用 "分离模式" 时, 节点 B选择不同的上行载 波上接收的每一个 MAC流放在不同的传输承载上发送;  When the transmission bearer mode of the enhanced dedicated channel is "shared mode", the Node B selects the same MAC stream received on all uplink carriers to be transmitted on one transmission bearer; when the transmission mode of the enhanced dedicated channel is "separated" In the mode, the Node B selects each MAC stream received on a different uplink carrier to be sent on a different transport bearer;
增强型专用信道上行数据帧"是指类型 2的增强型专用信道上行数据帧, 也就是用于多载波技术的数据帧类型;  The enhanced dedicated channel uplink data frame "refers to the type 2 enhanced dedicated channel uplink data frame, that is, the data frame type used for the multi-carrier technology;
节点 B应用所获得的增强型专用信道传输承载模式信息于自身下辖的多 载波的各个频率层上的增强型专用信道小区, 进行增强型专用信道上行数据 帧的传输。  The Node B applies the enhanced dedicated channel transmission bearer mode information to the enhanced dedicated channel cell on each frequency layer of the multi-carrier under its own control, and performs the transmission of the enhanced dedicated channel uplink data frame.
步骤 820: 服务无线网络控制器接收节点 B发送的增强型专用信道上行 数据帧, 根据该增强型专用信道的传输承载模式进行相应的操作, 最终可以 区分来源于不同载波的接收数据;  Step 820: The serving radio network controller receives the enhanced dedicated channel uplink data frame sent by the node B, performs corresponding operations according to the transmission bearer mode of the enhanced dedicated channel, and finally can distinguish the received data from different carriers.
其中, 当该增强型专用信道的传输承载模式为共享模式时, 服务无线网 络控制器读取所接收的上行数据帧的 "上行复用信息" , 以获取承载该上行 数据的载波标识信息, 即确定该上行数据是来源于哪个载波的;  The serving radio network controller reads the "uplink multiplexing information" of the received uplink data frame to obtain the carrier identification information that carries the uplink data, that is, when the transmission bearer mode of the enhanced dedicated channel is the shared mode, that is, Determining which carrier the uplink data is derived from;
当该增强型专用信道的传输承载模式为分离模式时 , 服务无线网络控制 器即可通过传输承载唯一地确定承载该上行数据的载波, 即确定该上行数据 是来源于哪个载波的。  When the transmission bearer mode of the enhanced dedicated channel is the split mode, the serving radio network controller can uniquely determine the carrier carrying the uplink data through the transmission bearer, that is, determine which carrier the uplink data is derived from.
在其他应用场景中, 在建立多载波增强型专用信道小区时, 服务无线网 络控制器还可以将通知节点 B所述多载波增强型专用信道小区中用于承载上 行数据的载波的载波标识信息, 这样, 当增强型专用信道的传输承载模式为 共享模式时,节点 B在所传输的上行数据中携带所接收的载波标识信息即可, 其中, 服务无线网络控制器可以通过一条消息将增强型专用信道的传输承载 模式信息和承载上行数据的载波的载波标识信息同时下发给节点 B, 也可以 通过不同的消息, 将增强型专用信道的传输承载模式信息和承载上行数据的 载波的载波标识信息分别下发给节点 B。 In other application scenarios, when establishing a multi-carrier enhanced dedicated channel cell, the serving radio network controller may further notify the Node B of the carrier identification information of the carrier used to carry the uplink data in the multi-carrier enhanced dedicated channel cell. In this way, when the transmission bearer mode of the enhanced dedicated channel is the shared mode, the Node B may carry the received carrier identification information in the transmitted uplink data, where the serving radio network controller may use the enhanced dedicated mode by using a message. Channel transmission bearer The mode information and the carrier identification information of the carrier carrying the uplink data are simultaneously sent to the node B, and the transmission bearer mode information of the enhanced dedicated channel and the carrier identification information of the carrier carrying the uplink data are respectively sent to the different messages. Node B.
下面结合具体应用场景, 详细说明上述过程。  The above process will be described in detail below in conjunction with specific application scenarios.
实施例 1  Example 1
本实施例中, 设定场景如图 9 ( a )所示: 终端目前仅在节点 B1下的小 区 1 (主载波)和小区 2 (辅载波)下使用双载波高速上行分组接入技术。 无 线网络控制器 1 (服务无线网络控制器)将建立增强型专用信道小区: 节点 B2下小区 3 (辅载波) 。 对于节点 B2而言, 建立多载波增强型专用信道小 区即指第一次建立多载波中辅载波频率层上的上行方向使用增强型专用信道 的小区。  In this embodiment, the setting scenario is as shown in Figure 9 (a): The terminal currently uses the dual-carrier high-speed uplink packet access technology only in the small area 1 (primary carrier) and the cell 2 (secondary carrier) under the node B1. The Radio Network Controller 1 (Serving Radio Network Controller) will establish an Enhanced Dedicated Channel Cell: Cell 2 (Subcarrier) under Node B2. For the node B2, the establishment of the multi-carrier enhanced dedicated channel area means that the cell using the enhanced dedicated channel in the uplink direction on the secondary carrier frequency layer in the multi-carrier is established for the first time.
在此场景中, 增强型专用信道传输上行数据的过程如图 9 ( b )所示, 包 括以下步骤:  In this scenario, the process of transmitting uplink data on the enhanced dedicated channel is shown in Figure 9(b), which includes the following steps:
步骤 910: 针对使用双载波高速上行分组接入技术的终端, 无线网络控 制器 1下的节点 B2建立多载波增强型专用信道小区(小区 3 , 为多载波中辅 载波频率层上的上行方向使用增强型专用信道的小区) 时, 无线网络控制器 1在无线链路建立过程中使用 "无线链路建立请求" 信令发送给节点 B2, 在 此信令中设定增强型专用信道传输承载模式信息为 "共享模式" , 节点 B2 接收获取增强型专用信道传输承载模式信息。  Step 910: For a terminal using the dual-carrier high-speed uplink packet access technology, the Node B2 under the radio network controller 1 establishes a multi-carrier enhanced dedicated channel cell (Cell 3, which is used in the uplink direction on the secondary carrier frequency layer in the multi-carrier). When the cell of the enhanced dedicated channel is used, the radio network controller 1 sends a "radio link setup request" signaling to the node B2 during the radio link setup process, and sets an enhanced dedicated channel transport bearer mode in this signaling. The information is "shared mode", and the node B2 receives the enhanced dedicated channel transmission bearer mode information.
步骤 920: 节点 B2将所获得的增强型专用信道传输承载模式信息应用于 自身所管辖的多载波的各个频率层上的增强型专用信道小区, 也就是小区 3 (这个场景下只有一个小区) , 进行增强型专用信道上行数据帧的传输, 节 点 B2依照 "共享模式"选择双载波中所有上行载波上接收的同一个 MAC流 放在一个传输承载上发送,也就是放在传输承载 1上发送, 并且节点 B2将增 强型专用信道上行数据帧中的上行复用信息信元填写为承载此数据帧的载波 的载波标识, 也就是辅载波的标识;  Step 920: The Node B2 applies the obtained enhanced dedicated channel transmission bearer mode information to the enhanced dedicated channel cell on each frequency layer of the multi-carrier under its jurisdiction, that is, the cell 3 (only one cell in this scenario), Performing transmission of the enhanced dedicated channel uplink data frame, and the Node B2 selects the same MAC stream received on all the uplink carriers in the dual carrier according to the "shared mode" to be transmitted on one transport bearer, that is, is transmitted on the transport bearer 1, and The Node B2 fills in the uplink multiplexing information cell in the enhanced dedicated channel uplink data frame as the carrier identifier of the carrier carrying the data frame, that is, the identifier of the secondary carrier;
其中,节点 B2用类型 2的增强型专用信道上行数据帧( E-DCH UL DATA FRAME type 2 )进行传输。 步骤 930: 服务无线网络控制器接收节点 B发送的增强型专用信道上行 数据帧, 发现该增强型专用信道的传输承载模式为共享模式, 故读取该上行 数据帧的 "上行复用信息" 为辅载波的标识, 即可以知道该上行数据分来源 于辅载波。 Among them, the node B2 transmits with the type 2 enhanced dedicated channel uplink data frame (E-DCH UL DATA FRAME type 2). Step 930: The serving radio network controller receives the enhanced dedicated channel uplink data frame sent by the Node B, and finds that the enhanced bearer mode of the enhanced dedicated channel is the shared mode, so the "uplink multiplexing information" of the uplink data frame is read as The identifier of the secondary carrier, that is, the uplink data is learned from the secondary carrier.
上述流程中, 在建立多载波增强型专用信道小区时, 无线网络控制器 1 In the above process, when establishing a multi-carrier enhanced dedicated channel cell, the radio network controller 1
(即服务无线网络控制器)还可以将多载波增强型专用信道小区中用于承载 上行数据的载波的载波标识(即辅载波标识)信息通知给节点 B, 这样, 节 点 B在所传输的上行数据中携带所接收的载波标识信息即可。 (ie, the serving radio network controller) may also notify the Node B of the carrier identifier (ie, the secondary carrier identifier) information of the carrier used to carry the uplink data in the multi-carrier enhanced dedicated channel cell, so that the Node B is in the transmitted uplink. The data carries the received carrier identification information.
实施例 2  Example 2
本实施例中, 设定场景如图 10 ( a )所示: 终端目前仅在节点 B1下的小 区 1 (主载波)和小区 2 (辅载波)下使用双载波高速上行分组接入技术。 无 线网络控制器 1 (服务无线网络控制器)将建立增强型专用信道小区: 节点 B2下小区 3 (辅载波) 。 对于节点 B2而言, 是第一次建立多载波增强型专 用信道小区, 也就是第一次建立多载波中辅载波频率层上的上行方向使用增 强型专用信道的小区。  In this embodiment, the setting scenario is as shown in FIG. 10( a ): The terminal currently uses the dual-carrier high-speed uplink packet access technology only in the cell 1 (primary carrier) and the cell 2 (secondary carrier) under the node B1. The Radio Network Controller 1 (Serving Radio Network Controller) will establish an Enhanced Dedicated Channel Cell: Cell 2 (Subcarrier) under Node B2. For Node B2, it is the first time to establish a multi-carrier enhanced dedicated channel cell, that is, to establish a cell in the uplink direction using the enhanced dedicated channel in the uplink direction on the secondary carrier frequency layer in the multi-carrier.
在此场景中, 增强型专用信道传输上行数据的过程如图 10 ( b )所示, 包括以下步骤:  In this scenario, the process of transmitting uplink data by the enhanced dedicated channel is as shown in FIG. 10(b), and includes the following steps:
步骤 1010: 针对使用双载波高速上行分组接入技术的终端, 无线网络控 制器 1下的节点 B2建立多载波增强型专用信道小区(小区 3 , 为多载波中辅 载波频率层上的上行方向使用增强型专用信道的小区) 时, 无线网络控制器 1在无线链路建立过程中使用 "无线链路建立请求" 信令发送给节点 B2, 在 此信令中设定增强型专用信道传输承载模式信息为 "分离模式" , 节点 B2 接收并获得增强型专用信道传输承载模式信息;  Step 1010: For a terminal using the dual-carrier high-speed uplink packet access technology, the Node B2 under the radio network controller 1 establishes a multi-carrier enhanced dedicated channel cell (Cell 3, which is used in the uplink direction on the secondary carrier frequency layer in the multi-carrier). When the cell of the enhanced dedicated channel is used, the radio network controller 1 sends a "radio link setup request" signaling to the node B2 during the radio link setup process, and sets an enhanced dedicated channel transport bearer mode in this signaling. The information is "separate mode", and the node B2 receives and obtains the enhanced dedicated channel transmission bearer mode information;
步骤 1020: 节点 B2将所获得的增强型专用信道的传输承载模式信息应 用于自身管辖的多载波的各个频率层上的增强型专用信道小区, 也就是小区 3 (这个场景下只有一个小区), 进行增强型专用信道上行数据帧的传输, 节 点 B2依照 "分离模式"选择多载波中从每一个不同的上行载波上接收的每一 个 MAC 流放在一个传输承载上发送, 也就是放在辅载波对应的传输承载 3 上发送。 节点 B2依照 "分离模式"设置增强型专用信道上行数据帧中的上行 复用信息为空, 或者增强型专用信道上行数据帧中的上行复用信息被接收方 忽略; Step 1020: The Node B2 applies the obtained transmission bearer mode information of the enhanced dedicated channel to the enhanced dedicated channel cell on each frequency layer of the multi-carrier under its jurisdiction, that is, the cell 3 (only one cell in this scenario), Performing transmission of the enhanced dedicated channel uplink data frame, the Node B2 selects each MAC stream received from each different uplink carrier in the multi-carrier according to the "separation mode" to be transmitted on one transmission bearer, that is, corresponding to the secondary carrier. The transmission is carried on bearer 3. Node B2 sets the uplink in the enhanced dedicated channel uplink data frame according to the "separation mode" The multiplexing information is empty, or the uplink multiplexing information in the uplink data frame of the enhanced dedicated channel is ignored by the receiver;
其中, 节点 B2用类型 2的增强型专用信道上行数据帧进行传输。  Among them, the node B2 transmits with the type 2 enhanced dedicated channel uplink data frame.
步骤 1030: 服务无线网络控制器接收节点 B依照 "分离模式"发送的增 强型专用信道上行数据帧, 通过传输承载即可获知该上行数据分来源于哪一 个载波。  Step 1030: The serving radio network controller receives the enhanced dedicated channel uplink data frame sent by the node B according to the "separation mode", and obtains which carrier the uplink data is derived from by transmitting the bearer.
上述流程中, 在建立多载波增强型专用信道小区时, 无线网络控制器 1 (即服务无线网络控制器)还可以将多载波增强型专用信道小区中用于承载 上行数据的载波的载波标识信息通知给节点 B。  In the above process, when establishing a multi-carrier enhanced dedicated channel cell, the radio network controller 1 (ie, the serving radio network controller) may further use the carrier identification information of the carrier used to carry the uplink data in the multi-carrier enhanced dedicated channel cell. Notify to Node B.
实施例 3  Example 3
本实施例中, 设定场景如图 11 ( a )所示: 终端目前仅在节点 B1下的小 区 1 (主载波)和小区 2 (辅载波)下使用双载波高速上行分组接入技术。 无 线网络控制器 1 (服务无线网络控制器)将建立增强型专用信道小区: 无线 网络控制器 2 (漂移无线网络控制器)下的小区 3 (辅载波)。 对于无线网络 控制器 2 (漂移无线网络控制器) 而言, 是第一次建立多载波增强型专用信 道小区, 也就是第一次建立多载波中辅载波频率层上的上行方向使用增强型 专用信道的小区。  In this embodiment, the setting scenario is as shown in Figure 11 (a): The terminal currently uses the dual-carrier high-speed uplink packet access technology only in the small area 1 (primary carrier) and the cell 2 (secondary carrier) under the node B1. The Wireless Network Controller 1 (Serving Radio Network Controller) will establish an Enhanced Dedicated Channel Cell: Cell 3 (Secondary Carrier) under Radio Network Controller 2 (Drift Radio Network Controller). For the radio network controller 2 (drift radio network controller), it is the first time to establish a multi-carrier enhanced dedicated channel cell, that is, the first time to establish the multi-carrier mid-carrier frequency layer on the uplink direction using enhanced dedicated The cell of the channel.
在此场景中, 增强型专用信道传输上行数据的过程, 如图 1 1 ( b )所示, 包括以下步骤:  In this scenario, the process of transmitting uplink data by the enhanced dedicated channel, as shown in FIG. 1 1 (b), includes the following steps:
步骤 1110: 针对使用双载波高速上行分组接入技术的终端, 无线网络控 制器 1下的无线网络控制器 2建立多载波增强型专用信道小区 (小区 3 , 为 多载波中辅载波频率层上的上行方向使用增强型专用信道的小区) , 无线网 络控制器 1在无线链路建立过程中使用 "无线链路建立请求" 信令发送给无 线网络控制器 2 , 在此信令中设定增强型专用信道传输承载模式信息为 "共 享模式" , 无线网络控制器 2获得增强型专用信道传输承载模式信息。  Step 1110: For the terminal using the dual-carrier high-speed uplink packet access technology, the radio network controller 2 under the radio network controller 1 establishes a multi-carrier enhanced dedicated channel cell (cell 3, which is on the secondary carrier frequency layer in the multi-carrier). The cell using the enhanced dedicated channel in the uplink direction, the radio network controller 1 transmits to the radio network controller 2 using the "radio link setup request" signaling during the radio link setup process, and the enhanced type is set in the signaling. The dedicated channel transmission bearer mode information is "shared mode", and the radio network controller 2 obtains enhanced dedicated channel transmission bearer mode information.
步骤 1120: 无线网络控制器 2将所获得的增强型专用信道传输承载模式 信息应用于自身管辖的多载波的各个频率层上的增强型专用信道小区, 也就 是小区 3 (这个场景下只有一个小区) , 进行增强型专用信道上行数据帧的 传输, 无线网络控制器 2依照 "共享模式" 选择双载波中所有上行载波上接 收的同一个 MAC流放在一个传输承载上发送, 也就是放在传输承载 1上发 送, 并且无线网络控制器 2将增强型专用信道上行数据帧中的上行复用信息 信元填写为承载此数据帧的载波的载波标识, 也就是辅载波的标识; Step 1120: The radio network controller 2 applies the obtained enhanced dedicated channel transmission bearer mode information to an enhanced dedicated channel cell on each frequency layer of the multi-carrier under its jurisdiction, that is, cell 3 (only one cell in this scenario) ), performing enhanced dedicated channel uplink data frames Transmission, the radio network controller 2 selects the same MAC stream received on all uplink carriers in the dual carrier to be transmitted on one transmission bearer according to the "shared mode", that is, it is sent on the transmission bearer 1, and the radio network controller 2 will The uplink multiplexing information cell in the uplink data frame of the enhanced dedicated channel is filled in as the carrier identifier of the carrier carrying the data frame, that is, the identifier of the secondary carrier;
其中, 无线网络控制器 2用类型 2的增强型专用信道上行数据帧进行传 输。  The radio network controller 2 transmits the type 2 enhanced dedicated channel uplink data frame.
步骤 1130: 服务无线网络控制器接收节点 B发送的增强型专用信道上行 数据帧, 发现该增强型专用信道的传输承载模式为共享模块, 故读取该上行 数据帧的 "上行复用信息" 为辅载波的标识, 即可以知道该上行数据分来源 于辅载波。  Step 1130: The serving radio network controller receives the enhanced dedicated channel uplink data frame sent by the Node B, and finds that the enhanced bearer mode of the enhanced dedicated channel is a shared module, so the "uplink multiplexing information" of the uplink data frame is read as The identifier of the secondary carrier, that is, the uplink data is learned from the secondary carrier.
上述流程中, 在建立多载波增强型专用信道时, 无线网络控制器 1 (即 服务无线网络控制器)还可以将所述多载波增强型专用信道小区中用于承载 上行数据的载波的载波标识(即为辅载波标识)信息通知给节点 B, 这样, 节点 B在所传输的上行数据中携带所接收的载波标识信息即可。  In the foregoing process, when establishing a multi-carrier enhanced dedicated channel, the radio network controller 1 (ie, the serving radio network controller) may further use the carrier identifier of the carrier used to carry the uplink data in the multi-carrier enhanced dedicated channel cell. The information (that is, the secondary carrier identifier) is notified to the Node B, so that the Node B carries the received carrier identification information in the transmitted uplink data.
实施例 4  Example 4
本实施例中, 设定场景如图 12 ( a )所示: 终端目前仅在节点 B1下的小 区 1 (主载波)和小区 2 (辅载波)下使用双载波高速上行分组接入技术。 无 线网络控制器 1 (服务无线网络控制器)将建立增强型专用信道小区: 无线 网络控制器 2 (漂移无线网络控制器)下的小区 3 (主载波)。 对于无线网络 控制器 2 (漂移无线网络控制器) 而言, 建立多载波增强型专用信道小区, 也就是第一次建立多载波中主载波频率层上的上行方向使用增强型专用信道 的小区。  In this embodiment, the setting scenario is as shown in Figure 12 (a): The terminal currently uses the dual-carrier high-speed uplink packet access technology only in the small area 1 (primary carrier) and the cell 2 (secondary carrier) under the node B1. The Wireless Network Controller 1 (Serving Radio Network Controller) will establish an Enhanced Dedicated Channel Cell: Cell 3 (Primary Carrier) under Radio Network Controller 2 (Drift Radio Network Controller). For the radio network controller 2 (drift radio network controller), a multi-carrier enhanced dedicated channel cell is established, that is, a cell in which the enhanced dedicated channel is used in the uplink direction on the main carrier frequency layer in the multi-carrier is established for the first time.
在此场景中, 增强型专用信道传输上行数据的过程, 如图 12 ( b )所示, 包括以下步骤:  In this scenario, the process of transmitting uplink data by the enhanced dedicated channel, as shown in Figure 12 (b), includes the following steps:
步骤 1210: 针对使用双载波高速上行分组接入技术的终端, 无线网络控 制器 1下的无线网络控制器 2建立多载波增强型专用信道小区 (小区 3 , 为 多载波中主载波频率层上的上行方向使用增强型专用信道的小区) 时, 无线 网络控制器 1在无线链路建立过程中使用 "无线链路建立请求" 信令发送给 无线网络控制器 2,在此信令中设定增强型专用信道传输承载模式信息为 "分 离模式" , 无线网络控制器 2获得增强型专用信道传输承载模式信息。 Step 1210: For the terminal using the dual-carrier high-speed uplink packet access technology, the radio network controller 2 under the radio network controller 1 establishes a multi-carrier enhanced dedicated channel cell (cell 3, which is on the main carrier frequency layer in the multi-carrier) When the cell in the uplink direction uses the enhanced dedicated channel), the radio network controller 1 sends a "radio link setup request" signaling to the radio link setup process. The radio network controller 2 sets the enhanced dedicated channel transmission bearer mode information to "separate mode" in the signaling, and the radio network controller 2 obtains the enhanced dedicated channel transmission bearer mode information.
步骤 1220: 后续, 无线网络控制器 2将所获得的增强型专用信道传输承 载模式信息应用于自身下辖的多载波的各个频率层上的增强型专用信道小 区, 也就是小区 3 (这个场景下只有一个小区) , 进行增强型专用信道上行 数据帧的传输, 其中, 无线网络控制器 2依照 "分离模式" 选择多载波中从 每一个不同的上行载波上接收的每一个 MAC 流放在一个传输承载上发送, 也就是放在主载波对应的传输承载 3上发送, 并且节点 B2依照 "分离模式" 设置增强型专用信道上行数据帧中的上行复用信息为空, 或者增强型专用信 道上行数据帧中的上行复用信息被接收方忽略;  Step 1220: Subsequently, the radio network controller 2 applies the obtained enhanced dedicated channel transmission bearer mode information to the enhanced dedicated channel cell on each frequency layer of the multi-carrier under its own jurisdiction, that is, the cell 3 (in this scenario) Only one cell) performs transmission of the enhanced dedicated channel uplink data frame, wherein the radio network controller 2 selects each MAC stream received from each different uplink carrier in the multi-carrier according to the "separation mode" to be placed in one transmission bearer. The upper transmission, that is, is transmitted on the transmission bearer 3 corresponding to the primary carrier, and the node B2 sets the uplink multiplexing information in the uplink data frame of the enhanced dedicated channel according to the "separation mode" to be empty, or the enhanced dedicated channel uplink data frame. The uplink multiplexing information in the middle is ignored by the receiver;
其中, 节点 B2用类型 2的增强型专用信道上行数据帧进行传输。  Among them, the node B2 transmits with the type 2 enhanced dedicated channel uplink data frame.
步骤 1230: 服务无线网络控制器接收节点 B依照 "分离模式"发送的增 强型专用信道上行数据帧, 通过传输承载即可获知该上行数据分来源于哪一 个载波。  Step 1230: The serving radio network controller receives the enhanced dedicated channel uplink data frame sent by the node B according to the "separation mode", and the transmission bearer can learn which carrier the uplink data is derived from.
以上各个双载波实施例, 均可以扩展到多载波, 如三载波, 四载波, 以 下分别举例说明。  Each of the above dual-carrier embodiments can be extended to multiple carriers, such as three carriers and four carriers, which are respectively illustrated below.
上述流程中, 在建立多载波增强型专用信道小区时, 无线网络控制器 1 (即服务无线网络控制器)还可以将多载波增强型专用信道小区中用于承载 上行数据的载波的载波标识信息通知给节点 B。  In the above process, when establishing a multi-carrier enhanced dedicated channel cell, the radio network controller 1 (ie, the serving radio network controller) may further use the carrier identification information of the carrier used to carry the uplink data in the multi-carrier enhanced dedicated channel cell. Notify to Node B.
实施例 5  Example 5
本实施例中, 设定场景如图 13 ( a )所示: 终端目前仅在节点 B1下的小 区 1 (主载波)和小区 2 (第二载波) , 小区 3 (第三载波) 下使用三载波高 速上行分组接入技术。 无线网络控制器 1 (服务无线网络控制器)将建立多 载波增强型专用信道小区: 节点 B2下小区 4 (第二载波) 。 对于节点 B2而 言, 是第一次建立多载波增强型专用信道小区, 也就是第一次建立多载波中 第二载波频率层上的上行方向使用增强型专用信道的小区。  In this embodiment, the setting scenario is as shown in FIG. 13( a ): The terminal is currently only used in the cell 1 (main carrier) and the cell 2 (second carrier) and the cell 3 (third carrier) under the node B1. Carrier high speed uplink packet access technology. The radio network controller 1 (Serving Radio Network Controller) will establish a multi-carrier enhanced dedicated channel cell: Node B2 under Cell 4 (Second Carrier). For node B2, it is the first time to establish a multi-carrier enhanced dedicated channel cell, that is, to establish a cell using an enhanced dedicated channel in the uplink direction on the second carrier frequency layer in the multi-carrier for the first time.
在此场景中, 增强型专用信道传输上行数据的过程, 如图 13 ( b )所示, 包括以下步骤: 步骤 1310: 针对使用三载波高速上行分组接入技术的终端, 无线网络控 制器 1下的节点 B2下小区 4中建立第二载波频率层上的增强型专用信道小 区, 无线网络控制器 1在无线链路建立过程中使用 "无线链路建立请求" 信 令发送给节点 B2, 在此信令中设定增强型专用信道传输承载模式信息为 "共 享模式" , 节点 B2获得增强型专用信道的传输承载模式信息。 In this scenario, the process of transmitting the uplink data on the enhanced dedicated channel, as shown in Figure 13 (b), includes the following steps: Step 1310: For the terminal using the three-carrier high-speed uplink packet access technology, the enhanced dedicated channel cell on the second carrier frequency layer is established in the cell 4 under the node B2 under the radio network controller 1, and the radio network controller 1 is in the radio. In the link establishment process, the "radio link setup request" signaling is used to send to the node B2, in which the enhanced dedicated channel transmission bearer mode information is set to "shared mode", and the node B2 obtains the enhanced dedicated channel transmission. Bearer mode information.
步骤 1320: 节点 B2将所设定的增强型专用信道传输承载模式信息应用 于自身管辖的多载波的各个频率层上的增强型专用信道小区, 也就是小区 4 (这个场景下只有一个小区) , 进行增强型专用信道上行数据帧的传输, 节 点 B2依照 "共享模式"选择三载波中所有上行载波上接收的同一个 MAC流 放在一个传输承载上发送,也就是放在传输承载 1上发送, 并且节点 B2将增 强型专用信道上行数据帧中的上行复用信息信元填写为承载此数据帧的载波 的载波标识, 也就是第二载波;  Step 1320: The Node B2 applies the set enhanced dedicated channel transmission bearer mode information to the enhanced dedicated channel cell on each frequency layer of the multi-carrier under its jurisdiction, that is, the cell 4 (only one cell in this scenario), Performing transmission of the enhanced dedicated channel uplink data frame, and the Node B2 selects the same MAC stream received on all the uplink carriers in the three carriers to be transmitted on one transport bearer according to the "shared mode", that is, is transmitted on the transport bearer 1, and Node B2 fills in the uplink multiplexing information cell in the enhanced dedicated channel uplink data frame as the carrier identifier of the carrier carrying the data frame, that is, the second carrier;
其中, 节点 B2用类型 2的增强型专用信道上行数据帧进行传输。  Among them, the node B2 transmits with the type 2 enhanced dedicated channel uplink data frame.
步骤 1330: 服务无线网络控制器接收节点 B发送的增强型专用信道上行 数据帧, 发现该增强型专用信道的传输承载模式为共享模式, 故读取该上行 数据帧的 "上行复用信息" 为第二载波的标识, 即可以知道该上行数据分来 源于第二载波。 上述流程中, 在建立多载波增强型专用信道小区时, 无线网络控制器 1 (即服务无线网络控制器)还可以将所述多载波增强型专用信道小区中用于 承载上行数据的载波的载波标识(即第二载波标识)信息通知给节点 B, 这 样, 节点 B在所传输的上行数据中携带所接收的载波标识信息即可。  Step 1330: The serving radio network controller receives the enhanced dedicated channel uplink data frame sent by the Node B, and finds that the enhanced bearer mode of the enhanced dedicated channel is the shared mode, so the "uplink multiplexing information" of the uplink data frame is read as The identifier of the second carrier, that is, the uplink data is learned from the second carrier. In the foregoing process, when establishing a multi-carrier enhanced dedicated channel cell, the radio network controller 1 (ie, the serving radio network controller) may further use a carrier for carrying the carrier of the uplink data in the multi-carrier enhanced dedicated channel cell. The identifier (ie, the second carrier identifier) information is notified to the node B, so that the node B carries the received carrier identification information in the transmitted uplink data.
实施例 6  Example 6
本实施例中, 设定场景如图 14 ( a )所示: 终端目前仅在节点 B1下的小 区 1 (主载波)和小区 2 (第二载波) , 小区 3 (第三载波) , 小区 4 (第四 载波) 下使用四载波高速上行分组接入技术。 无线网络控制器 1将建立多载 波增强型专用信道小区: 节点 B2下小区 5 (第四载波)。 对于节点 B2而言, 是第一次建立多载波增强型专用信道小区, 也就是第一次建立多载波中第四 载波频率层上的上行方向使用增强型专用信道的小区。 此场景下, 增强型专用信道传输上行数据的过程, 如图 14 ( b )所示, 包括以下步骤: In this embodiment, the setting scenario is as shown in FIG. 14( a ): the terminal is currently only in the cell 1 (main carrier) and the cell 2 (second carrier), the cell 3 (the third carrier), and the cell 4 under the node B1. A four-carrier high-speed uplink packet access technique is used under the (fourth carrier). The radio network controller 1 will establish a multi-carrier enhanced dedicated channel cell: Cell 5 (fourth carrier) under Node B2. For the node B2, the multi-carrier enhanced dedicated channel cell is established for the first time, that is, the cell in which the enhanced dedicated channel is used in the uplink direction on the fourth carrier frequency layer in the multi-carrier is established for the first time. In this scenario, the process of transmitting the uplink data on the enhanced dedicated channel, as shown in Figure 14 (b), includes the following steps:
步骤 1410: 针对使用四载波高速上行分组接入技术的终端, 无线网络控 制器 1下的节点 B2下小区 5中建立第四载波频率层上的增强型专用信道小 区, 无线网络控制器 1在无线链路建立过程中使用 "无线链路建立请求" 信 令发送给节点 B2, 在此信令中设定增强型专用信道传输承载模式信息为 "共 享模式" , 节点 B获得增强型专用信道的传输承载模式信息;  Step 1410: For the terminal using the four-carrier high-speed uplink packet access technology, the enhanced dedicated channel cell on the fourth carrier frequency layer is established in the cell 5 under the node B2 under the radio network controller 1, and the radio network controller 1 is in the radio. In the link establishment process, the "radio link setup request" signaling is used to send to the node B2, in which the enhanced dedicated channel transmission bearer mode information is set to "shared mode", and the node B obtains the enhanced dedicated channel transmission. Carrying mode information;
步骤 1420: 节点 B2将所设定的增强型专用信道传输承载模式信息应用 于自身管辖的多载波各个频率层上的增强型专用信道小区,也就是小区 5 (这 个场景下只有一个小区), 进行增强型专用信道上行数据帧的传输, 节点 B2 依照 "共享模式" 选择四载波中所有上行载波上接收的同一个 MAC 流放在 一个传输承载上发送,也就是放在传输承载 1上发送, 并且节点 B2将增强型 专用信道上行数据帧中的上行复用信息信元填写为承载此数据帧的载波的载 波标识, 也就是第四载波;  Step 1420: The Node B2 applies the set enhanced dedicated channel transmission bearer mode information to the enhanced dedicated channel cell on each frequency layer of the multi-carrier under its jurisdiction, that is, the cell 5 (only one cell in this scenario), For the transmission of the enhanced dedicated channel uplink data frame, the Node B2 selects the same MAC stream received on all the uplink carriers in the four carriers to be transmitted on one transmission bearer according to the "shared mode", that is, is transmitted on the transport bearer 1, and the node B2 fills in the uplink multiplexing information cell in the enhanced dedicated channel uplink data frame as the carrier identifier of the carrier carrying the data frame, that is, the fourth carrier;
其中, 节点 B2用类型 2的增强型专用信道上行数据帧进行传输。  Among them, the node B2 transmits with the type 2 enhanced dedicated channel uplink data frame.
步骤 1430: 服务无线网络控制器接收节点 B发送的增强型专用信道上行 数据帧, 发现该强型专用信道的传输承载模式为共享模式, 故读取该上行数 据帧的 "上行复用信息" 为第四载波的标识, 即可以知道该上行数据分来源 于第四载波。  Step 1430: The serving radio network controller receives the enhanced dedicated channel uplink data frame sent by the Node B, and finds that the transmission bearer mode of the strong dedicated channel is the shared mode, so the "uplink multiplexing information" of the uplink data frame is read as The identifier of the fourth carrier, that is, the uplink data is learned from the fourth carrier.
上述流程中, 在建立多载波增强型专用信道小区之前或者同时, 无线网 络控制器 1 (即服务无线网络控制器)还可以将所述多载波增强型专用信道 小区中用于承载上行数据的载波的载波标识(即为第四载波标识)信息通知 给节点 B, 这样, 节点 B在所传输的上行数据中携带所接收的载波标识信息 即可。  In the foregoing process, before or at the same time, the radio network controller 1 (ie, the serving radio network controller) may further use the carrier used to carry the uplink data in the multi-carrier enhanced dedicated channel cell. The information of the carrier identifier (that is, the fourth carrier identifier) is notified to the node B, so that the node B carries the received carrier identification information in the transmitted uplink data.
当然, 本发明还可有其他多种实施例, 在不背离本发明精神及其实质的 但这些相应的改变和变形都应属于本发明的权利要求的保护范围。 工业实用性 The invention may, of course, be embodied in various other forms and modifications without departing from the spirit and scope of the invention. Industrial applicability
与现有技术相比, 本发明避免了来源于不同载波接收数据混淆在一起的 问题, 使得汇聚方的无线网络控制器能够清楚区别来源于各个载波接收数据 情况, 确保终端实际业务数据的正常发送, 确保双载波高速上行分组接入技 术可用。  Compared with the prior art, the present invention avoids the problem that the received data from different carriers is confused, so that the wireless network controller of the convergence party can clearly distinguish the data received from each carrier to ensure the normal transmission of the actual service data of the terminal. , to ensure that dual carrier high speed uplink packet access technology is available.

Claims

权 利 要 求 书 Claim
1、 一种增强型专用信道传输数据的方法, 包括:  1. A method for transmitting data by an enhanced dedicated channel, comprising:
在建立多载波增强型专用信道小区时, 无线网络控制器将所述多载波增 强型专用信道小区中的增强型专用信道的传输承载模式的信息通知给管辖该 小区的节点 B, 其中, 所述传输承载模式包括共享模式;  When the multi-carrier enhanced dedicated channel cell is established, the radio network controller notifies the node B of the enhanced bearer mode in the multi-carrier enhanced dedicated channel cell to the node B that governs the cell, where The transport bearer mode includes a shared mode;
所述节点 B接收所述传输承载模式的信息, 并按照所述传输承载模式为 所述多载波增强型专用信道小区中使用多载波高速上行分组接入技术的终端 传输上行数据, 其中, 当所述传输承载模式为共享模式时, 所述节点 B在所 传输的上行数据中携带承载该上行数据的载波的载波标识信息。  The Node B receives the information of the transmission bearer mode, and transmits uplink data to the terminal that uses the multi-carrier high-speed uplink packet access technology in the multi-carrier enhanced dedicated channel cell according to the transmission bearer mode, where When the transmission bearer mode is the shared mode, the Node B carries the carrier identification information of the carrier carrying the uplink data in the transmitted uplink data.
2、 如权利要求 1所述的方法, 还包括:  2. The method of claim 1 further comprising:
在建立多载波增强型专用信道小区时 , 所述无线网络控制器将所述多载 波增强型专用信道小区中用于承载上行数据的载波的载波标识信息发送给所 述节点 B。  When the multi-carrier enhanced dedicated channel cell is established, the radio network controller sends carrier identification information of the carrier for carrying the uplink data in the multi-carrier enhanced dedicated channel cell to the node B.
3、 如权利要求 1或 2所述的方法, 其中,  3. The method according to claim 1 or 2, wherein
所述节点 B在所传输的上行数据中携带承载该上行数据的载波的载波标 识信息指:  The carrier identification information of the carrier carrying the uplink data in the transmitted uplink data refers to:
所述节点 B将传输的上行数据帧中的 "上行复用信息" 填写为承载该上 行数据的载波的载波标识信息。  The Node B fills in the "uplink multiplexing information" in the transmitted uplink data frame as the carrier identification information of the carrier carrying the uplink data.
4、 如权利要求 3所述的方法, 其中,  4. The method of claim 3, wherein
所述无线网络控制器为服务无线网络控制器;  The wireless network controller is a serving wireless network controller;
所述方法还包括: 所述服务无线网络控制器接收所述节点 B传输的多载 波增强型专用信道小区中使用多载波高速上行分组接入技术的终端的上行数 据, 若判断所述小区的增强型专用信道的传输承载模式为共享模式, 则读取 所述上行数据的 "上行复用信息" , 获取承载该上行数据的载波的载波标识 信息。  The method further includes: receiving, by the serving radio network controller, uplink data of a terminal using a multi-carrier high-speed uplink packet access technology in a multi-carrier enhanced dedicated channel cell transmitted by the Node B, if determining that the cell is enhanced The transmission bearer mode of the type-dedicated channel is the shared mode, and the "uplink multiplexing information" of the uplink data is read, and the carrier identification information of the carrier carrying the uplink data is obtained.
5、 如权利要求 3所述的方法, 其中, 所述无线网络控制器为漂移无线网 络控制器; 所述方法还包括: 服务无线网络控制器接收所述节点 B传输的多载波增 强型专用信道小区中使用多载波高速上行分组接入技术的终端的上行数据, 若判断所述小区的增强型专用信道的传输承载模式为共享模式, 则读取所述 上行数据的 "上行复用信息" , 获取承载该上行数据的载波的载波标识信息。 5. The method of claim 3, wherein the radio network controller is a drift radio network controller; The method further includes: receiving, by the serving radio network controller, uplink data of a terminal using a multi-carrier high-speed uplink packet access technology in a multi-carrier enhanced dedicated channel cell transmitted by the Node B, if determining that the enhanced specific type of the cell is When the transmission bearer mode of the channel is the shared mode, the uplink multiplexing information of the uplink data is read, and the carrier identification information of the carrier carrying the uplink data is obtained.
6、一种增强型专用信道传输数据的***,包括无线网络控制器和节点 B, 其中:  6. A system for transmitting data on an enhanced dedicated channel, comprising a radio network controller and a node B, wherein:
所述无线网络控制器设置成: 在建立多载波增强型专用信道小区时, 将 所述多载波增强型专用信道小区中的增强型专用信道的传输承载模式的信息 通知给管辖该小区的节点 B, 其中, 所述传输承载模式包括共享模式;  The radio network controller is configured to: notify, when establishing a multi-carrier enhanced dedicated channel cell, information about a transmission bearer mode of the enhanced dedicated channel in the multi-carrier enhanced dedicated channel cell to a node B that governs the cell The transmission bearer mode includes a sharing mode;
所述节点 B设置成: 接收所述传输承载模式的信息, 并按照所述传输承 载模式为所述多载波增强型专用信道小区中使用多载波高速上行分组接入技 术的终端传输上行数据, 其中, 当所述传输承载模式为共享模式时, 在所传 输的上行数据中携带承载该上行数据的载波的载波标识信息。  The Node B is configured to: receive information about the transmission bearer mode, and transmit uplink data to a terminal that uses a multi-carrier high-speed uplink packet access technology in the multi-carrier enhanced dedicated channel cell according to the transmission bearer mode, where When the transmission bearer mode is the shared mode, the transmitted uplink data carries the carrier identification information of the carrier that carries the uplink data.
7、 如权利要求 6所述的***, 其中,  7. The system of claim 6 wherein
所述无线网络控制器还设置成: 在建立多载波增强型专用信道小区时, 将所述多载波增强型专用信道小区中用于承载上行数据的载波的载波标识信 息发送给所述节点 B。  The radio network controller is further configured to: when establishing a multi-carrier enhanced dedicated channel cell, transmit carrier identification information of a carrier for carrying uplink data in the multi-carrier enhanced dedicated channel cell to the node B.
8、 如权利要求 6或 7所述的***, 其中,  8. The system of claim 6 or 7, wherein
所述节点 B设置成通过如下方式在所传输的上行数据中携带承载该上行 数据的载波的载波标识信息: 将传输的上行数据帧中的 "上行复用信息" 填 写为承载该上行数据的载波的载波标识信息。  The Node B is configured to carry the carrier identification information of the carrier carrying the uplink data in the transmitted uplink data by: filling in the “uplink multiplexing information” in the transmitted uplink data frame into the carrier carrying the uplink data. Carrier identification information.
9、 如权利要求 8所述的***, 其中,  9. The system of claim 8 wherein
所述无线网络控制器为服务无线网络控制器;  The wireless network controller is a serving wireless network controller;
所述服务无线网络控制器还设置成: 接收所述节点 B传输的多载波增强 型专用信道小区中使用多载波高速上行分组接入技术的终端的上行数据, 以 及在所述小区的增强型专用信道的传输承载模式为共享模式时, 读取所述上 行数据的 "上行复用信息" , 获取承载该上行数据的载波的载波标识信息。  The serving radio network controller is further configured to: receive uplink data of a terminal using a multi-carrier high-speed uplink packet access technology in a multi-carrier enhanced dedicated channel cell transmitted by the Node B, and an enhanced dedicated in the cell When the transmission bearer mode of the channel is the shared mode, the uplink multiplexing information of the uplink data is read, and the carrier identification information of the carrier carrying the uplink data is obtained.
10、 如权利要求 8所述的***, 其中, 所述无线网络控制器为漂移无线 网络控制器, 所述***还包括服务无线网络控制器; 所述服务无线网络控制 器设置成: 接收所述节点 B传输的多载波增强型专用信道小区中使用多载波 高速上行分组接入技术的终端的上行数据, 以及在所述小区的增强型专用信 道的传输承载模式为共享模式时, 读取所述上行数据的 "上行复用信息" , 获取承载该上行数据的载波的载波标识信息。 10. The system of claim 8, wherein the wireless network controller is a drift wireless a network controller, the system further comprising a serving radio network controller; the serving radio network controller is configured to: receive the multi-carrier enhanced dedicated channel cell used by the Node B to use a multi-carrier high-speed uplink packet access technology Uplink data of the terminal, and when the transmission bearer mode of the enhanced dedicated channel of the cell is in the shared mode, reading "uplink multiplexing information" of the uplink data, and acquiring carrier identification information of a carrier carrying the uplink data.
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