WO2010091574A1 - 一种上行混合自动重传请求的调度方法与系统 - Google Patents

一种上行混合自动重传请求的调度方法与系统 Download PDF

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Publication number
WO2010091574A1
WO2010091574A1 PCT/CN2009/073844 CN2009073844W WO2010091574A1 WO 2010091574 A1 WO2010091574 A1 WO 2010091574A1 CN 2009073844 W CN2009073844 W CN 2009073844W WO 2010091574 A1 WO2010091574 A1 WO 2010091574A1
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Prior art keywords
control channel
channel
uplink subframe
uplink
feedback channel
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PCT/CN2009/073844
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English (en)
French (fr)
Inventor
王军虎
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中兴通讯股份有限公司
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Publication of WO2010091574A1 publication Critical patent/WO2010091574A1/zh

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Classifications

    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L1/00—Arrangements for detecting or preventing errors in the information received
    • H04L1/12—Arrangements for detecting or preventing errors in the information received by using return channel
    • H04L1/16—Arrangements for detecting or preventing errors in the information received by using return channel in which the return channel carries supervisory signals, e.g. repetition request signals
    • H04L1/18—Automatic repetition systems, e.g. Van Duuren systems
    • H04L1/1867—Arrangements specially adapted for the transmitter end
    • H04L1/1887—Scheduling and prioritising arrangements
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04L—TRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L1/00—Arrangements for detecting or preventing errors in the information received
    • H04L1/12—Arrangements for detecting or preventing errors in the information received by using return channel
    • H04L1/16—Arrangements for detecting or preventing errors in the information received by using return channel in which the return channel carries supervisory signals, e.g. repetition request signals
    • H04L1/18—Automatic repetition systems, e.g. Van Duuren systems
    • H04L1/1829—Arrangements specially adapted for the receiver end
    • H04L1/1854—Scheduling and prioritising arrangements

Definitions

  • the present invention relates to the field of communications, and in particular to a scheduling method and system for a Hybrid Automatic Retransmission Request (HARQ).
  • HARQ Hybrid Automatic Retransmission Request
  • Hybrid Automatic Repeat Request is a technique proposed to overcome the impact of wireless mobile channel time-varying and multipath fading on signal transmission by using Automatic Retransmission Request (ARQ) and The two techniques of FEC (Forward Error Correction) are used in combination.
  • HARQ technology enables wireless mobile communication systems to achieve higher system throughput and higher system stability, and is a 3G Long Term Evolution (LTE) system and global interoperability for WiMAX (World Interoperability for Microwave Access) One of the key technologies in the system.
  • LTE Long Term Evolution
  • WiMAX Worldwide Interoperability for Microwave Access
  • TDD-OFDM Time Division Duplex-Orthogonal Frequency Division
  • the uplink and downlink are time-division transmission.
  • the base station and the terminal in the system need a certain processing time to receive the data of the other party, and also because of frame alignment and propagation. A certain delay will be introduced.
  • the TDD-OFDM system usually divides the radio frame used for data transmission into several smaller sub-frames (Sub-Frame).
  • the downlink subframe and the uplink subframe are included, and the ratio of the downlink subframe to the uplink subframe may be determined according to specific implementation conditions; as shown in FIG. 1, one radio frame is divided into 8 subframes (SF0-SF7), and one wireless There is a pair of uplink and downlink switching points in the frame.
  • the ratio of UL/DL (uplink subframe/downlink subframe) in Figure 1 is 3:5.
  • an uplink HARQ communication process also referred to as a HARQ process, may describe:
  • Step S201 The base station allocates, by using the control signaling on the control channel, the resource of the uplink subframe that sends the data to the terminal, and the terminal sends the initial data or the retransmitted data to the base station on the allocated uplink subframe resource, and starts the HARQ process.
  • Step S202 the base station receives the initial transmission data or the retransmission data from the terminal, and sends the feedback information to the terminal in the corresponding feedback channel. If the feedback information is a negative information (NACK), step S203 is performed; if the feedback information is confirmation Information (ACK), then step S204 is performed;
  • NACK negative information
  • step S203 If the feedback information is confirmation Information (ACK), then step S204 is performed;
  • Step S203 The terminal receives the denial information, and determines whether the retransmission of the data reaches the maximum number of retransmissions. If the number of retransmissions is reached, step S204 is performed; otherwise, the terminal performs step S201 under the retransmission interval requirement specified by the HARQ process. Retransmitting data on the resources of the corresponding uplink subframe; Step S204, the terminal terminates the HARQ process, and ends.
  • the burst service collides with the control channel and/or the feedback channel in the ongoing uplink HARQ process, so that the resource in which the control or feedback channel is located is unavailable.
  • MBS Multicast Broadcast Service
  • E-MBS Enhanced Multicast and Broadcast Service
  • TDM Time Division Multiplexing
  • the multicast broadcast service is non-periodically scheduled, and the multicast broadcast service temporarily occupies the resources of the downlink subframe, so that the control channel and/or the feedback channel located in the downlink subframe are unavailable, so that the sender cannot obtain the channel correctly.
  • Corresponding control information and/or feedback information As shown in FIG.
  • the control channel/feedback channel is distributed in a manner of one subframe, as shown in the downlink subframes U0, Ul, and U2.
  • the uplink subframes SF5, SF6, and SF7 are respectively corresponding to, the downlink subframes U0, Ul, and U2 are control channels and/or feedback channels of the uplink subframes SF5, SF6, and SF7, and the multicast broadcast service is in TDM mode and unicast service.
  • the technical problem to be solved by the present invention is to provide a method and system for overcoming an uplink hybrid automatic repeat request and a burst service collision to solve a control channel and/or a feedback channel in a burst service and an ongoing uplink HARQ process.
  • conflicting issues are to provide a method and system for overcoming an uplink hybrid automatic repeat request and a burst service collision to solve a control channel and/or a feedback channel in a burst service and an ongoing uplink HARQ process.
  • the present invention provides a dispatcher for an uplink hybrid automatic repeat request.
  • the method for applying the uplink hybrid automatic repeat request HARQ process between the base station and the terminal in the time division duplex orthogonal frequency division multiplexing system includes:
  • the base station When there is a burst service generation and a control channel and/or a feedback channel associated with one or more uplink subframes in the uplink HARQ process being performed between the base station and the terminal are not available, the base station will The unavailable control channel associated with the uplink subframe is changed to the control channel available before the control channel, and the unavailable feedback channel associated with the uplink subframe is changed to the feedback channel available after the feedback channel; The new association relationship between the uplink subframe and the control channel and/or the feedback channel is sent to the terminal through a broadcast channel;
  • the method may further include:
  • the base station sequentially labels the radio frames in each superframe used for the uplink HARQ process, and labels the downlink subframes in the superframe as the control channel or the feedback channel;
  • step of transmitting the changed uplink subframe to the control channel and/or the feedback channel by using the broadcast channel to the terminal may include:
  • the terminal reads the broadcast message in the superframe header, and according to the label of the uplink subframe in the broadcast message, the newly added control channel and/or feedback channel of the changed uplink subframe
  • the label identifies the control channel and/or feedback channel to which the uplink subframe is newly associated.
  • the base station changes the unavailable control channel associated with the uplink subframe to a control channel available before the control channel, and uses the unavailable feedback associated with the uplink subframe.
  • the step of changing the channel to the feedback channel available after the feedback channel can further For:
  • the base station changes the unavailable control channel associated with the uplink subframe to the nearest available control channel before the control channel, and changes the unavailable feedback channel associated with the uplink subframe to the feedback.
  • the nearest available feedback channel after the channel.
  • the burst service may be a multicast broadcast service or an enhanced multicast broadcast service.
  • the broadcast message may further include an effective duration of a new association relationship of the uplink subframe.
  • the method is performed by the terminal and the base station. Also includes:
  • the terminal and the base station resume to go to the preset control channel and/or the feedback channel by changing the uplink subframe of the associated control channel and/or the feedback channel.
  • the upstream HARQ process is described.
  • the present invention further provides a base station side system for scheduling uplink hybrid automatic repeat request, which is applied to an uplink hybrid automatic weight between a base station and a terminal of a time division duplex orthogonal frequency division multiplexing system.
  • the system includes: an association change module and an execution module; wherein,
  • the association change module is configured to: when there is a burst service generation, and the control channel and/or the feedback channel associated with one or more uplink subframes in the uplink HARQ process that is ongoing between the base station and the terminal are not available
  • the unavailable control channel associated with the uplink subframe is changed to a control channel available before the control channel
  • the unavailable feedback channel associated with the uplink subframe is changed to the feedback available after the feedback channel.
  • a channel and transmitting a new association relationship between the changed uplink subframe and the control channel and/or the feedback channel to the terminal through the broadcast channel, and simultaneously changing the changed uplink subframe and the control channel and/or Sending a new association relationship of the feedback channel to the execution module on the base station side;
  • the executing module is configured to read and instruct the base station to perform the uplink with the terminal by using a control channel and/or a feedback channel associated with the uplink subframe according to the new association relationship.
  • HARQ process
  • the terminal can read and indicate to perform the uplink HARQ process with the base station by using the control channel and/or the feedback channel associated with the uplink subframe according to the new association relationship; thereby overcoming the uplink mixing.
  • the automatic retransmission request conflicts with the bursty service.
  • system may further include:
  • An association module located in the base station, configured to sequentially sequence the radio frames in each superframe of the uplink HARQ process, and label the downlink subframes in the superframe as the control channel or the feedback channel ; as well as
  • the association change module is further configured to: when there is the burst service generated and cause one or more uplink subframes in the uplink HARQ process that is ongoing between the base station and the terminal, and/or Or when the feedback channel is unavailable, changing the unavailable control channel associated with the uplink subframe to a control channel available before the control channel, and changing the unavailable feedback channel associated with the uplink subframe to the feedback channel.
  • the label of the uplink subframe, the changed control channel of the uplink subframe, and/or the label of the feedback channel form a broadcast message, and the broadcast message is written into the super frame header. Sending to the terminal side through the broadcast channel, and transmitting the label of the uplink subframe, the changed control channel of the uplink subframe, and/or the label of the feedback channel to the execution module of the base station side. ; as well as
  • the execution module is further configured to determine, according to the label of the uplink subframe, the changed control channel of the uplink subframe, and/or the label of the feedback channel, the newly associated control channel and/or the uplink subframe. Feeding the channel, and then instructing the base station to perform the uplink HARQ process with the terminal according to the newly associated control channel and/or feedback channel of the uplink subframe;
  • the terminal can read the broadcast message in the superframe header, and according to the label of the uplink subframe in the broadcast message, the newly associated control channel and/or feedback of the changed uplink subframe.
  • the label of the channel determines a newly associated control channel and/or feedback channel of the uplink subframe, and then performs the uplink HARQ process with the base station according to the newly associated control channel and/or feedback channel of the uplink subframe.
  • control channel available before the control channel may be the nearest available control channel before the control channel, and after the feedback channel
  • the available feedback channel may be the nearest available feedback channel after the feedback channel.
  • the burst service may be a multicast broadcast service or an enhanced multicast broadcast service.
  • the broadcast message may further include an effective duration of a new association relationship of the uplink subframe.
  • the performing module on the base station side may be further configured to determine the uplink according to a label of the uplink subframe, a newly associated control channel of the uplink subframe, and/or a label of a feedback channel. a newly associated control channel and/or a feedback channel of the subframe, and then instructing the base station to perform the uplink HARQ process according to the newly associated control channel and/or feedback channel of the uplink subframe, and the effective persistent After the time is over, the uplink subframe that changes the associated control channel and/or the feedback channel is restored to the associated control channel and/or the feedback channel, and the uplink HARQ process is continued with the terminal;
  • the terminal can read the broadcast message in the super frame header, and determine an uplink subframe according to the label of the uplink subframe in the broadcast message, the newly associated control channel of the changed uplink subframe, and/or the label of the feedback channel. a newly associated control channel and/or a feedback channel, and then performing the uplink HARQ process with the terminal according to the newly associated control channel and/or the feedback channel of the uplink subframe, and controlling the change association after the valid duration ends The uplink subframe of the channel and/or the feedback channel is restored to a previously associated control channel and/or feedback channel to continue the uplink HARQ process with the base station.
  • the present invention provides a scheduling system for an uplink hybrid automatic repeat request, which includes the system on the base station side and the execution module on the terminal side of the scheduling of the uplink hybrid automatic repeat request.
  • the execution module on the terminal side is configured to read and instruct the terminal to perform the uplink HARQ process with the base station by using a control channel and/or a feedback channel associated with the uplink subframe according to the new association relationship.
  • the present invention provides a scheduling system for an uplink hybrid automatic repeat request, which includes the system on the base station side and the execution module on the terminal side of the scheduling of the uplink hybrid automatic repeat request.
  • the execution module on the terminal side is configured to read a broadcast message in the super frame header, and indicate the location Determining, by the terminal, the control channel and/or the feedback channel newly associated with the uplink subframe according to the label of the uplink subframe in the broadcast message, the changed control channel of the uplink subframe, and/or the label of the feedback channel. And performing the uplink HARQ process with the base station according to the newly associated control channel and/or the feedback channel of the uplink subframe.
  • the present invention provides a scheduling system for an uplink hybrid automatic repeat request, which includes the system on the base station side and the execution module on the terminal side of the scheduling of the uplink hybrid automatic repeat request.
  • the execution module of the terminal side is configured to read a broadcast message in the superframe header, and instruct the terminal to use a label of an uplink subframe in a broadcast message, a newly associated control channel of the changed uplink subframe, and/or
  • the label of the feedback channel determines a newly associated control channel and/or feedback channel of the uplink subframe, and then performs the uplink HARQ process with the terminal according to the newly associated control channel and/or feedback channel of the uplink subframe, during the valid duration
  • the uplink subframe that changes the associated control channel and/or the feedback channel is restored to the associated control channel and/or the feedback channel, and the uplink HARQ process is continued with the base station.
  • the present invention solves the problem of uplink hybrid automatic repeat request and burst service conflict, and particularly solves the problem of multicast broadcast in the uplink HARQ process between the terminal and the base station in the TDD-OFDM system.
  • the multicast broadcast service/enhanced multicast service temporarily occupies the resources of the downlink subframe, so that the uplink subframe is located in the uplink HARQ process.
  • the problem of the control channel and/or feedback channel being unavailable is not available.
  • FIG. 1 is a structural diagram of a radio frame in the prior art
  • 3 is a structural diagram of two consecutive radio frames in a TDD-OFDM system in the prior art
  • FIG. 4 is a flowchart of a method for overcoming an uplink hybrid automatic repeat request and a burst service conflict according to an embodiment of the present invention
  • Figure 5 is a diagram showing the superframe structure of the method of the present invention used in Embodiment 1;
  • FIG. 6 is a superframe structure diagram of the method of the present invention in Embodiment 2;
  • FIG. 8 is a structural diagram of a system for overcoming an uplink hybrid automatic repeat request and a burst service conflict according to an embodiment of the present invention.
  • the method for overcoming the uplink hybrid automatic repeat request and the burst service conflict is applied to the uplink HARQ process performed between the base station and the terminal of the TDD-OFDM system, and the specific steps include: :
  • Step 101 The base station sequentially labels the radio frames in each superframe used for the uplink HARQ process, and labels the downlink subframes in the superframe as the control channel or the feedback channel.
  • the base station sets a control channel and a feedback channel associated with the uplink subframe in the radio frame in each super frame according to the predetermined information, and performs an uplink HARQ process between the base station and the terminal by using the foregoing setting;
  • the information includes: a ratio of the number of uplink subframes to downlink subframes in a radio frame in a superframe, a distribution of control channels or feedback channels, and an uplink/downlink processing delay.
  • the setting is specifically: the base station associates each uplink subframe in the superframe with one downlink subframe before the uplink subframe according to the predetermined information, as a control channel of the uplink subframe, and a downlink subframe subsequent to the uplink subframe.
  • the feedback channel is associated as the uplink subframe.
  • the control channel is a time-frequency resource that carries data information for scheduling the uplink subframe transmission;
  • the feedback channel is an acknowledgement (ACK) that the base station uses for sending, according to the uplink HARQ technology, after the terminal sends the data information to the base station by using the uplink subframe.
  • ACK acknowledgement
  • Time-frequency resources for information or negative (NACK) information are examples of information.
  • Step 102 When a burst service is generated and a control channel and/or a feedback channel associated with one or more uplink subframes in an ongoing uplink HARQ process between the base station and the terminal are unavailable, the base station changes according to the association relationship. Obtaining a control channel and/or a feedback channel newly associated with the uplink subframes, and labeling the uplink subframe, the control channel of the changed uplink subframe, and/or the label of the feedback channel, and the new uplink subframes The effective duration of the association constitutes a broadcast The message (the signaling format in the broadcast message is as shown in Table 2), and the broadcast message is written into the super frame header and sent to the terminal through the broadcast channel.
  • the signaling format in the broadcast message is as shown in Table 2
  • the effective duration is that an uplink HARQ process is performed according to a new association relationship between the changed uplink subframes in a plurality of superframes between the base station and the terminal set in advance in the base station, and the effective persistent duration is not preset in the base station.
  • the duration of the time, the effective duration defaults to the duration of a superframe;
  • the base station changes the unavailable control channel associated with the uplink subframe to the control channel available before the control channel, and changes the unavailable feedback channel associated with the uplink subframe to the feedback channel available after the feedback channel.
  • the following embodiments 1 - 3 are used in that: the base station changes the unavailable control channel associated with the uplink subframe to the nearest available control channel before the control channel, and associates the uplink subframe with the unavailable one.
  • the feedback channel is changed to the nearest available feedback channel after the feedback channel.
  • Step 103 The terminal reads the broadcast message in the superframe header, and determines the uplink subframe new according to the label of the uplink subframe in the broadcast message, the changed control channel of the uplink subframe, and/or the label of the feedback channel.
  • An associated control channel and/or a feedback channel and then the base station and the terminal perform an uplink HARQ process according to the newly associated control channel and/or the feedback channel of the uplink subframe, and after the effective duration ends, both the base station and the terminal change the association.
  • the uplink subframe of the control channel and/or the feedback channel is restored to the associated control channel and/or feedback channel to continue the uplink HARQ process.
  • the burst service described in the method of the embodiment of the present invention is a multicast broadcast service or an enhanced multicast broadcast service.
  • the predetermined information is: 1.
  • the superframe includes 4 radio frames, one radio frame includes 8 subframes, and the uplink and downlink subframe allocation ratio is 3:5; 2.
  • the uplink processing delay and the downlink processing delay are both 2 sub-frames.
  • the duration of the frame 3.
  • the control channel or the feedback channel associated with the uplink subframe is distributed in the superframe in the downlink subframe in each radio frame; according to the method of the present invention, the specific steps are:
  • Step 1 the base station sequentially labels the radio frames in a superframe, for example: SF0 SF31; and labels the downlink subframes that are control channels or feedback channels in the superframe, Than 3 ⁇ 4.
  • U0, Ul , U2... 0 the base station sequentially labels the radio frames in a superframe, for example: SF0 SF31; and labels the downlink subframes that are control channels or feedback channels in the superframe, Than 3 ⁇ 4.
  • the existing control channel and the feedback channel associated with each uplink subframe are set according to the predetermined information.
  • Table 1 the mapping table of the control channel and the feedback channel associated with each uplink subframe in a superframe is as follows:
  • the feedback of the ACK/NACK information is performed on the feedback channel associated with the uplink subframe, so that the terminal determines whether it is retransmitted.
  • Step 2 When the system schedules the multicast multicast service on the downlink subframes SF11 and SF12, the control channel or the feedback channel U5 located on the downlink subframe SF12 cannot send control information or feedback information on the predetermined resource, and the base station according to the setting Change the association relationship, change the feedback channel associated with SF7 from U5 to U6, and change the control channel associated with SF15 from U5 to U4. Since the scheduling of multicast multicast service is based on the superframe period, the base station will change.
  • the effective duration in the signaling format of the broadcast message uses the default duration of one superframe.
  • Table 3 corresponding to Table 1 is a control channel and feedback associated with each uplink subframe in a changed superframe according to the principle of changing the association relationship when the control channel and/or the feedback channel of the uplink subframe are unavailable.
  • the channel correspondence table is more intuitively seen through the comparison between Table 1 and Table 3 (as shown in Table 3, where the underlined part is the new associated channel of the uplink subframe);
  • Step 3 The terminal reads the broadcast message in the superframe header, and according to the label of the uplink subframe in the broadcast message, the newly associated control channel and/or feedback of the changed uplink subframe
  • the label of the channel determines the newly associated control channel and/or the feedback channel of the uplink subframe
  • the terminal and the base station perform the uplink HARQ process by using the newly associated control channel and/or the feedback channel of the uplink subframe according to the new association relationship.
  • the base station and the terminal resume the uplink HARQ process by changing the uplink subframe of the associated control channel and/or the feedback channel to the U5 associated with the preset.
  • the superframe includes 4 radio frames, one radio frame includes 8 subframes, and the uplink and downlink subframe allocation ratio is 4:4; 2.
  • the uplink processing delay and the downlink processing delay are all 3 sub-frames. The duration of the frame; 3.
  • the control channel or the feedback channel associated with the uplink subframe is continuously distributed on the downlink subframe in the superframe; according to the method of the present invention, the specific steps are:
  • Step 1 the base station sequentially labels the radio frames in a superframe, for example: SF0 SF31; and labels the downlink subframes as the control channel or the feedback channel in the superframe, the ratio is 3 ⁇ 4.
  • SF0 SF31 the base station sequentially labels the radio frames in a superframe, for example: SF0 SF31; and labels the downlink subframes as the control channel or the feedback channel in the superframe, the ratio is 3 ⁇ 4.
  • the existing control channel and the feedback channel associated with each uplink subframe are set according to the predetermined information.
  • Table 4 the mapping table of the control channel and the feedback channel associated with each uplink subframe in a superframe is as follows: Table 4
  • the feedback of the ACK/NACK information is performed on the feedback channel associated with the uplink subframe, so that the terminal determines whether it is retransmitted.
  • Step 2 When the system schedules the multicast multicast service on the downlink subframes SF18 and SF19, the U10 and U11 located in the downlink subframes SF18 and SF19 cannot send control information or feedback information on the predetermined resource, and the base station according to the setting Change the relationship of the relationship, change the feedback channel associated with SF14 from U10 to U12, change the feedback channel associated with SF15 from U11 to U12, change the control channel associated with SF22 from U10 to U9, and change the control channel associated with SF23 from U11. Changed to U9; Since the scheduling of multicast multicast services is based on a superframe, the base station changes the control signals after these uplink subframes are changed.
  • the information of the channel or the feedback channel, and the effective duration of the new association of these uplink subframes constitutes a broadcast message, and the broadcast message is written into the superframe header through the broadcast channel. Sent to the terminal;
  • the signaling format of the broadcast message sent by the base station through the broadcast channel is substantially the same as that of the table 2 described in the foregoing Embodiment 1, and is not described in detail herein;
  • Table 5 corresponding to Table 4 is a control channel and feedback associated with each uplink subframe in a changed superframe according to the principle of changing the association relationship when the control channel and/or the feedback channel of the uplink subframe are unavailable.
  • the channel correspondence table is more intuitively seen through the comparison of Table 4 and Table 5 (as shown in Table 5, wherein the underlined part is the new associated channel of the uplink subframe);
  • Step 3 The terminal reads the broadcast message in the superframe header, and determines the new association of the uplink subframe according to the label of the uplink subframe in the broadcast message, the newly associated control channel of the uplink subframe, and/or the label of the feedback channel.
  • Control channel and/or feedback channel, the terminal and the base station perform the uplink HARQ process by using the newly associated control channel and/or the feedback channel of the uplink subframe according to the new association relationship, in the effective duration (here, the default one superframe is used)
  • the base station and the terminal resume the uplink HARQ process by changing the uplink subframe of the associated control channel and/or the feedback channel to the associated U10 and U11.
  • the superframe includes 4 radio frames, one radio frame includes 8 subframes, and the uplink and downlink subframe allocation ratio is 5:3; 2.
  • the uplink processing delay is 3 subframe durations, and the downlink processing time is The duration of the delay is 2 subframes; 3.
  • the control channel or the feedback channel associated with the uplink subframe is continuously distributed on the downlink subframe in the superframe; according to the method of the present invention, the specific steps are:
  • Step 1 the base station sequentially labels the radio frames in a superframe, for example: SF0 SF31; and labels the downlink subframes as the control channel or the feedback channel in the superframe, the ratio is 3 ⁇ 4.
  • SF0 SF31 the base station sequentially labels the radio frames in a superframe, for example: SF0 SF31; and labels the downlink subframes as the control channel or the feedback channel in the superframe, the ratio is 3 ⁇ 4.
  • the existing control channel and feedback channel associated with each uplink subframe are set according to the predetermined information.
  • Table 6 the mapping table of the control channel and the feedback channel associated with each uplink subframe in a superframe is as follows:
  • Feedback of the ACK/NACK information is performed on the feedback channel associated with the uplink subframe, thereby causing the terminal to decide whether or not to retransmit.
  • Step 2 When the system schedules the multicast multicast service on the downlink subframes SF17 and SF18, the U17 and U8 located in the downlink subframes SF17 and SF18 cannot send control information or feedback information on the predetermined resource, and the base station according to the setting
  • the change principle of the association relationship is changed from U7 to U9, the feedback channel associated with SF14 is changed from U7 to U9, the feedback channel associated with SF15 is changed from U8 to U9, and the control channel associated with SF22 is from U7.
  • Changed to U6 the control channel associated with SF23 is changed from U7 to U6, and the control channel associated with SF27 is changed from U8 to U6.
  • the base station Since the scheduling of multicast multicast service is based on a superframe, the base station will use these uplink subframes.
  • the information of the changed control channel or the feedback channel, and the effective duration of the new association of the uplink subframes (the default is the duration of one superframe) constitutes a broadcast message, and the broadcast message is written into the superframe header by broadcasting.
  • the channel is sent to the terminal;
  • the signaling format of the broadcast message sent by the base station through the broadcast channel is substantially the same as that of the table 2 described in the foregoing Embodiment 1, and is not described in detail herein;
  • Table 7 corresponding to Table 6 is a control channel and feedback associated with each uplink subframe in a changed superframe according to the principle of changing the association relationship when the control channel and/or the feedback channel of the uplink subframe are unavailable.
  • the channel correspondence table through the comparison of Table 6 and Table 7, is more intuitive to see the part changed according to the change principle of the association relationship (as shown in Table 7, wherein the underlined part is the new associated channel of the uplink subframe);
  • Step 3 The terminal reads the broadcast message in the superframe header, and according to the label of the uplink subframe in the broadcast message, the newly associated control channel and/or feedback of the changed uplink subframe
  • the label of the channel determines the newly associated control channel and/or the feedback channel of the uplink subframe
  • the terminal and the base station perform the uplink HARQ process by using the newly associated control channel and/or the feedback channel of the uplink subframe according to the new association relationship.
  • the time here, the duration of the default one superframe is used
  • the system for overcoming an uplink hybrid automatic repeat request and a burst service conflict is applied to an uplink HARQ process performed between a base station and a terminal of a TDD-OFDM system, where the system includes An association module 801, an association change module 802, an execution module 803 on the base station side, and an execution module 804 on the terminal side;
  • the association module 801 is located in the base station, and is used to sequentially label the wireless frames in each superframe of the uplink HARQ process, and label the downlink subframes in the superframe as the control channel or the feedback channel.
  • the base station sets a control channel and a feedback channel associated with the uplink subframe in the radio frame in each superframe according to the predetermined information, and performs an uplink HARQ process between the base station and the terminal by using the foregoing.
  • the predetermined information includes: a ratio of the number of uplink subframes to downlink subframes in a radio frame in a superframe, a distribution of control channels or feedback channels, and an uplink/downlink processing delay.
  • the setting is specifically: the base station associates each uplink subframe in the superframe with one downlink subframe before the uplink subframe according to the predetermined information, as a control channel of the uplink subframe, and a downlink subframe subsequent to the uplink subframe.
  • the feedback channel is associated as the uplink subframe.
  • the control channel is a time-frequency resource that carries data information for scheduling the uplink subframe transmission;
  • the feedback channel is an acknowledgement (ACK) used by the base station to send a message according to the HARQ technology after the terminal sends the data information to the base station by using the uplink subframe.
  • ACK acknowledgement
  • Time-frequency resources for information or negative (NACK) information are examples of information.
  • the association change module 802 is located in the base station, and is used when the burst service is generated and the base station When the control channel and/or the feedback channel associated with one or more uplink subframes in the ongoing uplink HARQ process are unavailable, the control channel and/or the new associated control channel of the uplink subframe are obtained according to the change relationship of the association relationship. Feeding the channel, and the label of the uplink subframe, the changed control channel of the uplink subframe and/or the label of the feedback channel, and the effective duration of the new association relationship of the uplink subframes constitute a broadcast message, The broadcast message is written into the superframe header and transmitted to the execution module 803 on the base station side and the execution module 804 on the terminal side through the broadcast channel.
  • the effective duration is that the base station and the terminal set in advance in the base station perform an uplink HARQ process according to the new association relationship of the changed uplink subframes in several super frames, for example, the effective duration is not preset in the base station.
  • the duration of the duration the default duration is the duration of a superframe;
  • the change principle of the association relationship is: when the control channel associated with the uplink subframe is unavailable, the control channel that is available before the control channel is changed, and the feedback channel associated with the uplink subframe is changed to the feedback channel after being unavailable. Available feedback channel;
  • the method may further be: when the control channel associated with the uplink subframe is unavailable, the channel is changed to the nearest available control channel before the control channel, and the feedback channel associated with the uplink subframe is not available when the feedback channel is unavailable. The most recent available feedback channel.
  • the performing module 803 on the base station side is configured to determine a newly associated control channel and/or a feedback channel of the uplink subframe according to the label of the uplink subframe, the newly associated control channel of the changed uplink subframe, and/or the label of the feedback channel, and then Instructing the base station to perform the uplink HARQ process according to the control channel and/or the feedback channel newly associated with the uplink subframe, and after the effective duration ends, recovering the uplink subframe of the associated control channel and/or the feedback channel to Presetting the associated control channel and/or the feedback channel to continue the uplink HARQ process with the terminal;
  • the execution module 804 on the terminal side is further configured to read the broadcast message in the super frame header, and instruct the terminal to use the label of the uplink subframe in the broadcast message, the newly associated control channel and/or the feedback channel of the changed uplink subframe.
  • the label determines a new associated control channel and/or a feedback channel of the uplink subframe, and then performs the uplink HARQ process with the base station according to the newly associated control channel and/or the feedback channel of the uplink subframe, and after the effective duration ends, the change is performed.
  • the uplink subframe of the associated control channel and/or the feedback channel is restored to the associated control channel and/or the feedback channel, and the uplink HARQ process is continued with the base station.
  • the burst service described in the system of the embodiment of the present invention is a multicast broadcast service or an enhanced multicast broadcast service.
  • the present invention solves the problem of uplink hybrid automatic repeat request and burst service conflict, and particularly solves the problem of multicast broadcast in the uplink HARQ process between the terminal and the base station in the TDD-OFDM system.
  • the service/enhanced multicast service is multiplexed with the unicast service in the TDM mode
  • the multicast broadcast service/enhanced multicast service temporarily occupies the resources of the downlink subframe, so that the uplink subframe is located in the uplink HARQ process.
  • the problem of the control channel and/or feedback channel being unavailable is not available.
  • the various modules of the system of the present invention described above or the steps of the method can be implemented by a general-purpose computing device, which can be centralized on a single computing device, or distributed over multiple
  • they may be implemented by program code executable by the computing device, such that they may be stored in the storage device by the computing device, or they may be separately fabricated into respective integrations.
  • the circuit modules, or a plurality of modules or steps thereof, are implemented as a single integrated circuit module, and the invention is not limited to any particular combination of hardware and software.
  • the present invention solves the problem of uplink hybrid automatic repeat request and burst service conflict, and particularly solves the problem of multicast broadcast in the uplink HARQ process between the terminal and the base station in the TDD-OFDM system.
  • the multicast broadcast service/enhanced multicast service temporarily occupies the resources of the downlink subframe, so that the uplink subframe is located in the uplink HARQ process.
  • the problem of the control channel and/or feedback channel being unavailable is not available.

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Description

一种上行混合自动重传请求的调度方法与系统
技术领域
本发明涉及通信领域， 具体地说， 涉及一种上行混合自动重传请求 ( HARQ, Hybrid Automatic Retransmission Request ) 的调度方法与系统。
背景技术
混合自动重传请求 （HARQ )是一种为克服无线移动信道时变和多径衰 落对信号传输的影响而提出的技术， 该技术是通过将自动重传请求（ARQ, Automatic Retransmission Request ) 和前向纠错编码 ( FEC , Forward Error Correction )这两种技术联合使用来实现的。 HARQ技术能够使无线移动通信 系统获得更高的系统吞吐量和更高的系统稳定性，并且是 3G长期演进（ LTE, Long Term Evolution ) 系统以及全球微波接入互操作性（WiMAX , World Interoperability for Microwave Access ) 系统中的关键技术之一。
在 TDD-OFDM ( Time Division Duplex-Orthogonal Frequency Division
Multiplexing, 时分双工正交频分复用） 系统中， 上、 下行是分时传输的， 该 系统中的基站和终端收到对方的数据都需要一定的处理时间， 另外由于帧对 齐和传播也会引入的一定的时延， 为了减少 TDD-OFDM 系统固有的时间延 迟， TDD-OFDM系统通常将用于数据传输的无线帧（ Radio Frame )分为几个 更小的子帧（Sub-Frame ) , 包括下行子帧和上行子帧， 下行子帧和上行子帧 的比例可以根据具体实施情况而确定； 如图 1所示， 一个无线帧分为 8个子 帧（SF0-SF7 ) , —个无线帧内有一对上下行切换点， 图 1中 UL/DL (上行子 帧 /下行子帧） 的比例为 3: 5。
在现有的技术方案中， 如图 2所示， 一种上行 HARQ通信过程， 又称为 HARQ进程， 可以描述：
步骤 S201 , 基站通过控制信道上的控制信令给终端分配发送数据的上行 子帧的资源， 终端在所分配的上行子帧的资源上向基站发送初传数据或重传 数据， 开始 HARQ进程； 步骤 S202, 基站接收来自终端的初传数据或重传数据， 并在相应的反馈 信道中将反馈信息发送给终端， 如果反馈信息是否认信息 （NACK ) ， 则执 行步骤 S203; 如果反馈信息是确认信息 （ACK ) , 则执行步骤 S204;
步骤 S203 , 终端接收否认信息， 判断对数据的重传是否达到最大重传次 数， 如果达到重传次数， 则执行步骤 S204; 否则， 终端在 HARQ进程规定的 重传间隔要求下，执行步骤 S201 ,在相应的上行子帧的资源上进行重传数据； 步骤 S204, 终端终止 HARQ进程， 结束。
在 TDD-OFDM系统下， 突发业务与正在进行的上行 HARQ进程中的控 制信道和 /或反馈信道相冲突， 使得控制或反馈信道的所在的资源存在不可用 的情况。 例如当多播广播业务（MBS, Multicast and Broadcast Service ) /增强 的多播广播业务 ( E-MBS, Enhanced Multicast and Broadcast Service )以 TDM (时分复用） 方式与单播业务复用资源时， 由于多播广播业务是非周期性调 度的， 多播广播业务会临时占用下行子帧的资源， 使得位于所述下行子帧上 的控制信道和 /或反馈信道将不可用 , 这样使得发送端不能正确获得相应的控 制信息和 /或反馈信息。 如图 3所示， 在 TDD-OFDM系统下连续两个无线帧 N、 N+1中， 控制信道 /反馈信道以间隔 1个子帧的方式分布， 如图中下行子 帧 U0、 Ul和 U2与上行子帧 SF5、 SF6和 SF7分别——对应， 下行子帧 U0、 Ul和 U2是上行子帧 SF5、 SF6和 SF7的控制信道和 /或反馈信道， 多播广播 业务以 TDM方式与单播业务复用，占用了无线帧 N+1中下行子帧 SF3和 SF4, 无线帧 N+1中的反馈信道 U2用于承载着无线帧 N中的上行子帧 SF7的反馈 信息， 由于无线帧 N+1中的下行子帧 SF4被占用， 所以不能在下行子帧 SF4 上发送； 因此， 在无线帧 N中子帧 SF7上发送数据的终端得不到反馈信息， 而无线帧 N+1的 SF7将处于控制空缺状态。
发明内容
本发明所解决的技术问题在于提供了一种克服上行混合自动重传请求与 突发业务冲突的方法和系统， 以解决突发业务与正在进行的上行 HARQ进程 中的控制信道和 /或反馈信道相冲突的问题。
为了解决上述问题， 本发明提供了一种上行混合自动重传请求的调度方 法， 应用于时分双工正交频分复用系统的基站与终端间进行的上行混合自动 重传请求 HARQ进程中， 包括：
当有突发业务产生并使所述基站和终端间正在进行的所述上行 HARQ进 程中的一个或多个上行子帧所关联的控制信道和 /或反馈信道不可用时， 所述 基站将所述上行子帧所关联的不可用的控制信道改为该控制信道之前可用的 控制信道， 将所述上行子帧所关联的不可用的反馈信道改为该反馈信道之后 可用的反馈信道； 并将改变后的所述上行子帧与控制信道和 /或反馈信道的新 的关联关系通过广播信道发送给所述终端；
所述终端和基站均根据所述新的关联关系， 使用所述上行子帧关联的控 制信道和 /或反馈信道进行所述上行 HARQ进程；
从而克服所述上行混合自动重传请求与所述突发业务的冲突。
本发明所述的方法， 其中，
在所述基站将所述上行子帧所关联的不可用的控制信道改为该控制信道 之前可用的控制信道， 将所述上行子帧所关联的不可用的反馈信道改为该反 馈信道之后可用的反馈信道的所述步骤前， 所述方法还可包括：
所述基站对用于上行 HARQ进程的每个超帧内的无线帧进行顺序标号， 并对所述超帧中作为所述控制信道或反馈信道的下行子帧进行标号；
而将改变后的所述上行子帧与控制信道和 /或反馈信道的新的关联关系 通过广播信道发送给所述终端的所述步骤可包括：
将所述上行子帧的标号、 改变后的所述上行子帧新关联的控制信道和 /或 反馈信道的标号组成广播消息， 将所述广播消息写入超帧头中通过广播信道 发送给所述终端； 以及
所述终端读取所述超帧头中的所述广播消息， 并根据所述广播消息中所 述上行子帧的标号、 改变后的所述上行子帧新关联的控制信道和 /或反馈信道 的标号确定所述上行子帧新关联的控制信道和 /或反馈信道。
本发明所述的方法， 其中， 所述基站将所述上行子帧所关联的不可用的 控制信道改为该控制信道之前可用的控制信道， 将所述上行子帧所关联的不 可用的反馈信道改为该反馈信道之后可用的反馈信道的所述步骤进一步可以 为：
所述基站将所述上行子帧所关联的不可用的控制信道改为该控制信道之 前相邻最近的可用的控制信道， 将所述上行子帧所关联的不可用的反馈信道 改为该反馈信道之后相邻最近的可用的反馈信道。
进一步地， 其中， 所述突发业务可以为多播广播业务或者增强的多播广 播业务。
进一步地， 其中， 所述广播消息中还可包括所述上行子帧新的关联关系 的有效持续时间。
进一步地， 其中， 所述终端和基站均根据所述新的关联关系， 使用所述 上行子帧新关联的控制信道和 /或反馈信道进行所述上行 HARQ进程的所述 步骤后， 所述方法还包括：
在所述有效持续时间结束后， 所述终端和基站均对改变关联的控制信道 和 /或反馈信道的所述上行子帧恢复到预先设置所关联的控制信道和 /或反馈 信道上继续进行所述上行 HARQ进程。
为了解决上述问题， 本发明还提供了一种上行混合自动重传请求的调度 的在基站侧的系统， 应用于时分双工正交频分复用系统的基站与终端间进行 的上行混合自动重传请求 HARQ进程中， 该系统包括： 关联关系改变模块和 执行模块； 其中，
所述关联关系改变模块设置成当有突发业务产生并使所述基站和终端间 正在进行的所述上行 HARQ进程中的一个或多个上行子帧所关联的控制信道 和 /或反馈信道不可用时， 将所述上行子帧所关联的不可用的控制信道改为该 控制信道之前可用的控制信道， 将所述上行子帧所关联的不可用的反馈信道 改为该反馈信道之后可用的反馈信道； 并将改变后的所述上行子帧与控制信 道和 /或反馈信道的新的关联关系通过广播信道发送给所述终端， 同时将改变 后的所述上行子帧与控制信道和 /或反馈信道的新的关联关系发送给所述基 站侧的执行模块；
所述执行模块设置成读取并指示所述基站根据所述新的关联关系， 使用 所述上行子帧关联的控制信道和 /或反馈信道与所述终端进行所述上行 HARQ进程；
由此所述终端能够读取并指示根据所述新的关联关系， 使用所述上行子 帧关联的控制信道和 /或反馈信道与所述基站进行所述上行 HARQ进程； 从而克服所述上行混合自动重传请求与所述突发业务的冲突。
本发明所述的系统， 其中， 所述系统还可包括：
关联模块， 其位于基站中， 设置成对所述上行 HARQ进程的每个超帧内 的无线帧进行顺序标号， 并对所述超帧中作为所述控制信道或反馈信道的下 行子帧进行标号； 以及
所述关联关系改变模块进一步设置成在当有所述突发业务产生并使所述 基站和终端间正在进行的所述上行 HARQ进程中的一个或多个上行子帧所关 联的控制信道和 /或反馈信道不可用时， 将所述上行子帧所关联的不可用的控 制信道改为该控制信道之前可用的控制信道， 将所述上行子帧所关联的不可 用的反馈信道改为该反馈信道之后可用的反馈信道后， 将所述上行子帧的标 号、 改变后的所述上行子帧新关联的控制信道和 /或反馈信道的标号组成广播 消息， 将所述广播消息写入超帧头中通过广播信道发送给所述终端侧， 同时 将所述上行子帧的标号、 改变后的所述上行子帧新关联的控制信道和 /或反馈 信道的标号发送给所述基站侧的执行模块； 以及
所述执行模块进一步设置成根据所述上行子帧的标号、 改变后的所述上 行子帧新关联的控制信道和 /或反馈信道的标号确定所述上行子帧新关联的 控制信道和 /或反馈信道， 然后指示所述基站根据该上行子帧新关联的控制信 道和 /或反馈信道与所述终端进行所述上行 HARQ进程；
由此所述终端能够读取所述超帧头中的广播消息， 并根据所述广播消息 中所述上行子帧的标号、 改变后的所述上行子帧新关联的控制信道和 /或反馈 信道的标号确定所述上行子帧新关联的控制信道和 /或反馈信道， 然后根据该 上行子帧新关联的控制信道和 /或反馈信道与所述基站进行所述上行 HARQ 进程。
本发明所述的系统， 其中， 所述的该控制信道之前可用的控制信道可以 为该控制信道之前相邻最近的可用的控制信道， 以及所述的该反馈信道之后 可用的反馈信道可以为该反馈信道之后相邻最近的可用的反馈信道。
进一步地， 其中， 所述突发业务可以为多播广播业务或者增强的多播广 播业务。
进一步地， 其中， 所述广播消息中还可包括所述上行子帧新的关联关系 的有效持续时间。
进一步地， 其中， 所述基站侧的执行模块还可设置成在根据所述上行子 帧的标号、 改变后的所述上行子帧新关联的控制信道和 /或反馈信道的标号确 定所述上行子帧新关联的控制信道和 /或反馈信道， 然后指示所述基站根据该 上行子帧新关联的控制信道和 /或反馈信道与所述终端进行所述上行 HARQ 进程时， 在所述有效持续时间结束后， 对改变关联的控制信道和 /或反馈信道 的所述上行子帧恢复到预先设置所关联的控制信道和 /或反馈信道上继续与 所述终端进行所述上行 HARQ进程；
从而所述终端能够读取所述超帧头中的广播消息， 并根据广播消息中上 行子帧的标号、 改变后的上行子帧新关联的控制信道和 /或反馈信道的标号确 定上行子帧新关联的控制信道和 /或反馈信道， 然后根据该上行子帧新关联的 控制信道和 /或反馈信道与终端进行所述上行 HARQ进程，在所述有效持续时 间结束后， 对改变关联的控制信道和 /或反馈信道的所述上行子帧恢复到预先 设置所关联的控制信道和 /或反馈信道上继续与所述基站进行所述上行 HARQ进程。
为了解决上述问题， 本发明提供了一种上行混合自动重传请求的调度系 统， 其包括上述的上行混合自动重传请求的调度的在基站侧的系统和终端侧 的执行模块， 其中，
所述终端侧的执行模块设置成读取并指示所述终端根据所述新的关联关 系， 使用所述上行子帧关联的控制信道和 /或反馈信道与所述基站进行所述上 行 HARQ进程。
为了解决上述问题， 本发明提供了一种上行混合自动重传请求的调度系 统， 其包括上述的上行混合自动重传请求的调度的在基站侧的系统和终端侧 的执行模块， 其中，
所述终端侧的执行模块设置成读取所述超帧头中的广播消息， 并指示所 述终端根据广播消息中所述上行子帧的标号、 改变后的所述上行子帧新关联 的控制信道和 /或反馈信道的标号确定所述上行子帧新关联的控制信道和 /或 反馈信道， 然后根据该上行子帧新关联的控制信道和 /或反馈信道与所述基站 进行所述上行 HARQ进程。
为了解决上述问题， 本发明提供了一种上行混合自动重传请求的调度系 统， 其包括上述的上行混合自动重传请求的调度的在基站侧的系统和终端侧 的执行模块， 其中，
所述终端侧的执行模块设置成读取所述超帧头中的广播消息， 并指示所 述终端根据广播消息中上行子帧的标号、 改变后的上行子帧新关联的控制信 道和 /或反馈信道的标号确定上行子帧新关联的控制信道和 /或反馈信道，然后 根据该上行子帧新关联的控制信道和 /或反馈信道与终端进行所述上行 HARQ进程， 在所述有效持续时间结束后， 对改变关联的控制信道和 /或反馈 信道的所述上行子帧恢复到预先设置所关联的控制信道和 /或反馈信道上继 续与所述基站进行所述上行 HARQ进程。 与现有技术相比， 本发明解决了上行混合自动重传请求与突发业务冲突 的问题，尤其是解决了在 TDD-OFDM系统中终端和基站之间进行上行 HARQ 进程中当有多播广播业务 /增强的多播广播业务以 TDM方式与单播业务复用 资源时， 多播广播业务 /增强的多播广播业务临时占用下行子帧的资源， 使得 上行 HARQ 进程中位于所述下行子帧上的控制信道和 /或反馈信道不可用的 问题。
附图概述
图 1为现有技术中一个无线帧的结构图；
图 2为现有技术中一种上行 HARQ通信的流程图；
图 3为现有技术中在 TDD-OFDM系统下， 连续两个无线帧之间的结构 图；
图 4为本发明实施例所述的一种克服上行混合自动重传请求与突发业务 冲突的方法流程图； 图 5为实施例 1中釆用本发明所述方法的超帧结构图；
图 6为实施例 2中釆用本发明所述方法的超帧结构图；
图 7为实施例 3中釆用本发明所述方法的超帧结构图； 以及
图 8为本发明实施例所述的一种克服上行混合自动重传请求与突发业务 冲突的系统的结构图。
本发明的较佳实施方式
以下对具体实施方式进行详细描述， 但不作为对本发明的限定。
如图 4所示， 为本发明实施例所述的克服上行混合自动重传请求与突发 业务冲突的方法，应用于 TDD-OFDM系统的基站与终端间进行的上行 HARQ 进程中， 具体步骤包括：
步骤 101 , 基站对用于上行 HARQ进程的每个超帧内的无线帧进行顺序 标号 , 并对超帧中作为控制信道或反馈信道的下行子帧进行标号。
其中， 该步骤 101之前基站是根据预定信息对每个超帧内的无线帧中的 上行子帧设置与其关联的控制信道和反馈信道， 通过上述设置基站与终端间 进行上行 HARQ进程； 所述预定信息包括： 一个超帧内的无线帧中上行子帧 和下行子帧的数量之比、 控制信道或反馈信道的分布、 上 /下行的处理时延。
所述设置具体是基站根据预定信息将超帧内每个上行子帧与该上行子帧 之前的一个下行子帧关联作为该上行子帧的控制信道， 与该上行子帧之后的 一个下行子帧关联作为该上行子帧的反馈信道。
这里所述控制信道为承载调度该上行子帧发送数据信息的时频资源； 所 述反馈信道为终端通过该上行子帧发送数据信息给基站后， 基站根据上行 HARQ技术用于发送的确认（ACK )信息或否定（NACK )信息的时频资源。
步骤 102, 当有突发业务产生并使基站和终端间正在进行的上行 HARQ 进程中的一个或多个上行子帧所关联的控制信道和 /或反馈信道不可用时， 基 站根据关联关系的改变原则得到这些上行子帧新关联的控制信道和 /或反馈 信道， 并将上行子帧的标号、 改变后的这些上行子帧新关联的控制信道和 /或 反馈信道的标号， 以及这些上行子帧新的关联关系的有效持续时间组成广播 消息 （该广播消息中的信令格式如表 2所示） ， 将该广播消息写入超帧头中 通过广播信道发送给终端。
其中， 所述有效持续时间为在基站内预先设置的基站和终端间在几个超 帧中根据改变后的这些上行子帧新的关联关系进行上行 HARQ进程， 如在基 站内没有预先设置有效持续时间的时长， 则该有效持续时间默认为一个超帧 的时长；
其中， 所述关联关系的改变原则是：
基站将上行子帧所关联的不可用的控制信道改为该控制信道之前可用的 控制信道， 将上行子帧所关联的不可用的反馈信道改为该反馈信道之后可用 的反馈信道。
这里后续实施例 1 - 3釆用的是：基站将上行子帧所关联的不可用的控制 信道改为该控制信道之前相邻最近的可用的控制信道， 将上行子帧所关联的 不可用的反馈信道改为该反馈信道之后相邻最近的可用的反馈信道。
步骤 103 , 终端读取超帧头中的广播消息， 并按照广播消息中上行子帧 的标号、 改变后的所述上行子帧新关联的控制信道和 /或反馈信道的标号确定 上行子帧新关联的控制信道和 /或反馈信道， 然后基站和终端均根据该上行子 帧新关联的控制信道和 /或反馈信道进行上行 HARQ进程，在有效持续时间结 束后， 基站和终端均对改变关联的控制信道和 /或反馈信道的上行子帧恢复到 预先设置所关联的控制信道和 /或反馈信道上继续进行上行 HARQ进程。
这里本发明实施例方法中所述的突发业务为多播广播业务或者增强的多 播广播业务。
根据本发明所述的方法实施例 1
如预定信息是： 1、 超帧包含有 4个无线帧， 一个无线帧包含 8个子帧， 上下行子帧分配比例为 3: 5; 2、 上行处理时延和下行处理时延均为 2个子 帧的时长； 3、 与上行子帧关联的控制信道或反馈信道在超帧中是每间隔一个 无线帧中的下行子帧分布的； 根据本发明所述的方法， 具体步骤是：
步骤 1 , (如图 5所示）基站对一个超帧中的无线帧进行顺序标号， 比 如： SF0 SF31 ; 并对超帧中作为控制信道或反馈信道的下行子帧进行标号， 比 ¾。U0, Ul , U2...0
现有的根据预定信息对每个上行子帧设置与其关联的控制信道和反馈信 道， 如表 1所示， 在一个超帧中每个上行子帧与其关联的控制信道和反馈信 道对应关系表：
表 1
Figure imgf000012_0001
与该上行子帧关联的反馈信道上进行 ACK/NACK信息的反馈，从而使终端决 定其是否重传。
步骤 2, 当系统在下行子帧 SF11、 SF12上调度了多播组播业务， 位于下 行子帧 SF12上的控制信道或反馈信道 U5不能在预定的资源上发送控制信息 或反馈信息， 基站根据设置的关联关系的改变原则， 将 SF7关联的反馈信道 从 U5改为 U6, 将 SF15关联的控制信道从 U5改为 U4; 由于多播组播业务 的调度是以超帧为周期， 因此基站将改变后的这些上行子帧与控制信道和 /或 反馈信道的新的关联关系， 以及这些上行子帧新的关联关系的有效持续时间 组成广播消息， 并将该广播消息写入超帧头中通过广播信道发送给终端； 如表 2所示， 为广播消息的信令格式的表示；
表 2
Figure imgf000013_0001
其中， 如广播消息的信令格式中的有效持续时间没有设置， 则该有效持 续时间釆用默认的一个超帧的时长。
与表 1相对应的表 3是当上行子帧的控制信道和 /或反馈信道不可用时， 根据关联关系的改变原则， 改变后的一个超帧中每个上行子帧与其关联的控 制信道和反馈信道对应关系表， 通过表 1和表 3的对比更加直观的看出根据 关联关系的改变原则所改变的部分（如表 3所示， 其中下划线的部分为上行 子帧新的关联信道） ；
表 3
Figure imgf000013_0002
SF13 U3/U6
SF14 U4/U7
SF15 U4/U8
SF21 U6/U9
SF22 U7/U10
SF23 U8/U11
SF29 U9/U0 (下一个超帧）
SF30 U10/U1 (下一个超帧）
SF31 U11/U2 (下一个超帧） 步骤 3 , 终端读取超帧头中的广播消息， 并根据广播消息中上行子帧的 标号、 改变后的上行子帧新关联的控制信道和 /或反馈信道的标号确定上行子 帧新关联的控制信道和 /或反馈信道， 终端和基站均根据新的关联关系， 使用 上行子帧新关联的控制信道和 /或反馈信道进行上行 HARQ进程，在有效持续 时间 （这里釆用默认的一个超帧的时长）结束后， 基站和终端均对改变关联 的控制信道和 /或反馈信道的上行子帧恢复到预先设置所关联的 U5上继续进 行上行 HARQ进程。
实施例 2
当预定信息是： 1、 超帧包含有 4个无线帧， 一个无线帧包含 8个子帧， 上下行子帧分配比例为 4: 4; 2、 上行处理时延和下行处理时延均为 3个子 帧的时长； 3、 与上行子帧关联的控制信道或反馈信道在超帧中的下行子帧上 连续分布的； 根据本发明所述的方法， 具体步骤是：
步骤 1 , (如图 6所示）基站对一个超帧中的无线帧进行顺序标号， 比 如： SF0 SF31 ; 并对超帧中作为控制信道或反馈信道的下行子帧进行标号， 比 ¾。U0, Ul , U2...。
现有的根据预定信息对每个上行子帧设置与其关联的控制信道和反馈信 道， 如表 4所示， 在一个超帧中每个上行子帧与其关联的控制信道和反馈信 道对应关系表： 表 4
Figure imgf000015_0001
与该上行子帧关联的反馈信道上进行 ACK/NACK信息的反馈，从而使终端决 定其是否重传。
步骤 2, 当系统在下行子帧 SF18、 SF19上调度了多播组播业务， 位于下 行子帧 SF18和 SF19上的 U10和 U11不能在预定的资源上发送控制信息或反 馈信息， 基站根据设置的关联关系的改变原则， 将 SF14 关联的反馈信道从 U10改为 U12, 将 SF15关联的反馈信道从 U11改为 U12, 将 SF22关联的控 制信道从 U10改为 U9, 将 SF23关联的控制信道从 U11改为 U9; 由于多播 组播业务的调度是以超帧为周期， 因此基站将这些上行子帧改变后的控制信 道或反馈信道的信息， 以及这些上行子帧新的关联关系的有效持续时间 （这 里釆用默认的一个超帧的时长）组成广播消息， 并将该广播消息写入超帧头 中通过广播信道发送给终端；
上述基站通过广播信道发送的广播消息的信令格式同前面实施例 1所述 的表 2的内容大致相同， 这里不再详述；
与表 4相对应的表 5是当上行子帧的控制信道和 /或反馈信道不可用时， 根据关联关系的改变原则， 改变后的一个超帧中每个上行子帧与其关联的控 制信道和反馈信道对应关系表， 通过表 4和表 5的对比更加直观的看出根据 关联关系的改变原则所改变的部分（如表 5所示， 其中下划线的部分为上行 子帧新的关联信道） ；
Figure imgf000016_0001
Figure imgf000016_0002
Figure imgf000017_0001
步骤 3 , 终端读取超帧头中的广播消息， 并根据广播消息中上行子帧的 标号、 改变后的上行子帧新关联的控制信道和 /或反馈信道的标号确定上行子 帧新关联的控制信道和 /或反馈信道， 终端和基站均根据新的关联关系， 使用 上行子帧新关联的控制信道和 /或反馈信道进行上行 HARQ进程，在有效持续 时间 （这里釆用默认的一个超帧的时长）结束后， 基站和终端均对改变关联 的控制信道和 /或反馈信道的上行子帧恢复到预先设置所关联的 U10 和 U11 上继续进行上行 HARQ进程。
实施例 3
当预定信息是： 1、 超帧包含有 4个无线帧， 一个无线帧包含 8个子帧， 上下行子帧分配比例为 5: 3; 2、 上行处理时延为 3个子帧时长， 下行处理 时延为 2个子帧的时长； 3、 与上行子帧关联的控制信道或反馈信道在超帧中 的下行子帧上连续分布的； 根据本发明所述的方法， 具体步骤是：
步骤 1 , (如图 7所示）基站对一个超帧中的无线帧进行顺序标号， 比 如： SF0 SF31 ; 并对超帧中作为控制信道或反馈信道的下行子帧进行标号， 比 ¾。U0, Ul , U2...。
现有的根据预定信息对每个上行子帧设置与其关联的控制信道和反馈信 道， 如表 6所示， 在一个超帧中每个上行子帧与其关联的控制信道和反馈信 道对应关系表：
表 6
Figure imgf000017_0002
SF12 U3/U6
SF13 U3/U7
SF14 U4/U7
SF15 U4/U8
SF19 U5/U9
SF20 U6/U9
SF21 U6/U10
SF22 U7 /U10
SF23 U7/U11
SF27 U8/U0 (下一个超帧）
SF28 U9 /U0 (下一个超帧）
SF29 U9/U1 (下一个超帧）
SF30 U10/U1 (下一个超帧）
SF31 U10/U2 (下一个超帧）
与该上行子帧关联的反馈信道上进行 ACK/NACK信息的反馈，从而使终端决 定其是否重传。
步骤 2, 当系统在下行子帧 SF17、 SF18上调度了多播组播业务， 位于下 行子帧 SF17和 SF18上的 U17和 U8不能在预定的资源上发送控制信息或反 馈信息， 基站根据设置的关联关系的改变原则， 将 SF13 关联的反馈信道从 U7改为 U9, 将 SF14关联的反馈信道从 U7改为 U9, 将 SF15关联的反馈信 道从 U8改为 U9, 将 SF22关联的控制信道从 U7改为 U6, 将 SF23关联的控 制信道从 U7改为 U6, 将 SF27关联的控制信道从 U8改为 U6; 由于多播组 播业务的调度是以超帧为周期， 因此基站将这些上行子帧改变后的控制信道 或反馈信道的信息， 以及这些上行子帧新的关联关系的有效持续时间 （默认 为一个超帧的时长）组成广播消息， 并将该广播消息写入超帧头中通过广播 信道发送给终端； 上述基站通过广播信道发送的广播消息的信令格式同前面实施例 1所述 的表 2的内容大致相同， 这里不再详述；
与表 6相对应的表 7是当上行子帧的控制信道和 /或反馈信道不可用时， 根据关联关系的改变原则， 改变后的一个超帧中每个上行子帧与其关联的控 制信道和反馈信道对应关系表， 通过表 6和表 7的对比更加直观的看出根据 关联关系的改变原则所改变的部分（如表 7所示， 其中下划线的部分为上行 子帧新的关联信道） ；
表 7
Figure imgf000019_0001
SF30 U10/U1 (下一个超帧）
SF31 U10/U2 (下一个超帧） 步骤 3 , 终端读取超帧头中的广播消息， 并根据广播消息中上行子帧的 标号、 改变后的上行子帧新关联的控制信道和 /或反馈信道的标号确定上行子 帧新关联的控制信道和 /或反馈信道， 终端和基站均根据新的关联关系， 使用 上行子帧新关联的控制信道和 /或反馈信道进行上行 HARQ进程，在有效持续 时间 （这里釆用默认的一个超帧的时长）结束后， 基站和终端均对改变关联 的控制信道和 /或反馈信道的上行子帧恢复到预先设置所关联的 U7和 U8上 继续进行上行 HARQ进程。
如图 8所示， 为本发明实施例所述的克服上行混合自动重传请求与突发 业务冲突的系统，应用于 TDD-OFDM系统的基站与终端间进行的上行 HARQ 进程中， 该系统包括： 关联模块 801、 关联关系改变模块 802、 基站侧的执行 模块 803和终端侧的执行模块 804; 其中，
关联模块 801 , 位于基站中， 用于对上行 HARQ进程的每个超帧内的无 线帧进行顺序标号， 并对超帧中作为控制信道或反馈信道的下行子帧进行标 号。
其中， 在 TDD-OFDM 系统中基站是根据预定信息对每个超帧内的无线 帧中的上行子帧设置与其关联的控制信道和反馈信道， 通过上述设置基站与 终端间进行上行 HARQ进程； 所述预定信息包括： 一个超帧内的无线帧中上 行子帧和下行子帧的数量之比、 控制信道或反馈信道的分布、 上 /下行的处理 时延。
所述设置具体是基站根据预定信息将超帧内每个上行子帧与该上行子帧 之前的一个下行子帧关联作为该上行子帧的控制信道， 与该上行子帧之后的 一个下行子帧关联作为该上行子帧的反馈信道。
这里所述控制信道为承载调度该上行子帧发送数据信息的时频资源； 所 述反馈信道为终端通过该上行子帧发送数据信息给基站后， 基站根据 HARQ 技术用于发送的确认（ACK )信息或否定（NACK )信息的时频资源。
关联关系改变模块 802, 位于基站中， 用于当有突发业务产生并使基站 和终端间正在进行的上行 HARQ进程中的一个或多个上行子帧所关联的控制 信道和 /或反馈信道不可用时， 根据关联关系的改变原则得到这些上行子帧新 关联的控制信道和 /或反馈信道， 并将上行子帧的标号、 改变后的这些上行子 帧新关联的控制信道和 /或反馈信道的标号， 以及这些上行子帧新的关联关系 的有效持续时间组成广播消息， 将该广播消息写入超帧头中通过广播信道发 送给基站侧的执行模块 803和终端侧的执行模块 804。
其中， 所述有效持续时间为基站内预先设置的基站和终端间在几个超帧 中根据改变后的这些上行子帧新的关联关系进行上行 HARQ进程， 如在基站 内没有预先设置有效持续时间的时长， 则该有效持续时间默认为一个超帧的 时长；
其中， 所述关联关系的改变原则是： 该上行子帧所关联的控制信道不可 用时改为该控制信道之前可用的控制信道， 该上行子帧所关联的反馈信道不 可用时改为该反馈信道之后可用的反馈信道；
这里还可以是： 该上行子帧所关联的控制信道不可用时改为该控制信道 之前相邻最近的可用的控制信道， 该上行子帧所关联的反馈信道不可用时改 为该反馈信道之后相邻最近的可用的反馈信道。
基站侧的执行模块 803 , 用于根据上行子帧的标号、 改变后的上行子帧 新关联的控制信道和 /或反馈信道的标号确定上行子帧新关联的控制信道和 / 或反馈信道， 然后指示基站根据该上行子帧新关联的控制信道和 /或反馈信道 与终端进行所述上行 HARQ进程， 在有效持续时间结束后， 对改变关联的控 制信道和 /或反馈信道的上行子帧恢复到预先设置所关联的控制信道和 /或反 馈信道上继续与终端进行所述上行 HARQ进程；
终端侧的执行模块 804, 进一步用于读取超帧头中的广播消息， 并指示 终端根据广播消息中上行子帧的标号、 改变后的上行子帧新关联的控制信道 和 /或反馈信道的标号确定上行子帧新关联的控制信道和 /或反馈信道，然后根 据该上行子帧新关联的控制信道和 /或反馈信道与基站进行所述上行 HARQ 进程， 在有效持续时间结束后， 对改变关联的控制信道和 /或反馈信道的上行 子帧恢复到预先设置所关联的控制信道和 /或反馈信道上继续与基站进行上 行 HARQ进程。 这里本发明实施例的系统中所述的突发业务为多播广播业务或者增强的 多播广播业务。 与现有技术相比， 本发明解决了上行混合自动重传请求与突发业务冲突 的问题，尤其是解决了在 TDD-OFDM系统中终端和基站之间进行上行 HARQ 进程中当有多播广播业务 /增强的多播广播业务以 TDM方式与单播业务复用 资源时， 多播广播业务 /增强的多播广播业务临时占用下行子帧的资源， 使得 上行 HARQ 进程中位于所述下行子帧上的控制信道和 /或反馈信道不可用的 问题。
显然， 本领域的技术人员应该明白， 上述的本发明所述系统的各模块或 所述方法的各步骤可以用通用的计算装置来实现， 它们可以集中在单个的计 算装置上， 或者分布在多个计算装置所组成的网络上， 可选地， 它们可以用 计算装置可执行的程序代码来实现， 从而， 可以将它们存储在存储装置中由 计算装置来执行， 或者将它们分别制作成各个集成电路模块， 或者将它们中 的多个模块或步骤制作成单个集成电路模块来实现， 这里本发明不限制于任 何特定的硬件和软件结合。
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所附的权利要求的保护范围。
工业实用性
与现有技术相比， 本发明解决了上行混合自动重传请求与突发业务冲突 的问题，尤其是解决了在 TDD-OFDM系统中终端和基站之间进行上行 HARQ 进程中当有多播广播业务 /增强的多播广播业务以 TDM方式与单播业务复用 资源时， 多播广播业务 /增强的多播广播业务临时占用下行子帧的资源， 使得 上行 HARQ 进程中位于所述下行子帧上的控制信道和 /或反馈信道不可用的 问题。

Claims

权 利 要 求 书
1、一种上行混合自动重传请求的调度方法， 应用于时分双工正交频分复 用系统的基站与终端间进行的上行混合自动重传请求 HARQ进程中， 所述方 法包括：
当有突发业务产生并使所述基站和终端间正在进行的所述上行 HARQ进 程中的一个或多个上行子帧所关联的控制信道和 /或反馈信道不可用时， 所述 基站将所述上行子帧所关联的不可用的控制信道改为该控制信道之前可用的 控制信道， 将所述上行子帧所关联的不可用的反馈信道改为该反馈信道之后 可用的反馈信道； 并将改变后的所述上行子帧与控制信道和 /或反馈信道的新 的关联关系通过广播信道发送给所述终端；
所述终端和基站均根据所述新的关联关系， 使用所述上行子帧关联的控 制信道和 /或反馈信道进行所述上行 HARQ进程；
从而克服所述上行混合自动重传请求与所述突发业务的冲突。
2、 如权利要求 1所述的方法， 其中：
在所述基站将所述上行子帧所关联的不可用的控制信道改为该控制信道 之前可用的控制信道， 将所述上行子帧所关联的不可用的反馈信道改为该反 馈信道之后可用的反馈信道的所述步骤前， 所述方法还包括：
所述基站对用于上行 HARQ进程的每个超帧内的无线帧进行顺序标号， 并对所述超帧中作为所述控制信道或反馈信道的下行子帧进行标号；
而将改变后的所述上行子帧与控制信道和 /或反馈信道的新的关联关系 通过广播信道发送给所述终端的所述步骤包括：
将所述上行子帧的标号、 改变后的所述上行子帧新关联的控制信道和 /或 反馈信道的标号组成广播消息， 将所述广播消息写入超帧头中通过广播信道 发送给所述终端； 以及
所述终端读取所述超帧头中的所述广播消息， 并根据所述广播消息中所 述上行子帧的标号、 改变后的所述上行子帧新关联的控制信道和 /或反馈信道 的标号确定所述上行子帧新关联的控制信道和 /或反馈信道。
3、如权利要求 1或 2所述的方法， 其中所述基站将所述上行子帧所关联 的不可用的控制信道改为该控制信道之前可用的控制信道， 将所述上行子帧 所关联的不可用的反馈信道改为该反馈信道之后可用的反馈信道的所述步骤 进一步为：
所述基站将所述上行子帧所关联的不可用的控制信道改为该控制信道之 前相邻最近的可用的控制信道， 将所述上行子帧所关联的不可用的反馈信道 改为该反馈信道之后相邻最近的可用的反馈信道。
4、如权利要求 1或 2所述的方法， 其中所述突发业务为多播广播业务或 者增强的多播广播业务。
5、如权利要求 2所述的方法， 其中所述广播消息中还包括所述上行子帧 新的关联关系的有效持续时间。
6、如权利要求 5所述的方法， 其中在所述终端和基站均根据所述新的关 联关系， 使用所述上行子帧新关联的控制信道和 /或反馈信道进行所述上行 HARQ进程的所述步骤后， 所述方法还包括：
在所述有效持续时间结束后， 所述终端和基站均对改变关联的控制信道 和 /或反馈信道的所述上行子帧恢复到预先设置所关联的控制信道和 /或反馈 信道上继续进行所述上行 HARQ进程。
7、一种上行混合自动重传请求的调度的在基站侧的系统， 应用于时分双 工正交频分复用系统的基站与终端间进行的上行混合自动重传请求 HARQ进 程中， 所述系统包括： 关联关系改变模块和执行模块； 其中，
所述关联关系改变模块设置成当有突发业务产生并使所述基站和终端间 正在进行的所述上行 HARQ进程中的一个或多个上行子帧所关联的控制信道 和 /或反馈信道不可用时， 将所述上行子帧所关联的不可用的控制信道改为该 控制信道之前可用的控制信道， 将所述上行子帧所关联的不可用的反馈信道 改为该反馈信道之后可用的反馈信道； 并将改变后的所述上行子帧与控制信 道和 /或反馈信道的新的关联关系通过广播信道发送给所述终端， 同时将改变 后的所述上行子帧与控制信道和 /或反馈信道的新的关联关系发送给所述基 站侧的执行模块；
所述执行模块设置成读取并指示所述基站根据所述新的关联关系， 使用 所述上行子帧关联的控制信道和 /或反馈信道与所述终端进行所述上行 HARQ进程；
由此所述终端能够读取并根据所述新的关联关系， 使用所述上行子帧关 联的控制信道和 /或反馈信道与所述基站进行所述上行 HARQ进程；
从而克服所述上行混合自动重传请求与所述突发业务的冲突。
8、 如权利要求 7所述的系统， 还包括：
关联模块， 其设置成对所述上行 HARQ进程的每个超帧内的无线帧进行 顺序标号， 并对所述超帧中作为所述控制信道或反馈信道的下行子帧进行标 号； 以及
所述关联关系改变模块进一步设置成在当有所述突发业务产生并使所述 基站和终端间正在进行的所述上行 HARQ进程中的一个或多个上行子帧所关 联的控制信道和 /或反馈信道不可用时， 将所述上行子帧所关联的不可用的控 制信道改为该控制信道之前可用的控制信道， 将所述上行子帧所关联的不可 用的反馈信道改为该反馈信道之后可用的反馈信道后， 将所述上行子帧的标 号、 改变后的所述上行子帧新关联的控制信道和 /或反馈信道的标号组成广播 消息， 将所述广播消息写入超帧头中通过广播信道发送给所述终端， 同时将 所述上行子帧的标号、 改变后的所述上行子帧新关联的控制信道和 /或反馈信 道的标号发送给所述基站侧的执行模块； 以及
所述执行模块进一步设置成根据所述上行子帧的标号、 改变后的所述上 行子帧新关联的控制信道和 /或反馈信道的标号确定所述上行子帧新关联的 控制信道和 /或反馈信道， 然后指示所述基站根据该上行子帧新关联的控制信 道和 /或反馈信道与所述终端进行所述上行 HARQ进程；
由此所述终端能够读取所述超帧头中的广播消息， 并根据所述广播消息 中所述上行子帧的标号、 改变后的所述上行子帧新关联的控制信道和 /或反馈 信道的标号确定所述上行子帧新关联的控制信道和 /或反馈信道， 然后根据该 上行子帧新关联的控制信道和 /或反馈信道与所述基站进行所述上行 HARQ 进程。
9、 如权利要求 7或 8所述的系统， 其中：
所述的该控制信道之前可用的控制信道为该控制信道之前相邻最近的可 用的控制信道， 以及所述的该反馈信道之后可用的反馈信道为该反馈信道之 后相邻最近的可用的反馈信道。
10、 如权利要求 7或 8所述的系统， 其中所述突发业务为多播广播业务 或者增强的多播广播业务。
11、 如权利要求 8所述的系统， 其中所述广播消息中还包括所述上行子 帧新的关联关系的有效持续时间。
12、如权利要求 11所述的系统， 其中所述执行模块还设置成在根据所述 上行子帧的标号、 改变后的所述上行子帧新关联的控制信道和 /或反馈信道的 标号确定所述上行子帧新关联的控制信道和 /或反馈信道， 然后指示所述基站 根据该上行子帧新关联的控制信道和 /或反馈信道与所述终端进行所述上行 HARQ进程时， 在所述有效持续时间结束后， 对改变关联的控制信道和 /或反 馈信道的所述上行子帧恢复到预先设置所关联的控制信道和 /或反馈信道上 继续与所述终端进行所述上行 HARQ进程；
从而所述终端能够读取所述超帧头中的广播消息， 并根据广播消息中上 行子帧的标号、 改变后的上行子帧新关联的控制信道和 /或反馈信道的标号确 定上行子帧新关联的控制信道和 /或反馈信道， 然后根据该上行子帧新关联的 控制信道和 /或反馈信道与终端进行所述上行 HARQ进程，在所述有效持续时 间结束后， 对改变关联的控制信道和 /或反馈信道的所述上行子帧恢复到预先 设置所关联的控制信道和 /或反馈信道上继续与所述基站进行所述上行 HARQ进程。
13、 一种上行混合自动重传请求的调度系统， 其包括根据权利要求 7-12 中任一所述的上行混合自动重传请求的调度的在基站侧的系统和终端侧的执 行模块， 其中， 所述终端侧的执行模块设置成读取并指示所述终端根据所述新的关联关 系， 使用所述上行子帧关联的控制信道和 /或反馈信道与所述基站进行所述上 行 HARQ进程。
14、 一种上行混合自动重传请求的调度系统， 其包括根据权利要求 8-12 中任一所述的上行混合自动重传请求的调度的在基站侧的系统和终端侧的执 行模块， 其中， 所述终端侧的执行模块设置成读取所述超帧头中的广播消息， 并指示所 述终端根据广播消息中所述上行子帧的标号、 改变后的所述上行子帧新关联 的控制信道和 /或反馈信道的标号确定所述上行子帧新关联的控制信道和 /或 反馈信道， 然后根据该上行子帧新关联的控制信道和 /或反馈信道与所述基站 进行所述上行 HARQ进程。
15、 一种上行混合自动重传请求的调度系统， 其包括根据权利要求 12所 述的上行混合自动重传请求的调度的在基站侧的系统和终端侧的执行模块， 其中，
所述终端侧的执行模块设置成读取所述超帧头中的广播消息， 并指示所 述终端根据广播消息中上行子帧的标号、 改变后的上行子帧新关联的控制信 道和 /或反馈信道的标号确定上行子帧新关联的控制信道和 /或反馈信道，然后 根据该上行子帧新关联的控制信道和 /或反馈信道与终端进行所述上行 HARQ进程， 在所述有效持续时间结束后， 对改变关联的控制信道和 /或反馈 信道的所述上行子帧恢复到预先设置所关联的控制信道和 /或反馈信道上继 续与所述基站进行所述上行 HARQ进程。
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CN102158325A (zh) * 2011-04-22 2011-08-17 中兴通讯股份有限公司 数据传输方法及装置
CN102158325B (zh) * 2011-04-22 2017-05-10 中兴通讯股份有限公司 数据传输方法及装置

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