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CN102404801A - Method and device of data transmission feedback - Google Patents

Method and device of data transmission feedback Download PDF

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Publication number
CN102404801A
CN102404801A CN2010102849645A CN201010284964A CN102404801A CN 102404801 A CN102404801 A CN 102404801A CN 2010102849645 A CN2010102849645 A CN 2010102849645A CN 201010284964 A CN201010284964 A CN 201010284964A CN 102404801 A CN102404801 A CN 102404801A
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China
Prior art keywords
frame
descending sub
subframe
blank
sub frame
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CN2010102849645A
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Chinese (zh)
Inventor
于映辉
薛丽霞
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Huawei Technologies Co Ltd
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Huawei Technologies Co Ltd
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Application filed by Huawei Technologies Co Ltd filed Critical Huawei Technologies Co Ltd
Priority to CN2010102849645A priority Critical patent/CN102404801A/en
Priority to BR112013006398-0A priority patent/BR112013006398B1/en
Priority to PCT/CN2011/075216 priority patent/WO2011147336A1/en
Priority to JP2013528500A priority patent/JP5571250B2/en
Publication of CN102404801A publication Critical patent/CN102404801A/en
Priority to JP2014129865A priority patent/JP5830136B2/en
Pending legal-status Critical Current

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    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04LTRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L1/00Arrangements for detecting or preventing errors in the information received
    • H04L1/12Arrangements for detecting or preventing errors in the information received by using return channel
    • H04L1/16Arrangements 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
    • H04L1/18Automatic repetition systems, e.g. Van Duuren systems
    • H04L1/1829Arrangements specially adapted for the receiver end
    • H04L1/1861Physical mapping arrangements
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04BTRANSMISSION
    • H04B7/00Radio transmission systems, i.e. using radiation field
    • H04B7/24Radio transmission systems, i.e. using radiation field for communication between two or more posts
    • H04B7/26Radio transmission systems, i.e. using radiation field for communication between two or more posts at least one of which is mobile
    • H04B7/2643Radio transmission systems, i.e. using radiation field for communication between two or more posts at least one of which is mobile using time-division multiple access [TDMA]
    • H04B7/2656Radio transmission systems, i.e. using radiation field for communication between two or more posts at least one of which is mobile using time-division multiple access [TDMA] for structure of frame, burst
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04LTRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L1/00Arrangements for detecting or preventing errors in the information received
    • H04L1/12Arrangements for detecting or preventing errors in the information received by using return channel
    • H04L1/16Arrangements 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
    • H04L1/18Automatic repetition systems, e.g. Van Duuren systems
    • H04L1/1812Hybrid protocols; Hybrid automatic repeat request [HARQ]

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  • Engineering & Computer Science (AREA)
  • Computer Networks & Wireless Communication (AREA)
  • Signal Processing (AREA)
  • Mobile Radio Communication Systems (AREA)
  • Detection And Prevention Of Errors In Transmission (AREA)

Abstract

The invention discloses a method of data transmission feedback, which includes: if an upgoing subframe corresponding to a downgoing subsframe in a downgoing frequency band of a frequency division duplex (FDD) is a blank frame, the base station determines an upgoing feedback subframe of the downgoing subframe corresponding to the blank frame according to a preset hybrid automatic repeat request (HARQ) sequence relationship including a corresponding relationship between the downgoing subframe corresponding to the blank frame and the upgoing feedback subframe of the downgoing subframe. On the upgoing feedback subframe, the base station receives feedback of data sent by user equipment (UE) and on the downgoing subframe corresponding to the blank subframe. Accordingly, the utilization rate of downgoing resources is improved. A base station and a user terminal are further provided.

Description

A kind of method and apparatus of transfer of data feedback
Technical field
The present invention relates to the mobile communication technology field, be specifically related to a kind of transfer of data feedback method and device.
Background technology
At FDD (FDD; Frequency Division Duplexing) in the system, descending (DL, Down link) frequency range and up (UL; Up link) frequency range is used identical bandwidth usually; But the traffic carrying capacity of up-downgoing frequency range is also unbalanced at present, and the traffic carrying capacity of the DL frequency range traffic carrying capacity than UL frequency range usually is big, will cause the part UL resource of UL frequency range idle relatively like this.On the other hand, under the situation that UL traffic carrying capacity and DL traffic carrying capacity are complementary, because the UL spectrum efficiency is higher than DL spectrum efficiency, make that the utilization rate of UL subframe is lower than DL subframe, redundancy can appear in the UL resource.
In order effectively to utilize the redundant resource of UL; The part UL access link resource of frequency division duplex system can be used to time division duplex (TDD; Time Division Duplex) the DL access link resource of system or wireless backhaul link resource, thus FDD UL frequency range utilance improved.But; FDD UL data and signaling transmission can be disturbed TDD DL data and signaling transmission; In order to address this problem; On UL subframe corresponding with the DL subframe of FDD DL frequency range, that have the FDD UL frequency range of disturbing, do not carry out transfer of data and signaling and send, thereby cause the DL transfer of data feedback of UE on the UL subframe of this FDD UL frequency range, to carry out.
On the corresponding DL subframe of the UL subframe that can't carry out the UL feedback, do not carry out the scheduling of data, thereby the utilance of downlink resource is just greatly reduced.
Summary of the invention
The embodiment of the invention provides a kind of transfer of data feedback method and device, to solve the problem that the corresponding descending sub frame of blank frame can't carry out transfer of data.
On the one hand, a kind of transfer of data feedback method is provided, has comprised:
If the sub-frame of uplink that descending sub frame is corresponding in the FDD band downlink is a blank frame; The base station is according to the automatic repeat requests HARQ sequential relationship of setting of mixing; Confirm the up feedback subframe of the descending sub frame that said blank frame is corresponding, sequential relationship comprises during said HARQ: the corresponding relation of the descending sub frame that blank frame is corresponding and the up feedback subframe of said descending sub frame;
On said up feedback subframe, the feedback of data on the descending sub frame of the said blank frame correspondence that base station reception UE sends.
On the one hand, another kind of transfer of data feedback method is provided, has comprised:
If the sub-frame of uplink that descending sub frame is corresponding in the FDD band downlink is a blank frame; User terminal UE is according to the automatic repeat requests HARQ sequential relationship of setting of mixing; Confirm the up feedback subframe of the descending sub frame that said blank frame is corresponding, sequential relationship comprises during said HARQ: the corresponding relation of the descending sub frame that blank frame is corresponding and the up feedback subframe of said descending sub frame;
On said up feedback subframe, said UE sends the feedback of data on the corresponding descending sub frame of said blank frame to the base station.
On the one hand, a kind of base station is provided, has comprised:
Determination module; If the sub-frame of uplink that descending sub frame is corresponding in the FDD band downlink is a blank frame; The base station is according to the automatic repeat requests HARQ sequential relationship of setting of mixing; Confirm the up feedback subframe of the descending sub frame that said blank frame is corresponding, sequential relationship comprises during said HARQ: the corresponding relation of the descending sub frame that blank frame is corresponding and the up feedback subframe of said descending sub frame;
Receiver module is used in the definite up feedback subframe of said determination module, the feedback of data on the descending sub frame of the said blank frame correspondence that reception UE sends.
On the one hand, a kind of user terminal is provided, has comprised:
Determination module one; If the sub-frame of uplink that descending sub frame is corresponding in the FDD band downlink is a blank frame; According to the automatic repeat requests HARQ sequential relationship of setting of mixing; Confirm the up feedback subframe of the descending sub frame that said blank frame is corresponding, sequential relationship comprises during said HARQ: the corresponding relation of the descending sub frame that blank frame is corresponding and the up feedback subframe of said descending sub frame;
Sending module is used for the up feedback subframe confirmed at said determination module one, sends the feedback of data on the corresponding descending sub frame of said blank frame to the base station.
The embodiment of the invention is through setting the HARQ sequential relationship; When the corresponding sub-frame of uplink of descending sub frame in the FDD band downlink is blank frame; Confirm the up feedback subframe of said blank frame corresponding downlink data according to the HARQ sequential relationship of setting; On the sub-frame of uplink of confirming, carry out the downlink data feedback, thereby can carry out data dispatch, improved the utilance of downlink resource the DL subframe of the corresponding DL frequency range of the UL subframe of UL frequency range.Adopt the technical scheme of the embodiment of the invention, need not adopt the problem that solves up feedback that repeatedly retransmits, thereby improved the service quality of access link.
If the part UL subframe of FDD UL frequency range is used to do back haul link; Adopt embodiments of the invention; The corresponding FDD transfer of data of this part UL subframe is fed back on the UL subframe outside this part UL subframe; Thereby improved the DL resource utilization, can not bring extra propagation delay time, also can the Qos of access link not impacted.
Description of drawings
In order to be illustrated more clearly in the technical scheme in the embodiment of the invention; The accompanying drawing of required use is briefly introduced in will describing embodiment below; Obviously, the accompanying drawing in describing below only is some embodiments of the present invention, for those of ordinary skill in the art; Under the prerequisite of not paying creative work property, can also obtain other accompanying drawing according to these accompanying drawings.
Fig. 1 is operated in the scene of FDD UL frequency band for prior art TDD;
Fig. 2 is used for the scene of DL transmission for whole frequency bands of prior art FDD;
Fig. 3 is the scene that prior art TDD system uses part FDD UL resource;
Fig. 4 is the another kind of scene that prior art TDD system uses part FDD UL resource;
Fig. 5 is the another kind of scene that prior art TDD system uses part FDD UL resource;
Fig. 6 uses the scene of part FDD UL subframe for the prior art downlink transmission system;
Fig. 7 is the scene of the available technology adopting part FDD UL resource of frequency range as back haul link;
Fig. 8 is for being the another kind of scene of available technology adopting part FDD UL resource of frequency range back haul link;
Fig. 9 is for being the another kind of scene of available technology adopting part FDD UL resource of frequency range back haul link;
Figure 10 is the schematic flow sheet of a kind of transfer of data feedback method of the embodiment of the invention;
Figure 11 is the schematic flow sheet of the another kind of transfer of data feedback method of the embodiment of the invention;
Figure 12 is the schematic flow sheet of the another kind of transfer of data feedback method of the embodiment of the invention;
Figure 13 is the schematic flow sheet of the another kind of transfer of data feedback method of the embodiment of the invention;
Figure 14 is the schematic flow sheet of the another kind of transfer of data feedback method of the embodiment of the invention;
Figure 15 is the structural representation of embodiment of the invention base station;
Figure 16 is the structural representation of embodiment of the invention UE.
Embodiment
In order to make the object of the invention, technical scheme and advantage clearer, will combine accompanying drawing that the present invention is done to describe in detail further below, obviously, described embodiment only is a part of embodiment of the present invention, rather than whole embodiment.Based on the embodiment among the present invention, those of ordinary skills are not making all other embodiment that obtained under the creative work prerequisite, all belong to the scope of the present invention's protection.
Fig. 1 to Fig. 6 is the application scenarios of the access link of the embodiment of the invention, and the present invention is an example with the scene of isomery, and the scene of isomorphism is used and used identical with the isomery scene.Include but not limited in the embodiment of the invention citedly in the scene of isomery, the embodiment of the invention is that example describes with macrocell and Microcell:
Wherein, the access link of macrocell is:
DL (from macrocell to the macrocell subscriber equipment (MUE, macro cell ' s UE)): use the DL frequency range of FDD, shown in the FDD DL white edge among the figure;
UL (from MUE to the macrocell): the part subframe in the UL frequency range of use FDD, shown in the oblique line subframe of the FDDUL frequency range among the figure.
Microcell has two access link:
One is the FDD access link, and the access link of FDD can exist according to the configuration of system, also can not exist.
DL (from little base station to Microcell subscriber equipment PUE (Pico cell ' s UE)): use the DL frequency range of FDD, shown in the white subframe of the FDD DL frequency range among the figure;
UL (from little base station to Microcell): use the part subframe the UL frequency range of FDD, shown in the oblique line subframe in the FDD UL frequency range among the figure.
Another is the TDD access link, and what this access link used is the resource on the FDD UL.
DL (from little base station to Microcell subscriber equipment PUE): use the UL frequency range of FDD, shown in the stain grid subframe of the FDDUL frequency range among the figure;
UL (from little base station to Microcell): use the part subframe the UL frequency range of FDD, shown in the oblique line subframe in the FDD UL frequency range among the figure.
Like Fig. 7, Fig. 8 and shown in Figure 9, in this application scenarios, the applying portion FDD UL resource of frequency range is as the back haul link of macrocell and Microcell.
Wherein, as shown in Figure 7, comprising:
DL (from the macrocell to the Microcell): the part subframe in the UL frequency range of use FDD, shown in the oblique line subframe of the part of the FDD UL frequency range among the figure;
UL (from the Microcell to the macrocell): the part subframe in the UL frequency range of use FDD, shown in the latticed subframe in the FDD UL frequency range among the figure.
As shown in Figure 8, at macrocell and Microcell, the DL frequency range of the DL link of backhaul and FDD DL frequency range access link time division multiplexing FDD, the UL frequency range of the UL link of backhaul simultaneously and the UL frequency range access link time division multiplexing FDD of FDD system.
The access link of macrocell:
DL (from macrocell to macrocell subscriber equipment MUE): use the subframe the DL frequency range of FDD; White edge subframe and oblique line subframe like the FDD DL frequency range in left side among the figure; Wherein, this white edge subframe only is that FDD DL access link uses, and the oblique line subframe is as backhaul DL resource; Can be multiplexing, as shown in Figure 8 with FDD DL access link;
UL (from the macrocell subscriber equipment to macrocell): use the subframe the UL frequency range of FDD; Point-like subframe and latticed subframe like the FDD UL frequency range in left side among the figure; Its dotted subframe only is that FDD UL access link uses; Latticed subframe can be multiplexing, as shown in Figure 8 with the capable access link of FDD UL as backhaul UL resource;
Microcell has 2 access link:
The access link of FDD:
DL (from the Microcell Microcell to Microcell subscriber equipment PUE): use the part subframe the DL frequency range of FDD, shown in the white edge in the FDD DL frequency range on right side among the figure;
UL (from PUE to the Microcell): the part subframe in the UL frequency range of use FDD, shown in the subframe of the dot-hatched in the FDD UL frequency range on right side among the figure;
The access link of TDD:
DL (from the Microcell to PUE): the part subframe in the UL frequency range of use FDD, shown in black fine mesh in the FDD UL frequency range on right side among the figure;
UL (from PUE to the Microcell): the part subframe in the UL frequency range of use FDD, shown in the subframe of the dot-hatched of the FDD UL frequency range on right side among the figure;
Back haul link:
DL (from macrocell to Microcell): use the part subframe the DL frequency range of FDD, shown in the FDD DL frequency range diagonal line hatches subframe among the figure;
UL (from the Microcell to the macrocell): the part subframe in the UL frequency range of use FDD, deceive shown in the grid like the FDD UL frequency range coarse grid and the thin of right side in left side among the figure;
In the thin black grid subframe of Microcell, the UL (Microcell is to macrocell) of the transmission of the DL of the access link of Microcell (Microcell is to PUE) and back haul link sends in same subframe.
If the isomorphism sub-district, then the occupation mode of FDD UL resource and isomery sub-district are similar, and wherein the isomorphism sub-district can comprise macrocell and macrocell, perhaps Microcell and Microcell.
In the above-mentioned application scenarios; When the part UL of FDD system access link resource can be used to DL access link resource or the wireless backhaul link resource of TDD system; Data and signaling on FDD UL frequency range UL subframe are sent the interference to data on the DL subframe on this frequency range and signaling reception; On on the FDD UL frequency range with DL subframe correspondence, as to have the FDD UL frequency range of disturbing UL subframe (being blank frame); Do not carry out the transmission of transfer of data and signaling, disturb thereby avoid the use of to produce between two equal connecting systems of same section frequency range.
In the prior art, on the DL subframe of the corresponding DL frequency range of the UL subframe of the UL frequency range that can't carry out up feedback, do not carry out the scheduling of data, thereby the utilance of downlink resource is just greatly reduced.And; If scheduling at the enterprising line data of DL subframe of the corresponding DL frequency range of the UL subframe of the UL frequency range that can't carry out up feedback; Then need could solve up feedback problem through the mode that repeatedly retransmits; This can bring extra feedback delay to transfer of data, this extra feedback delay influenced access link service quality (Quality of Service, Qos).If the part UL subframe of FDD UL frequency range is used to do back haul link; Thereby cause the corresponding part FDD DL transfer of data of this part UL subframe on this part UL subframe, to feed back; Can cause the reduction of DL resource utilization or bring extra propagation delay time, also can the Qos of access link be impacted.
The embodiment of the invention proposes following solution in order to address the above problem:
The embodiment of the invention provides a kind of method of transfer of data feedback, shown in Figure 10 a, comprising:
10a1, the sub-frame of uplink corresponding as if descending sub frame in the FDD band downlink are blank frame; The base station is according to the automatic repeat requests HARQ sequential relationship of setting of mixing; Confirm the up feedback subframe of the descending sub frame that said blank frame is corresponding, sequential relationship comprises during said HARQ: the corresponding relation of the descending sub frame that blank frame is corresponding and the up feedback subframe of said descending sub frame;
10a2, on said up feedback subframe, the base station receives the feedback of data on the corresponding descending sub frame of said blank frame that UE sends.
The embodiment of the invention is through setting the HARQ sequential relationship; When the corresponding sub-frame of uplink of descending sub frame in the FDD band downlink is blank frame; Confirm the up feedback subframe of said blank frame corresponding downlink data according to the HARQ sequential relationship of setting; On the sub-frame of uplink of confirming, carry out the downlink data feedback, thereby can carry out data dispatch, improved the utilance of downlink resource the DL subframe of the corresponding DL frequency range of the UL subframe of UL frequency range.Adopt the technical scheme of the embodiment of the invention, need not adopt the problem that solves up feedback that repeatedly retransmits, thereby improved the service quality of access link.If the part UL subframe of FDD UL frequency range is used to do back haul link; Adopt embodiments of the invention; The corresponding FDD transfer of data of this part UL subframe is fed back on the UL subframe outside this part UL subframe; Thereby improved the DL resource utilization, can not bring extra propagation delay time, also can the Qos of access link not impacted.
The embodiment of the invention provides a kind of method of transfer of data feedback, shown in Figure 10 b, comprising:
10b1, the sub-frame of uplink corresponding as if descending sub frame in the FDD band downlink are blank frame; User terminal UE is according to the automatic repeat requests HARQ sequential relationship of setting of mixing; Confirm the up feedback subframe of the descending sub frame that said blank frame is corresponding, sequential relationship comprises during said HARQ: the corresponding relation of the descending sub frame that blank frame is corresponding and the up feedback subframe of said descending sub frame;
10b2, on said up feedback subframe, said UE sends the feedback of data on the corresponding descending sub frame of said blank frame to the base station.
The embodiment of the invention is through setting the HARQ sequential relationship; When the corresponding sub-frame of uplink of descending sub frame in the FDD band downlink is blank frame; Confirm the up feedback subframe of said blank frame corresponding downlink data according to the HARQ sequential relationship of setting; On the sub-frame of uplink of confirming, carry out the downlink data feedback, thereby can carry out data dispatch, improved the utilance of downlink resource the DL subframe of the corresponding DL frequency range of the UL subframe of UL frequency range.Adopt the technical scheme of the embodiment of the invention, need not adopt the problem that solves up feedback that repeatedly retransmits, thereby improved the service quality of access link.If the part UL subframe of FDD UL frequency range is used to do back haul link; Adopt embodiments of the invention; The corresponding FDD transfer of data of this part UL subframe is fed back on the UL subframe outside this part UL subframe; Thereby improved the DL resource utilization, can not bring extra propagation delay time, also can the Qos of access link not impacted.
The embodiment of the invention provides a kind of method of transfer of data feedback; In the present embodiment; Set the sequential relationship of HARQ; The sequential relationship of said setting HARQ is confirmed the UL feedback subframe of the DL data that said FDD UL frequency range empty frame is corresponding for being the beginning with the blank frame frame number according to the sequential relationship of TDD HARQ.The HARQ sequential relationship of said setting can be by base station or UE or agreement setting.The present invention is the entity of limit setting HARQ sequential relationship not.Said embodiment comprises:
Comprising of blank frame wherein: the UL subframe that can't carry out UL data feedback; For example; Do not carry out the subframe that UL data and signaling are sent; The access link DL subframe of TDM on the UL frequency range (time division multiplexing), the perhaps backhaul subframe on the UL frequency range, the perhaps subframe that can't carry out up feedback that causes of other forms.
If the UL subframe of the FDD UL frequency range of DL subframe correspondence is the non-blank-white frame in the FDD DL frequency range, then use FDD HARQ feedback sequential to feed back.
1101, set the sequential relationship of HARQ; The sequential relationship of said HARQ comprises: if the UL subframe of the FDD UL frequency range of DL subframe correspondence is a blank frame in the FDD DL frequency range; With the blank frame frame number is the beginning, confirms the up feedback subframe of said blank frame corresponding downlink data according to the sequential relationship of TDD HARQ.
The HARQ sequential relationship of this setting in the step 1101 can be that the basis is set according to existing TDD allocation list and TDDHARQ sequential relationship table.
Table one is existing TDD allocation list, and table two is existing TDD HARQ sequential relationship table.The K value of TDD configuration, K value are the frame amount of bias of descending sub frame and its up feedback subframe ,-be the UL subframe.
Figure BDA0000026539470000091
Table one
Figure BDA0000026539470000092
Table two
Feedback scheme according to prior art FDD HARQ; If the UL subframe of the FDDUL frequency range of DL subframe correspondence is a blank frame in the FDD DL frequency range; Like FDD DL frequency range subframe 1,2,6 and 7, its UL feedback subframe is the wireless sub-frame 0 and 1 of UL subframe 5,6 and next radio frames in the FDD UL frequency range.Because (the DL subframe of TDD configuration 0 is 0 to the DL subframe of the TDD access link of the wireless sub-frame 0 of UL subframe 5,6 and next radio frames and 1 pair of neighbor cell in the FDD UL frequency range; 1; 5,6) interfere with each other, and be set to blank frame; Can't carry out the feedback of UL data, promptly in FDD UL frequency range, can't carry out the UL feedback of DL transfer of data on the wireless sub-frame 0 and 1 of UL subframe 5,6 and next radio frames.
Because the above-mentioned interference relation of evading, the DL subframe 5 of configuration 0 and 6 and the wireless sub-frame 0 and 1 of next radio frames in the TDD system in the FDD UL frequency range in the wireless sub-frame 0 of UL subframe 5,6 and next radio frames and 1 correspondence table one.Table three, the configuration of TDD configuration in table four and the table five and the blank frame of FDD UL is similarly, the configuration of DL sub-frame configuration and blank frame is similar in table six.In order to make description clearer, be configured to example with TDD among the present invention and describe.
Press FDD HARQ sequential relationship; The sub-frame of uplink (n+4) that descending sub frame in the DL frequency range (n) is corresponding is as the UL feedback subframe of descending sub frame n; For example adopt FDD HARQ sequential relationship; FDD DL frequency range descending sub frame 1,2,6 and 7 UL feedback subframe are the wireless sub-frame 0 and 1 of UL subframe 5,6 and next radio frames, shown in the dotted line among Figure 11.But the wireless sub-frame 0 and 1 of UL subframe 5,6 and next radio frames all is a blank frame; Can not carry out the data feedback; With the blank frame frame number is the beginning, adopts the feedback relationship of the TDD HARQ sequential of table two, and the UL subframe (blank frame) of the FDD UL frequency range that DL subframe n is corresponding in the FDD DL frequency range that promptly blank frame is corresponding is n+4; The up feedback subframe of confirming to the end from blank frame is (n+4)+k, and wherein k is the k in the table two TDD HARQ time-scale.DL subframe n is n+ (4+k) to the up feedback subframe of FDD UL frequency range from the corresponding FDD DL frequency range of blank frame; Formed a kind of new sequential relationship K '=k+4, DL subframe n is k '=4 to the up feedback subframe of FDD UL frequency range in the FDD DL frequency range of other non-blank-white frame correspondence.Shown in table three, wherein "-" part is represented the sequential of FDD, K '=4 just, and other sequential relationships are K '=k+4.Grey color part in the table three is optional part, can not be embodied in the table three.
Figure BDA0000026539470000101
Figure BDA0000026539470000111
Table three, the HARQ sequential relationship of setting
The reason of evading owing to interference; In the FDD UL subframe with TDD configuration in the UL subframe of the corresponding FDD UL frequency range of DL subframe be blank frame; With TDD configuration in the table one 0 is example, the situation of other configurations (such as TDD configuration 1 to TDD configuration 6) and the class of operation of configuration 0 seemingly, as follows:
1102,,, confirm the position of the UL feedback subframe of the pairing DL data of said blank frame according to the HARQ sequential relationship of said setting if the corresponding UL subframe of DL subframe is a blank frame in the FDD DL frequency range.
The position of blank subframe is set by the base station, and UE can be known through base station broadcast or dedicated signaling advice method then.
For example the UL subframe 0,1,5,6 in the FDD UL frequency range that is configured to of UE blank frame is notified in the base station.
DL subframe 1; 2; In 6, the 7 corresponding FDD UL frequency ranges UL subframe 0 of UL subframe 5,6 and next radio frames and 1 and the TDD system in configuration 0 DL subframe 5 and 6 and the subframe 0 and 1 of next radio frames, wherein; Subframe 5,6 and next radio frames 0 and 1 are blank frame, like the configuration of above-mentioned base station notice.This configuration and TDD configuration 0 coupling are according to the HARQ sequential relationship of setting, promptly in table three; Search according to DL subframe numbers in TDD configuration 0 and the FDD DL frequency range, confirm DL subframe 1,2 in the FDD DL frequency range; 6,7 UL feedback subframe is respectively: the UL feedback subframe of subframe 1 is a 1+8=9 work song frame; The UL feedback subframe of subframe 2 is a 2+10=12 work song frame, is the wireless sub-frame 2 of next radio frames; The UL feedback subframe of subframe 6 is a 6+8=14 work song frame, is the wireless sub-frame 4 of next radio frames; The UL feedback subframe of subframe 7 is a 7+10=17 work song frame, is the wireless sub-frame 7 of next radio frames.
If the UL subframe of the FDD UL frequency range of DL subframe correspondence is the non-blank-white frame in the FDD DL frequency range, then use FDD HARQ feedback sequential to feed back.Such as, DL subframe 0 and 3,4 in the FDD DL frequency range, 5,8,9 its according to the UL subframe in the corresponding FDD UL frequency range of FDD HARQ feedback sequential be: 4,7,8,9, and the wireless sub-frame 2,3 of next radio frames.Because the UL subframe in the FDD UL frequency range 2,3,4,7,8,9 is a sub-frame of uplink, and is the non-blank-white frame, so can do the up feedback of DL subframe in the corresponding FDD DL frequency range.
If press FDD HARQ sequential relationship; The UL subframe of the FDD UL frequency range of DL subframe correspondence is a blank frame in the FDD DL frequency range; Like FDD DL frequency range subframe 1,2,6 and 7; According to FDD HARQ sequential relationship, its UL feedback subframe is the wireless sub-frame 0 and 1 of UL subframe 5,6 and next radio frames in the FDD UL frequency range.Owing to disturb the relation of evading; So in the FDD UL frequency range wireless sub-frame 0 of UL subframe 5,6 and next radio frames and 1 and the TDD system in configuration 0 DL subframe 5 and 6 and the wireless sub-frame 0 and 1 of next radio frames corresponding one by one; And be set to blank frame, can't carry out the feedback of UL data.
Under FDD DL subframe numbers, the FDD UL subframe numbers situation identical, be referred to as direct correspondence in the present invention with the TDD subframe numbers.
When the directly corresponding UL feedback subframe of DL subframe (n) up-downgoing data in the FDD DL frequency range is blank frame; HARQ sequential by setting is fed back; The sub-frame of uplink directly corresponding from the DL subframe begins; Adopt TDD HARQ sequential, the up feedback subframe of definite downlink data is n+k, and promptly the HARQ sequential corresponding relation of this moment is K '=k.
Shown in figure 12; By the UL subframe 5,6 of the FDD HARQ feedback of the visible FDD DL frequency range subframe 1,2,6 of top description and 7 and the wireless sub-frame 0 and 1 of next radio frames is blank frame; The directly corresponding UL subframe of FDD DL frequency range subframe 1 and 6 also is a blank frame simultaneously, and the position of blank frame is consistent with the DL time slot position that TDD disposes in 0 all.At this moment the feedback of FDD DL frequency range subframe 1 and 6 UL subframe directly adopts DL subframe 1 and 6 feedback parameter the K '=k in the TDD HARQ sequential in the TDD configuration 0; Be respectively 6 and 6; So the position of its UL feedback subframe is 1+6=7 work song frame and 6+6=12, the wireless sub-frame 2 of next radio frames.
And DL subframe 2 and 7; Press the sequential feedback relationship of FDD; The directly corresponding UL subframe 2 and 7 of FDD DL frequency range subframe 2 and 7 is not a blank frame, adopts the HARQ sequential of setting, and the blank frame corresponding with FDD DL frequency range DL subframe is initial; Press TDD HARQ sequential, the UL subframe of blank frame corresponding downlink data feedback is fed back subframe as UL.The UL subframe of carrying out the downlink data feedback that FDD DL frequency range DL subframe is corresponding is for being initial with the blank frame frame number promptly; Adopt the feedback relationship of TDD HARQ sequential; I.e. (n+4)+k; Then DL subframe n is n+ (4+k) to the up feedback subframe of FDD UL frequency range from the corresponding FDD DL frequency range of blank frame, has formed a kind of new sequential relationship K '=k+4.
The blank frame corresponding with FDD DL frequency range DL subframe is initial, presses TDD HARQ sequential, and the UL subframe of carrying out the downlink data feedback that blank frame is corresponding is fed back subframe as UL; Be K '=k+4; Formed a kind of new sequential relationship shown in table four, wherein " oblique line " part is TDD sequential K '=k value, and "-" part is represented the sequential of FDD; K '=4 just, other sequential are K '=k+4.Grey color part in the table four is optional part, can not be embodied in the table four.
Figure BDA0000026539470000131
Table four
Still be example with TDD configuration 0, evade owing to disturb, in the FDD UL subframe with the TDD configuration in the UL subframe of the corresponding FDD UL frequency range of DL subframe be blank frame, the situation of other configurations is identical with the operation of configuration 0.
In the TDD configuration 0, blank frame 0,1,5; 6 corresponding DL subframes are respectively 1,2,6,7; In table four, search, confirm DL subframe 1,2 in the FDD DL frequency range according to DL subframe numbers in TDD configuration 0 or blank frame configuration 0 and the FDD DL frequency range; 6,7 UL feedback subframe is respectively: the UL feedback subframe of subframe 1 is a 1+6=7 work song frame; The UL feedback subframe of subframe 2 is a 2+10=12 work song frame, is the wireless sub-frame 2 of next radio frames; The UL feedback subframe of subframe 6 is a 6+6=12 work song frame, is the wireless sub-frame 2 of next radio frames; The UL feedback subframe of subframe 7 is a 7+10=17 work song frame, is the wireless sub-frame 7 of next radio frames.
1103, press FDD HARQ sequential relationship or described direct corresponding relationship, the DL data dispatch is carried out on the DL subframe in the base station in the corresponding FDD DL frequency range of said blank frame.
In embodiment one, the base station descending sub frame 1,2,6,7 on carry out the scheduling of downlink data;
1104, press FDD HARQ sequential relationship or described direct corresponding relationship, UE receives this DL data dispatch on the DL subframe in the corresponding FDD DL frequency range of blank frame.
In embodiment one, UE descending sub frame 1,2,6,7 on carry out the reception of downlink data;
1105, according to the HARQ sequential relationship of setting, UE carries out the feedback of downlink data on the position of the UL of the pairing DL data of said blank frame feedback subframe.
In embodiment one; Obtain HARQ sequential relationship table according to the HARQ sequential relationship of setting; Through searching said sequential relationship table, the up feedback subframe that obtains descending sub frame 1,2,6,7 is respectively: 9,12 (wireless sub-frames 2 of next radio frames); 14 (wireless sub-frames 4 of next radio frames), 17 (wireless sub-frames 7 of next radio frames).UE sends up feedback on described up feedback subframe then.
1106, according to the HARQ sequential relationship of setting, the feedback of base station downlink data receiving on the position of the UL of the pairing DL data of said blank frame feedback subframe.
In embodiment one; Obtain HARQ sequential relationship table according to the HARQ sequential relationship of setting, through searching said sequential relationship table, the up feedback subframe that obtains descending sub frame 1,2,6,7 is respectively: 9; 12 (wireless sub-frames 2 of next radio frames); 14 (wireless sub-frames of next radio frames), 17 (wireless sub-frames 7 of next radio frames), the base station receives up feedback on described up feedback subframe.
The embodiment of the invention is through setting the sequential relationship of HARQ; The sequential relationship of said HARQ comprises: if the UL subframe of the FDD UL frequency range of DL subframe correspondence is a blank frame in the FDDDL frequency range; With the blank frame frame number is the beginning; Confirm the up feedback subframe of said blank frame corresponding downlink data according to the sequential relationship of TDD HARQ, thereby avoid having improved the service quality of access link through repeatedly retransmitting the problem that solves up feedback.If the part UL subframe of FDDUL frequency range is used to do back haul link; Adopt embodiments of the invention; The corresponding FDD transfer of data of this part UL subframe is fed back on the UL subframe outside this part UL subframe; Thereby improved the DL resource utilization, can not bring extra propagation delay time, also can the Qos of access link not impacted.
Fig. 5 is a kind of transfer of data feedback method of the present invention embodiment; In the present embodiment; Set the sequential relationship of HARQ; The sequential relationship of said HARQ can be with near the principle of the X sub-frame the blank frame according to load balancing, and the sub-frame in the selected said X sub-frame is as the up feedback subframe of said blank frame corresponding downlink data.The HARQ sequential relationship can be by base station or UE or agreement setting, and the present invention does not limit the entity of setting the HARQ sequential relationship.Said embodiment comprises:
501, set the sequential relationship of HARQ; The sequential relationship of said HARQ comprises; With near the principle of the X sub-frame the said blank frame according to load balancing, the sub-frame in the selected said X sub-frame is as the up feedback subframe of said blank frame corresponding downlink data.
502, if the pairing UL subframe of DL subframe FDD HARQ feedback sequential is a blank frame in the FDD DL frequency range; Said HARQ sequential relationship according to said setting; Sub-frame in the selected said X sub-frame is as the up feedback subframe of said blank frame corresponding downlink data.
If the UL subframe of the FDD UL frequency range of DL subframe correspondence is the non-blank-white frame in the FDD DL frequency range, then use FDD HARQ feedback sequential to feed back.
If the UL subframe of the FDD UL frequency range of DL subframe correspondence is a blank frame in the FDD DL frequency range; Like FDDDL frequency range subframe 1,2,6 and 7; According to the feedback scheme of prior art, its UL feedback subframe is the wireless sub-frame 0 and 1 of UL subframe 5,6 and next radio frames in the FDD UL frequency range.Owing to disturb the relation of evading; So in the FDD UL frequency range wireless sub-frame 0 of UL subframe 5,6 and next radio frames and 1 and the TDD system in configuration 0 DL subframe 5 and 6 and the wireless sub-frame 0 and 1 of next radio frames corresponding one by one; And be set to blank frame, can't carry out the feedback of UL data.
Like Figure 13 and Figure 14, with near the principle of the X sub-frame the said blank frame according to load balancing, the sub-frame in the selected said X sub-frame is as up feedback of said blank frame corresponding downlink data; Form new HARQ feedback sequential like this, shown in table five.
Grey color part in the table five is optional part, can not be embodied in the table five.
Figure BDA0000026539470000151
Figure BDA0000026539470000161
Table five
Because the relation that aforesaid interference is evaded, blank frame are 0,1,5,6, then satisfy the configuration of the descending sub frame in the TDD configuration 0.Blank frame 0,1,5,6 corresponding FDD DL subframes are respectively 1,2,6,7; In table five, search, confirm DL subframe 6,7 in the FDD DL frequency range according to DL subframe numbers in TDD configuration 0 or blank frame configuration 0 and the FDD DL frequency range; 1,2 UL feedback subframe is respectively: the UL feedback subframe of subframe 1 can be 1+6=7 work song frame; Or 1+7=8 work song frame, or 1+8=9 work song frame; The UL feedback subframe of subframe 2 is a 2+5=7 work song frame, or 2+6=8 work song frame, or 2+7=9 work song frame; The UL feedback subframe of subframe 6 is a 6+6=12 work song frame, is the wireless sub-frame 2 of next radio frames, or 6+7=13 work song frame, is the wireless sub-frame 3 of next radio frames, or 6+8=14 work song frame, is the wireless sub-frame 4 of next radio frames; The UL of subframe 7 feedback subframe is a 7+5=12 work song frame, is the wireless sub-frame 2 of next radio frames, and 7+6=13 work song frame is the wireless sub-frame 3 of next radio frames, and 7+7=14 work song frame is the wireless sub-frame 4 of next radio frames.
Shown in table five, a plurality of values in the form are various feedback values, and UE can select wherein any one to feed back according to the principle of load balancing, make that the up feedback ratio on a plurality of UL feedback subframes is balanced.The feedback numerical value of selecting part in the table five forms new a plurality of feedback sublists, and the method for using and the table five of these a plurality of feedback sublists are similar, do not give unnecessary details one by one at this.
Such as, for descending sub frame 1,2,6,7 feedback, 1 work song frame feeds back on No. 7 frames, and 2 work song frames had better not also feed back on No. 7 frames, and are too many to avoid on No. 7 frames up feedback, and then No. 2 frames can feed back on No. 8 frames.Feedback for 6,7 work song frames also is that so 6,7 work song frames preferably feed back on the different sub-frame of uplink, to realize the equilibrium of up feedback, can feed back to 12 work song frames such as 6 work song frames, and it is first-class that 7 work song frames can feed back to 13 work song frames.
In Fig. 2 and Fig. 6, the subframe and the TDD that in FDD UL frequency range, carry out downlink data transmission dispose non-compatibility, and this moment, the feedback of HARQ sequential can't be based on TDD HARQ feedback system.
If the UL subframe of the FDD UL frequency range of DL subframe correspondence is the non-blank-white frame in the FDD DL frequency range, then use FDD HARQ feedback sequential to feed back.
If the UL subframe of the FDD UL frequency range of DL subframe correspondence is a blank frame in the FDD DL frequency range, like FDDDL frequency range subframe 6,7,8,9, according to the feedback scheme of prior art, its UL feedback subframe is a UL subframe 0,1,2,3 in the FDD UL frequency range.Owing to disturb the relation evade,, can't carry out the feedback of UL data so the DL subframe 0,1,2,3 that UL subframe 0,1,2,3 and TDM mode are sent in the FDD UL frequency range is corresponding one by one, and is set to blank frame.
In order to address the above problem; According to the HARQ sequential relationship of setting, i.e. table six is with near the principle of the X sub-frame the said blank frame according to load balancing; Sub-frame in the selected said X sub-frame is as the up feedback subframe of said blank frame corresponding downlink data.Form new HARQ feedback sequential like this, shown in table six:
Figure BDA0000026539470000171
Table six
Like Fig. 2 and shown in Figure 6, when DL number of sub-frames (blank subframe number) is 4, and DL sub-frame offset amount is 0, and then the blank subframe position is 0,1,2,3, and the corresponding DL subframe of FDD HARQ sequential is 6; 7,8,9, then according to table six, according to the principle of load balancing, FDD DL subframe 6 corresponding UL feedback subframes are 6+{8,9,10; 11,12,13}={14,15,16,17,18; 19}, the wireless sub-frame of corresponding next radio frames 4,5,6,7,8, among the 9} one; FDD DL subframe 7 corresponding UL feedback subframes are 7+{7,8,9,10,11, and 12}={14,15,16,17,18,19}, the wireless sub-frame of corresponding next radio frames 4,5,6,7,8, any among the 9}; FDD DL subframe 8 corresponding UL feedback subframes are 8+{6,7,8,9,10, and 11}={14,15,16,17,18,19}, the wireless sub-frame of corresponding next radio frames 4,5,6,7,8, any among the 9}; FDD DL subframe 9 corresponding UL feedback subframes are 9+{5,6,7,8,9, and 10}={14,15,16,17,18,19}, the wireless sub-frame of corresponding next radio frames 4,5,6,7,8, any among the 9}.
Shown in table six, a plurality of values in the form are various feedback values, and UE can select wherein any one to feed back according to the principle of load balancing, make that the up feedback ratio on a plurality of UL feedback subframes is balanced.Form new a plurality of feedback sublists so can from table six, select the feedback numerical value of part, the method for using and the table six of these a plurality of feedback sublists are similar, do not give unnecessary details one by one at this.
Such as, for descending sub frame 6,7; 8,9 feedback, 6 work song frames feed back on No. 4 frames; 7 work song frames are in feedback equalization and consider that had better not feed back on the 4 work song frames, 7 work song frames can feed back on the 5 work song frames; In like manner 8 work song frames had better not also feed back on 4 work song frames or the 5 work song frames, and are too many to avoid on 4 work song frames or the 5 work song frames up feedback, and then No. 8 frames can feed back on No. 6 frames.In like manner, 9 work song frames can feed back on the 7 work song frames.Certain 6,7,8,9 work song frames also can feed back to according to the principle of up feedback equalization 4,5,6,7} or 5,6,7,8} or 6,7,8, any subset that 9} is last.
As stated, according to the demand of so up feedback equalization, can select to make a balanced value of up feedback subframe to carry out up feedback on the different subframe position.
503, press FDD HARQ sequential relationship or described direct corresponding relationship, the DL data dispatch is carried out on the DL subframe in the base station in the corresponding FDD DL frequency range of said blank frame.
In embodiment two, the base station descending sub frame 1,2,6,7 on or carry out the scheduling of downlink data on the descending sub frame 6,7,8,9;
504, press FDD HARQ sequential relationship or described direct corresponding relationship, UE receives this DL data dispatch on the DL subframe in the corresponding FDD DL frequency range of said blank frame.
In embodiment two, the base station descending sub frame 1,2,6,7 on or carry out the reception of downlink data on the descending sub frame 6,7,8,9.
505, according to the HARQ sequential relationship of setting, UE carries out the feedback of downlink data on the position of the UL of the pairing DL data of said blank frame feedback subframe.
In embodiment two,, obtain HARQ sequential relationship table according to the HARQ sequential relationship of setting; UE is through tabling look-up, and the up feedback subframe that obtains descending sub frame 1,2,6,7 is: 7,8; 12 (wireless sub-frames 2 of next radio frames), 13 (wireless sub-frames 3 of next radio frames).Obtain descending sub frame 6,7,8,9 up feedback subframe is: 4,5,6,7} or 5,6,7,8} or 6,7,8, any sub-set that 9} is last.UE sends up feedback on described up feedback subframe then.
506, according to the HARQ sequential relationship of setting, the feedback of base station downlink data receiving on the position of the UL of the pairing DL data of said blank frame feedback subframe.
In embodiment two, according to the HARQ sequential relationship of setting, the base station obtains HARQ sequential relationship table; Through searching, the up feedback subframe that obtains descending sub frame 1,2,6,7 is: 7,8; 12 (wireless sub-frames 2 of next radio frames), 13 (wireless sub-frames 3 of next radio frames).Thereby obtain descending sub frame 6,7,8,9 up feedback subframe is: 4,5,6,7} or 5,6,7,8} or 6,7,8, any sub-set that 9} is last.The base station receives up feedback on described up feedback subframe then.
Only to send subframe be continuous to present embodiment and DL sub-frame offset amount is 0 to be that example describes with DL; Discontinuous for DL transmission subframe; And the amount of bias of DL subframe is non-0 o'clock situation, adopts similar processing method, is about near the said blank frame X sub-frame according to the principle of load balancing; Sub-frame in the selected said X sub-frame is as the up feedback subframe of said blank frame corresponding downlink data., can form a plurality of tables that are similar to table six like this, do not give unnecessary details one by one at this.
Figure 15 is the structural representation of a kind of base station of the embodiment of the invention, comprising:
Determination module 1501; If the sub-frame of uplink that descending sub frame is corresponding in the FDD band downlink is a blank frame; The base station is according to the automatic repeat requests HARQ sequential relationship of setting of mixing; Confirm the up feedback subframe of the descending sub frame that said blank frame is corresponding, sequential relationship comprises during said HARQ: the corresponding relation of the descending sub frame that blank frame is corresponding and the up feedback subframe of said descending sub frame.
Receiver module 1502 is used in the definite up feedback subframe of said determination module, the feedback of data on the descending sub frame of the said blank frame correspondence that reception UE sends.
Wherein, Said determination module specifically is used for when the corresponding sub-frame of uplink of FDD band downlink descending sub frame is said blank frame; According to the sequential relationship that said blank frame and time division duplex mix automatic repeat requests TDD HARQ, confirm the up feedback subframe of the descending sub frame that said blank frame is corresponding.
Wherein, the HARQ sequential relationship in the said determination module embodies with tabular form, and said tabulation comprises descending sub frame number and the said TDD config. number and said descending sub frame number corresponding K ' value of TDD config. number and band downlink; Perhaps comprise blank frame config. number and band downlink descending sub frame number and said blank frame config. number and said descending sub frame number corresponding K ' value; Said K ' is the frame bias of descending sub frame and its up feedback subframe.
Wherein, Said determination module specifically is used in said tabulation; Subframe numbers n according to the blank frame config. number corresponding or TDD config. number and the pairing descending sub frame of said blank frame with said blank frame; Search K ', confirm that the subframe numbers of the up feedback subframe of the descending sub frame that said blank frame is corresponding is n+K '.
Wherein, Said determination module specifically is used for when the corresponding sub-frame of uplink n of FDD band downlink descending sub frame is blank frame; With near the principle of the X sub-frame the said blank frame n according to load balancing; Sub-frame in the selected said X sub-frame is as the up feedback subframe of the corresponding descending sub frame of said blank frame.
The HARQ sequential relationship of setting in the said determination module is with the embodied of tabulation, and said tabulation comprises descending sub frame number and the said TDD config. number and said descending sub frame number X corresponding K ' value of TDD config. number and band downlink; Perhaps said tabulation comprises blank frame config. number and band downlink descending sub frame number and said blank frame config. number and said descending sub frame number X corresponding K ' value; Said K ' is the frame bias of descending sub frame and its up feedback subframe.
Wherein, Said determination module specifically is used for, in said tabulation, according to the subframe numbers n of the blank frame config. number corresponding with said blank frame position or TDD config. number and the pairing descending sub frame of said blank frame; Search X K '; According to the principle of load balancing, in X K ', select a K ', confirm that according to the said K ' that selects the subframe numbers of the up feedback subframe of the descending sub frame that said blank frame is corresponding is n+K '.
Wherein, The HARQ sequential relationship of setting described in the said determination module is with the embodied of tabulation, descending sub frame number and the said TDD config. number that said tabulation comprises TDD config. number and band downlink and said descending sub frame number corresponding according to a K ' value in X the K ' value of the principle selection of load balancing; Perhaps the HARQ sequential relationship of said setting is with the embodied of tabulation, and said tabulation comprises a K ' value of X the K ' value that blank frame config. number and band downlink descending sub frame number and said blank frame config. number and said descending sub frame are number corresponding; Said K ' is the frame bias of descending sub frame and its up feedback subframe.
Wherein, Said determination module specifically is used for; In said tabulation; Said UE searches K ' according to the subframe numbers n of the blank frame config. number corresponding with said blank frame position or TDD config. number and the pairing descending sub frame of said blank frame, confirms that the subframe numbers of the up feedback subframe of the descending sub frame that said blank frame is corresponding is n+K '.
The embodiment of the invention is through setting the HARQ sequential relationship; When the corresponding sub-frame of uplink of descending sub frame in the FDD band downlink is blank frame; Confirm the up feedback subframe of said blank frame corresponding downlink data according to the HARQ sequential relationship of setting; On the sub-frame of uplink of confirming, carry out the downlink data feedback, thereby can carry out data dispatch, improved the utilance of downlink resource the DL subframe of the corresponding DL frequency range of the UL subframe of UL frequency range.Adopt the technical scheme of the embodiment of the invention, need not adopt the problem that solves up feedback that repeatedly retransmits, thereby improved the service quality of access link.If the part UL subframe of FDD UL frequency range is used to do back haul link; Adopt embodiments of the invention; The corresponding FDD transfer of data of this part UL subframe is fed back on the UL subframe outside this part UL subframe; Thereby improved the DL resource utilization, can not bring extra propagation delay time, also can the Qos of access link not impacted.
Figure 16 is the structural representation of a kind of user terminal of the embodiment of the invention, comprising:
Determination module 1; If the sub-frame of uplink that descending sub frame is corresponding in the FDD band downlink is a blank frame; According to the automatic repeat requests HARQ sequential relationship of setting of mixing; Confirm the up feedback subframe of the descending sub frame that said blank frame is corresponding, sequential relationship comprises during said HARQ: the corresponding relation of the descending sub frame that blank frame is corresponding and the up feedback subframe of said descending sub frame.
Sending module 1602 is used for the up feedback subframe confirmed at said determination module one, sends the feedback of data on the corresponding descending sub frame of said blank frame to the base station.
Wherein, Said determination module specifically is used for when the corresponding sub-frame of uplink of FDD band downlink descending sub frame is said blank frame; According to the sequential relationship that said blank frame and time division duplex mix automatic repeat requests TDD HARQ, confirm the up feedback subframe of the descending sub frame that said blank frame is corresponding; HARQ sequential relationship in the said determination module embodies with tabular form, and said tabulation comprises descending sub frame number and the said TDD config. number and said descending sub frame number corresponding K ' value of TDD config. number and band downlink; Perhaps comprise blank frame config. number and band downlink descending sub frame number and said blank frame config. number and said descending sub frame number corresponding K ' value; Said K ' is the frame bias of descending sub frame and its up feedback subframe.
Wherein, Said determination module specifically is used in said tabulation; Subframe numbers n according to the blank frame config. number corresponding or TDD config. number and the pairing descending sub frame of said blank frame with said blank frame; Search K ', confirm that the subframe numbers of the up feedback subframe of the descending sub frame that said blank frame is corresponding is n+K '.
Wherein, Said determination module specifically is used for when the corresponding sub-frame of uplink n of FDD band downlink descending sub frame is blank frame; With near the principle of the X sub-frame the said blank frame n according to load balancing; Sub-frame in the selected said X sub-frame is as the up feedback subframe of the corresponding descending sub frame of said blank frame.
Wherein, the HARQ sequential relationship of setting in the said determination module is with the embodied of tabulation, and said tabulation comprises descending sub frame number and the said TDD config. number and said descending sub frame number X corresponding K ' value of TDD config. number and band downlink; Perhaps said tabulation comprises blank frame config. number and band downlink descending sub frame number and said blank frame config. number and said descending sub frame number X corresponding K ' value; Said K ' is the frame bias of descending sub frame and its up feedback subframe.
Wherein, Said determination module specifically is used for, in said tabulation, according to the subframe numbers n of the blank frame config. number corresponding with said blank frame position or TDD config. number and the pairing descending sub frame of said blank frame; Search X K '; According to the principle of load balancing, in X K ', select a K ', confirm that according to the said K ' that selects the subframe numbers of the up feedback subframe of the descending sub frame that said blank frame is corresponding is n+K '.
The HARQ sequential relationship of setting described in the said determination module is with the embodied of tabulation, descending sub frame number and the said TDD config. number that said tabulation comprises TDD config. number and band downlink and said descending sub frame number corresponding according to a K ' value in X the K ' value of the principle selection of load balancing; Perhaps the HARQ sequential relationship of said setting is with the embodied of tabulation, and said tabulation comprises a K ' value of X the K ' value that blank frame config. number and band downlink descending sub frame number and said blank frame config. number and said descending sub frame are number corresponding; Said K ' is the frame bias of descending sub frame and its up feedback subframe.
Said determination module specifically is used for; In said tabulation; Said UE is according to the subframe numbers n of the blank frame config. number corresponding with said blank frame position or TDD config. number and the pairing descending sub frame of said blank frame; Search K ', confirm that the subframe numbers of the up feedback subframe of the descending sub frame that said blank frame is corresponding is n+K '.
The embodiment of the invention is through setting the HARQ sequential relationship; When the corresponding sub-frame of uplink of descending sub frame in the FDD band downlink is blank frame; Confirm the up feedback subframe of said blank frame corresponding downlink data according to the HARQ sequential relationship of setting; On the sub-frame of uplink of confirming, carry out the downlink data feedback, thereby can carry out data dispatch, improved the utilance of downlink resource the DL subframe of the corresponding DL frequency range of the UL subframe of UL frequency range.Adopt the technical scheme of the embodiment of the invention, need not adopt the problem that solves up feedback that repeatedly retransmits, thereby improved the service quality of access link.If the part UL subframe of FDD UL frequency range is used to do back haul link; Adopt embodiments of the invention; The corresponding FDD transfer of data of this part UL subframe is fed back on the UL subframe outside this part UL subframe; Thereby improved the DL resource utilization, can not bring extra propagation delay time, also can the Qos of access link not impacted.
It should be noted that among above-mentioned subscriber equipment and the base station embodiment that each included unit is just divided according to function logic, but is not limited to above-mentioned division, as long as can realize function corresponding; In addition, the concrete title of each functional unit also just for the ease of mutual differentiation, is not limited to protection scope of the present invention.
In addition; One of ordinary skill in the art will appreciate that all or part of step that realizes among above-mentioned each method embodiment is to instruct relevant hardware to accomplish through program; Corresponding program can be stored in a kind of computer-readable recording medium; The above-mentioned storage medium of mentioning can be a read-only memory, disk or CD etc.
The above; Be merely the preferable embodiment of the present invention; But protection scope of the present invention is not limited thereto; Any technical staff who is familiar with the present technique field is in the technical scope that the embodiment of the invention discloses, and the variation that can expect easily or replacement all should be encompassed within protection scope of the present invention.Therefore, protection scope of the present invention should be as the criterion with the protection range of claim.

Claims (27)

1. the method for a transfer of data feedback is characterized in that, comprising:
If the sub-frame of uplink that descending sub frame is corresponding in the FDD band downlink is a blank frame; The base station is according to the automatic repeat requests HARQ sequential relationship of setting of mixing; Confirm the up feedback subframe of the descending sub frame that said blank frame is corresponding, sequential relationship comprises during said HARQ: the corresponding relation of the descending sub frame that blank frame is corresponding and the up feedback subframe of said descending sub frame;
On said up feedback subframe, the feedback of data on the descending sub frame of the said blank frame correspondence that base station reception UE sends.
2. method according to claim 1 is characterized in that, said base station confirms that according to the HARQ sequential relationship of setting the up feedback subframe of the descending sub frame that said blank frame is corresponding comprises:
When the corresponding sub-frame of uplink of descending sub frame in the FDD band downlink is said blank frame; The up feedback subframe of the descending sub frame that said blank frame is corresponding is confirmed according to the sequential relationship that said blank frame and time division duplex mix automatic repeat requests TDD HARQ in said base station.
3. method according to claim 1 is characterized in that,
The HARQ sequential relationship of said setting is with the embodied of tabulation, and said tabulation comprises the subframe numbers and the said TDD config. number K ' value corresponding with the subframe numbers of said descending sub frame of the descending sub frame of TDD config. number and band downlink; Perhaps
The HARQ sequential relationship of said setting is with the embodied of tabulation, and said tabulation comprises the subframe numbers and the said blank frame config. number K ' value corresponding with the subframe numbers of said descending sub frame of blank frame config. number and band downlink descending sub frame;
Said K ' is the frame bias of descending sub frame and its up feedback subframe;
Said base station confirms that according to the HARQ sequential relationship of setting the up feedback subframe of the descending sub frame that said blank frame is corresponding comprises:
In said tabulation; Said base station is according to the subframe numbers n of the blank frame config. number corresponding with said blank frame or TDD config. number and the pairing descending sub frame of said blank frame; Search K ', confirm that the subframe numbers of the up feedback subframe of the descending sub frame that said blank frame is corresponding is n+K '.
4. method according to claim 1 is characterized in that, said base station confirms that according to the automatic repeat requests HARQ sequential relationship of setting of mixing the up feedback subframe of the descending sub frame that said blank frame is corresponding comprises:
When the corresponding sub-frame of uplink n of descending sub frame in the FDD band downlink is blank frame; Said base station is with near the principle of the X sub-frame the said blank frame n according to load balancing; Sub-frame in the selected said X sub-frame is as the up feedback subframe of the corresponding descending sub frame of said blank frame.
5. method according to claim 1 is characterized in that,
The HARQ sequential relationship of said setting is with the embodied of tabulation, and said tabulation comprises the subframe numbers and said TDD config. number X the K ' value corresponding with the subframe numbers of said descending sub frame of the descending sub frame of TDD config. number and band downlink; Perhaps
The HARQ sequential relationship of said setting is with the embodied of tabulation, and said tabulation comprises the subframe numbers and said blank frame config. number X the K ' value corresponding with the subframe numbers of said descending sub frame of blank frame config. number and band downlink descending sub frame;
Said K ' is the frame bias of descending sub frame and its up feedback subframe;
Said base station confirms that according to the HARQ sequential relationship of setting the up feedback subframe of the descending sub frame that said blank frame is corresponding comprises:
In said tabulation; Said base station is according to the subframe numbers n of the blank frame config. number corresponding with said blank frame position or TDD config. number and the pairing descending sub frame of said blank frame; Search X K '; According to the principle of load balancing, in X K ', select a K ', confirm that according to the said K ' that selects the subframe numbers of the up feedback subframe of the descending sub frame that said blank frame is corresponding is n+K '.
6. method according to claim 4 is characterized in that,
The HARQ sequential relationship of said setting is with the embodied of tabulation, said tabulation comprise the subframe numbers of subframe numbers and said TDD config. number and said descending sub frame of descending sub frame of TDD config. number and band downlink corresponding according to a K ' value in X the K ' value of the principle selection of load balancing; Perhaps
The HARQ sequential relationship of said setting is with the embodied of tabulation, and said tabulation comprises a K ' value in subframe numbers and the said blank frame config. number of blank frame config. number and band downlink descending sub frame X the K ' value corresponding with the subframe numbers of said descending sub frame;
Said base station confirms that according to the HARQ sequential relationship of setting the up feedback subframe of the descending sub frame that said blank frame is corresponding comprises:
In said tabulation; Said base station is according to the subframe numbers n of the blank frame config. number corresponding with said blank frame position or TDD config. number and the pairing descending sub frame of said blank frame; Search K ', confirm that the subframe numbers of the up feedback subframe of the descending sub frame that said blank frame is corresponding is n+K '.
7. method according to claim 1 is characterized in that, the sub-frame of uplink that said FDD descending sub frame is corresponding is a blank frame, comprising:
With the direct corresponding sub-frame of uplink of the descending sub frame in the said FDD band downlink is blank frame; Perhaps
With descending sub frame corresponding sub-frame of uplink in FDD HARQ sequential relationship of said FDD band downlink is blank frame.
8. method according to claim 7 is characterized in that, said blank frame comprises:
Do not carry out the subframe that upstream data and signaling are sent; Perhaps
Access link descending sub frame on the UL frequency range; Perhaps
Backhaul subframe on the UL frequency range.
9. the method for a transfer of data feedback is characterized in that, comprising:
If the sub-frame of uplink that descending sub frame is corresponding in the FDD band downlink is a blank frame; User terminal UE is according to the automatic repeat requests HARQ sequential relationship of setting of mixing; Confirm the up feedback subframe of the descending sub frame that said blank frame is corresponding, sequential relationship comprises during said HARQ: the corresponding relation of the descending sub frame that blank frame is corresponding and the up feedback subframe of said descending sub frame;
On said up feedback subframe, said UE sends the feedback of data on the corresponding descending sub frame of said blank frame to the base station.
10. method according to claim 9 is characterized in that, said UE confirms that according to the HARQ sequential relationship of setting the up feedback subframe of the descending sub frame that said blank frame is corresponding comprises:
When the corresponding sub-frame of uplink of descending sub frame in the FDD band downlink is said blank frame; Said UE confirms the up feedback subframe of the descending sub frame that said blank frame is corresponding according to the sequential relationship that said blank frame and time division duplex mix automatic repeat requests TDD HARQ.
11. method according to claim 9 is characterized in that,
The HARQ sequential relationship of said setting is with the embodied of tabulation, and said tabulation comprises the subframe numbers and the said TDD config. number K ' value corresponding with the subframe numbers of said descending sub frame of the descending sub frame of TDD config. number and band downlink; Perhaps
The HARQ sequential relationship of said setting is with the embodied of tabulation, and said tabulation comprises the subframe numbers and the said blank frame config. number K ' value corresponding with the subframe numbers of said descending sub frame of blank frame config. number and band downlink descending sub frame;
Said K ' is the frame bias of descending sub frame and its up feedback subframe;
Said UE confirms that according to the HARQ sequential relationship of setting the up feedback subframe of the descending sub frame that said blank frame is corresponding comprises:
In said tabulation; Said UE is according to the subframe numbers n of the blank frame config. number corresponding with said blank frame or TDD config. number and the pairing descending sub frame of said blank frame; Search K ', confirm that the subframe numbers of the up feedback subframe of the descending sub frame that said blank frame is corresponding is n+K '.
12. method according to claim 9 is characterized in that, said UE confirms that according to the automatic repeat requests HARQ sequential relationship of setting of mixing the up feedback subframe of the descending sub frame that said blank frame is corresponding comprises:
When the corresponding sub-frame of uplink n of descending sub frame in the FDD band downlink is blank frame; Said UE is with near the principle of the X sub-frame the said blank frame n according to load balancing; Sub-frame in the selected said X sub-frame is as the up feedback subframe of the corresponding descending sub frame of said blank frame.
13. method according to claim 9 is characterized in that,
The HARQ sequential relationship of said setting is with the embodied of tabulation, and said tabulation comprises the subframe numbers and said TDD config. number X the K ' value corresponding with the subframe numbers of said descending sub frame of the descending sub frame of TDD config. number and band downlink; Perhaps
The HARQ sequential relationship of said setting is with the embodied of tabulation, and said tabulation comprises the subframe numbers and said blank frame config. number X the K ' value corresponding with the subframe numbers of said descending sub frame of blank frame config. number and band downlink descending sub frame;
Said K ' is the frame bias of descending sub frame and its up feedback subframe;
Said UE confirms that according to the HARQ sequential relationship of setting the up feedback subframe of the descending sub frame that said blank frame is corresponding comprises:
In said tabulation; Said UE is according to the subframe numbers n of the blank frame config. number corresponding with said blank frame position or TDD config. number and the pairing descending sub frame of said blank frame; Search X K '; According to the principle of load balancing, in X K ', select a K ', confirm that according to the said K ' that selects the subframe numbers of the up feedback subframe of the descending sub frame that said blank frame is corresponding is n+K '.
14. method according to claim 12 is characterized in that,
The HARQ sequential relationship of said setting is with the embodied of tabulation, said tabulation comprise the subframe numbers of subframe numbers and said TDD config. number and said descending sub frame of descending sub frame of TDD config. number and band downlink corresponding according to a K ' value in X the K ' value of the principle selection of load balancing; Perhaps the HARQ sequential relationship of said setting is with the embodied of tabulation, and said tabulation comprises a K ' value of X the K ' value that subframe numbers and the said blank frame config. number of blank frame config. number and band downlink descending sub frame is corresponding with the subframe numbers of said descending sub frame; Said K ' is the frame bias of descending sub frame and its up feedback subframe;
Said UE confirms that according to the HARQ sequential relationship of setting the up feedback subframe of the descending sub frame that said blank frame is corresponding comprises:
In said tabulation; Said UE is according to the subframe numbers n of the blank frame config. number corresponding with said blank frame position or TDD config. number and the pairing descending sub frame of said blank frame; Search K ', confirm that the subframe numbers of the up feedback subframe of the descending sub frame that said blank frame is corresponding is n+K '.
15. method according to claim 9 is characterized in that, the sub-frame of uplink that said FDD descending sub frame is corresponding is a blank frame, comprising:
With the direct corresponding sub-frame of uplink of the descending sub frame in the said FDD band downlink is blank frame; Perhaps
With descending sub frame corresponding sub-frame of uplink in FDD HARQ sequential relationship of said FDD band downlink is blank frame.
16. a base station is characterized in that, comprising:
Determination module; If the sub-frame of uplink that descending sub frame is corresponding in the FDD band downlink is a blank frame; According to the automatic repeat requests HARQ sequential relationship of setting of mixing; Confirm the up feedback subframe of the descending sub frame that said blank frame is corresponding, sequential relationship comprises during said HARQ: the corresponding relation of the descending sub frame that blank frame is corresponding and the up feedback subframe of said descending sub frame;
Receiver module is used in the definite up feedback subframe of said determination module, the feedback of data on the descending sub frame of the said blank frame correspondence that reception UE sends.
17. base station according to claim 16; It is characterized in that; Said determination module specifically is used for when the corresponding sub-frame of uplink of FDD band downlink descending sub frame is said blank frame; According to the sequential relationship that said blank frame and time division duplex mix automatic repeat requests TDD HARQ, confirm the up feedback subframe of the descending sub frame that said blank frame is corresponding.
18. base station according to claim 16 is characterized in that,
HARQ sequential relationship in the said determination module embodies with tabular form, and said tabulation comprises the subframe numbers and the said TDD config. number K ' value corresponding with the subframe numbers of said descending sub frame of the descending sub frame of TDD config. number and band downlink; The subframe numbers and the said blank frame config. number K ' value corresponding that perhaps comprise blank frame config. number and band downlink descending sub frame with the subframe numbers of said descending sub frame; Said K ' is the frame bias of descending sub frame and its up feedback subframe;
Said determination module specifically is used in said tabulation; Subframe numbers n according to the blank frame config. number corresponding or TDD config. number and the pairing descending sub frame of said blank frame with said blank frame; Search K ', confirm that the subframe numbers of the up feedback subframe of the descending sub frame that said blank frame is corresponding is n+K '.
19. base station according to claim 16 is characterized in that,
Said determination module specifically is used for when the corresponding sub-frame of uplink n of FDD band downlink descending sub frame is blank frame; With near the principle of the X sub-frame the said blank frame n according to load balancing; Sub-frame in the selected said X sub-frame is as the up feedback subframe of the corresponding descending sub frame of said blank frame.
20. base station according to claim 16 is characterized in that,
The HARQ sequential relationship of setting in the said determination module is with the embodied of tabulation, and said tabulation comprises descending sub frame number and the said TDD config. number and said descending sub frame number X corresponding K ' value of TDD config. number and band downlink; Perhaps said tabulation comprises blank frame config. number and band downlink descending sub frame number and said blank frame config. number and said descending sub frame number X corresponding K ' value; Said K ' is the frame bias of descending sub frame and its up feedback subframe;
Said determination module specifically is used for; In said tabulation; Subframe numbers n according to the blank frame config. number corresponding with said blank frame position or TDD config. number and the pairing descending sub frame of said blank frame searches X K ', according to the principle of load balancing; In X K ', select a K ', confirm that according to the said K ' that selects the subframe numbers of the up feedback subframe of the descending sub frame that said blank frame is corresponding is n+K '.
21. base station according to claim 19 is characterized in that,
The HARQ sequential relationship of setting described in the said determination module is with the embodied of tabulation, said tabulation comprise the subframe numbers of subframe numbers and said TDD config. number and said descending sub frame of descending sub frame of TDD config. number and band downlink corresponding according to a K ' value in X the K ' value of the principle selection of load balancing; Perhaps the HARQ sequential relationship of said setting is with the embodied of tabulation, and said tabulation comprises a K ' value of X the K ' value that subframe numbers and the said blank frame config. number of blank frame config. number and band downlink descending sub frame is corresponding with the subframe numbers of said descending sub frame; Said K ' is the frame bias of descending sub frame and its up feedback subframe;
Said determination module specifically is used for; In said tabulation; Said UE is according to the subframe numbers n of the blank frame config. number corresponding with said blank frame position or TDD config. number and the pairing descending sub frame of said blank frame; Search K ', confirm that the subframe numbers of the up feedback subframe of the descending sub frame that said blank frame is corresponding is n+K '.
22. a user terminal is characterized in that, comprising:
Determination module one; If the sub-frame of uplink that descending sub frame is corresponding in the FDD band downlink is a blank frame; According to the automatic repeat requests HARQ sequential relationship of setting of mixing; Confirm the up feedback subframe of the descending sub frame that said blank frame is corresponding, sequential relationship comprises during said HARQ: the corresponding relation of the descending sub frame that blank frame is corresponding and the up feedback subframe of said descending sub frame;
Sending module is used for the up feedback subframe confirmed at said determination module one, sends the feedback of data on the corresponding descending sub frame of said blank frame to the base station.
23. the user terminal of stating according to claim 22; It is characterized in that; Said determination module specifically is used for when the corresponding sub-frame of uplink of FDD band downlink descending sub frame is said blank frame; According to the sequential relationship that said blank frame and time division duplex mix automatic repeat requests TDD HARQ, confirm the up feedback subframe of the descending sub frame that said blank frame is corresponding.
24. user terminal according to claim 22 is characterized in that,
HARQ sequential relationship in the said determination module embodies with tabular form, and said tabulation comprises the subframe numbers and the said TDD config. number K ' value corresponding with the subframe numbers of said descending sub frame of the descending sub frame of TDD config. number and band downlink; The subframe numbers and the said blank frame config. number K ' value corresponding that perhaps comprise blank frame config. number and band downlink descending sub frame with the subframe numbers of said descending sub frame; Said K ' is the frame bias of descending sub frame and its up feedback subframe;
Said determination module specifically is used in said tabulation; Subframe numbers n according to the blank frame config. number corresponding or TDD config. number and the pairing descending sub frame of said blank frame with said blank frame; Search K ', confirm that the subframe numbers of the up feedback subframe of the descending sub frame that said blank frame is corresponding is n+K '.
25. user terminal according to claim 22 is characterized in that,
Said determination module specifically is used for when the corresponding sub-frame of uplink n of FDD band downlink descending sub frame is blank frame; With near the principle of the X sub-frame the said blank frame n according to load balancing; Sub-frame in the selected said X sub-frame is as the up feedback subframe of the corresponding descending sub frame of said blank frame.
26. user terminal according to claim 22 is characterized in that,
The HARQ sequential relationship of setting in the said determination module is with the embodied of tabulation, and said tabulation comprises the subframe numbers and said TDD config. number X the K ' value corresponding with the subframe numbers of said descending sub frame of the descending sub frame of TDD config. number and band downlink; Perhaps said tabulation comprises the subframe numbers and said blank frame config. number X the K ' value corresponding with the subframe numbers of said descending sub frame of blank frame config. number and band downlink descending sub frame; Said K ' is the frame bias of descending sub frame and its up feedback subframe;
Said determination module specifically is used for; In said tabulation; Subframe numbers n according to the blank frame config. number corresponding with said blank frame position or TDD config. number and the pairing descending sub frame of said blank frame searches X K ', according to the principle of load balancing; In X K ', select a K ', confirm that according to the said K ' that selects the subframe numbers of the up feedback subframe of the descending sub frame that said blank frame is corresponding is n+K '.
27. user terminal according to claim 22 is characterized in that,
The HARQ sequential relationship of setting described in the said determination module is with the embodied of tabulation, said tabulation comprise the subframe numbers of subframe numbers and said TDD config. number and said descending sub frame of descending sub frame of TDD config. number and band downlink corresponding according to a K ' value in X the K ' value of the principle selection of load balancing; Perhaps the HARQ sequential relationship of said setting is with the embodied of tabulation, and said tabulation comprises a K ' value of X the K ' value that subframe numbers and the said blank frame config. number of blank frame config. number and band downlink descending sub frame is corresponding with the subframe numbers of said descending sub frame; Said K ' is the frame bias of descending sub frame and its up feedback subframe;
Said determination module specifically is used for; In said tabulation; Subframe numbers n according to the blank frame config. number corresponding or TDD config. number and the pairing descending sub frame of said blank frame with said blank frame position; Search K ', confirm that the subframe numbers of the up feedback subframe of the descending sub frame that said blank frame is corresponding is n+K '.
CN2010102849645A 2010-09-17 2010-09-17 Method and device of data transmission feedback Pending CN102404801A (en)

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Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN108631993A (en) * 2017-03-24 2018-10-09 华为技术有限公司 A kind of data transmission method and device
US10263755B2 (en) 2014-08-20 2019-04-16 Zte Corporation Method and apparatus for sending response information and computer storage medium

Families Citing this family (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
SG10201708734TA (en) * 2012-07-18 2017-12-28 Sun Patent Trust Terminal device, and buffer partitioning method
CN104010368B (en) * 2013-02-21 2019-03-01 中兴通讯股份有限公司 TDD configures update method, apparatus and system
EP3223451B1 (en) 2013-09-27 2018-11-21 Huawei Technologies Co., Ltd. Harq feedback using carrier aggregation
JP6751180B2 (en) * 2019-05-22 2020-09-02 華為技術有限公司Huawei Technologies Co.,Ltd. HARQ feedback using carrier aggregation

Citations (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN101309522A (en) * 2008-06-23 2008-11-19 中兴通讯股份有限公司 Uplink reply message feedback method and mobile terminal
WO2010043135A1 (en) * 2008-10-16 2010-04-22 中兴通讯股份有限公司 Method for transmitting synchronized hybrid automatic repeat request feedback data
CN101771522A (en) * 2009-01-05 2010-07-07 大唐移动通信设备有限公司 Method for sending repeated acknowledgement or negative acknowledgment feedback, system and user equipment
CN101827448A (en) * 2009-03-05 2010-09-08 中兴通讯股份有限公司 Method, relay station and terminal for transmitting feedback information

Family Cites Families (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
KR101267403B1 (en) * 2008-11-07 2013-05-30 후아웨이 테크놀러지 컴퍼니 리미티드 relay transmission method and network node
US9450707B2 (en) * 2010-06-30 2016-09-20 Qualcomm Incorporated Limited duty cycle FDD system
JP5606836B2 (en) * 2010-08-31 2014-10-15 株式会社Nttドコモ Wireless communication system and mobile terminal device

Patent Citations (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN101309522A (en) * 2008-06-23 2008-11-19 中兴通讯股份有限公司 Uplink reply message feedback method and mobile terminal
WO2010043135A1 (en) * 2008-10-16 2010-04-22 中兴通讯股份有限公司 Method for transmitting synchronized hybrid automatic repeat request feedback data
CN101771522A (en) * 2009-01-05 2010-07-07 大唐移动通信设备有限公司 Method for sending repeated acknowledgement or negative acknowledgment feedback, system and user equipment
CN101827448A (en) * 2009-03-05 2010-09-08 中兴通讯股份有限公司 Method, relay station and terminal for transmitting feedback information

Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US10263755B2 (en) 2014-08-20 2019-04-16 Zte Corporation Method and apparatus for sending response information and computer storage medium
CN108631993A (en) * 2017-03-24 2018-10-09 华为技术有限公司 A kind of data transmission method and device
CN108631993B (en) * 2017-03-24 2021-02-23 华为技术有限公司 Data transmission method and device
US11101964B2 (en) 2017-03-24 2021-08-24 Huawei Technologies Co., Ltd. Data transmission method and apparatus

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