CN103378961A - Method and device for data transmission - Google Patents

Method and device for data transmission Download PDF

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CN103378961A
CN103378961A CN2012101346559A CN201210134655A CN103378961A CN 103378961 A CN103378961 A CN 103378961A CN 2012101346559 A CN2012101346559 A CN 2012101346559A CN 201210134655 A CN201210134655 A CN 201210134655A CN 103378961 A CN103378961 A CN 103378961A
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pusch
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CN103378961B (en
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司倩倩
林亚男
沈祖康
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China Academy of Telecommunications Technology CATT
Datang Mobile Communications Equipment Co Ltd
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China Academy of Telecommunications Technology CATT
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    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04W—WIRELESS COMMUNICATION NETWORKS
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Abstract

The invention discloses a method and device for data transmission. The method includes the steps that a TDD uplink and downlink configuration is determined, wherein the TDD uplink and downlink configuration is used when dispatches and feedback are performed on PUSCHs of FDD uplink carriers, and the PUSCHs of the FDD uplink carriers are dispatched on downlink subframes and/or special subframes indicated by the TDD uplink and downlink configuration; the PUSCHs are received on the FDD uplink subframes; feedback is performed on the PUSCHs on the downlink subframes and/or the special subframes indicated by the TDD uplink and downlink configuration. The method and device can be applied to a scenario where aggregation is performed on TDD carriers and the FDD uplink carriers, and the TDD carriers perform cross-carrier dispatches on the FDD carriers, due to the fact that the TDD carriers perform the dispatches and feedback on data corresponding to the FDD uplink carriers, normal transmission of the data is ensured, and system stability is improved.

Description

A kind of data transmission method and device
Technical field
The present invention relates to communication technical field, relate in particular to a kind of data transmission method and device.
Background technology
At present, LTE (Long Term Evolution, Long Term Evolution) supports three kinds of duplex modes, be respectively FDD (Frequency Division Duplex, Frequency Division Duplexing (FDD)), H-FDD (Half FDD, Half-Frequency Division Duplex) and TDD (Time Division Duplex, time division duplex).
Wherein, FDD refers to that uplink carries out at different carrier wave frequency ranges with downlink transfer, allows eNB (base station) and UE (terminal) to carry out simultaneously that signal receives and the signal transmission; TDD refers to that uplink carries out at identical carrier wave frequency range with downlink transfer, allows eNB to carry out signal transmissions/signal in the different time periods respectively with UE and receives, perhaps, the transmission of signal reception/signal.
In the wireless communication system before LTE reaches, only dispose a carrier wave in the residential quarter, maximum bandwidth is 20MHz in the LTE system.
In LTE-A (Long Term Evolution-Advanced, long-term evolution upgrading) system, the peak rate of system has huge raising than LTE, requires to reach descending 1Gbps, up 500Mbps.If only using a maximum bandwidth can't reach peak rate as the carrier wave of 20MHz requires.Therefore, the LTE-A system need to expand the operable bandwidth of UE, has introduced thus CA (Carrier Aggregation, carrier aggregation) technology, be about under the same eNB a plurality of continuous or discrete carrier aggregation together, be simultaneously UE service, so that required speed to be provided.These carrier waves that condense together are called again CC (component carrier, member carrier).Each residential quarter can be a member carrier, and the residential quarter under the different e NB (member carrier) can not polymerization.For the UE that guarantees the LTE system can work under the carrier wave of each polymerization, each carrier wave maximum is no more than 20MHz.Take 4 polymerization carrier waves as example, wherein, have under the eNB of LTE-A 4 can polymerization carrier wave, the base station can be simultaneously on 4 carrier waves and UE carry out transfer of data, to improve throughput of system.
In the LTE system, fdd mode and tdd mode all are radio frames 10ms, a subframe 1ms.For the radio frames of each tdd mode, defined seven kinds of TDD uplink-downlink configuration, specifically as shown in table 1, wherein D represents DL (Downlink, descending) subframe, and U represents UL (Uplink, up) subframe, and S represents the special subframe of TDD system.
Table 1
(TDD uplink-downlink configuration)
Figure BDA0000159015120000021
In the LTE system, eNB carries out PUSCH (Physical Uplink Shared Channel, Physical Uplink Shared Channel) scheduling to UE.Concrete:
For TDD uplink-downlink configuration 1-6 and conventional H ARQ (Hybrid Automatic Repeat reQuest, the mixed automatic retransfer request) operation, the PDCCH with DCI form 0 or format 4 that UE detects in subframe n (Physical Downlink Control Channel, Physical Downlink Control Channel) and/or PHICH (Physical HARQ Indicator Channel, Physical HARQ Indicator Channel) transmission, this PDCCH and/or PHICH indicating the PUSCH schedule information among the subframe n+l.UE is corresponding PRB (Physical Resourc Block, Physical Resource Block) transmitting data information in the PUSCH of subframe n+l (the l value provides in table 2).
For TDD uplink-downlink configuration 0 and conventional H ARQ operation, the PDCCH with DCI form 0 that UE detects in subframe n and/or PHICH transmission, this PDCCH and/or PHICH indicating the PUSCH schedule information among the subframe n+l.If this PDCCH has DCI form 0, and the MSB of the upper line index in this DCI form 0 (Most Signification Bit, highest significant position) is set to 1, perhaps corresponding resource I in subframe n=0 or 5 PHICH=0 receives PHICH, and UE is corresponding PRB transmitting data information in the PUSCH of subframe n+l (the l value provides in table 2).
For TDD uplink-downlink configuration 0 and conventional H ARQ operation, the PDCCH with DCI form 0 that UE detects in subframe n and/or PHICH transmission.If this PDCCH has DCI form 0, and the LSB of the upper line index of DCI form 0 is set to 1, perhaps respective resources I in subframe n=0 or 5 PHICH=1 receives PHICH, perhaps receives PHICH at subframe n=1 or 6, then this PDCCH and/or PHICH indicating the PUSCH schedule information among the subframe n+7, corresponding PRB transmitting data information among the PUSCH of UE in subframe n+7.
For TDD uplink-downlink configuration 0, the PDCCH with DCI form 0 that UE detects in subframe n and/or PHICH transmission.If this PDCCH has DCI form 0, and the MSB of the upper line index in the DCI form 0 and LSB are 1, then this PDCCH and/or PHICH indicating corresponding PRB transmitting data information among the PUSCH of PUSCH schedule information UE in subframe n+l (the l value provides in table 2) and n+7 among subframe n+l and the n+7.
Table 2
(the PUSCH scheduling sequential relationship that the TDD uplink-downlink configuration is corresponding)
In the LTE system, a plurality of radio frames are arranged sequentially, and table 2 has provided in the LTE TDD system as an example of a radio frames example, the relevant l value of PUSCH scheduling, the wherein descending sub frame in the radio frames after the expression of n+l＞9.For example, for uplink-downlink configuration 0, the l value that subframe n=6 is corresponding is 6.
In the LTE system, eNB carries out PUSCH HARQ feedback to UE.Concrete:
In LTE FDD system, eNB detects the PUSCH transmission in sub-frame of uplink n-4, and corresponding PHICH resource is fed back PUSCH HARQ information in descending sub frame n.
In LTE TDD system, for TDD uplink-downlink configuration 1-6, the PUSCH transmission is detected in the base station in sub-frame of uplink n-k, and corresponding PHICH resource is fed back PUSCH HARQ information in descending sub frame n, and wherein the value of k is as shown in table 3.
In LTE TDD system, for TDD uplink-downlink configuration 0, PUSCH transmission is detected in the base station in sub-frame of uplink n-k, in descending sub frame n corresponding to I PHICHPUSCH HARQ information corresponding to PHICH resource feedback of=1=0, wherein the value of k is as shown in table 3; Perhaps PUSCH transmission is detected in the base station in sub-frame of uplink n-6, in descending sub frame n corresponding to I PHICHPUSCH HARQ information corresponding to PHICH resource feedback of=1=1.
Table 3
(the PUSCH HARQ feedback sequential relationship that the TDD uplink-downlink configuration is corresponding)
Figure BDA0000159015120000041
In the LTE system, a plurality of radio frames are arranged sequentially, and table 3 has provided the relevant k value situation of PUSCH HARQ feedback in the LTE TDD system as an example of a radio frames example, and wherein n-k＜0 item represents the sub-frame of uplink in the last radio frames.For example, for uplink-downlink configuration 0, the k value that subframe n=6 is corresponding is 4.
Also there are not at present TDD carrier wave and FDD up-link carrier to carry out polymerization and TDD carrier wave when the FDD carrier wave is striden carrier dispatching, the scheduling of the upstream data that the FDD up-link carrier is corresponding and feedback scheme.
Summary of the invention
The purpose of this invention is to provide a kind of data transmission method and device, carry out polymerization and TDD carrier wave when the FDD carrier wave is striden carrier dispatching, the scheduling of the upstream data that the FDD up-link carrier is corresponding and the implementation of feedback to solve TDD carrier wave and FDD up-link carrier.
The objective of the invention is to be achieved through the following technical solutions:
A kind of data transmission method comprises:
Determine that PUSCH to the FDD up-link carrier dispatches and feeds back employed TDD uplink-downlink configuration;
At the descending sub frame of described TDD uplink-downlink configuration indication and/or the PUSCH of special subframe scheduling FDD up-link carrier;
Receive described PUSCH at the FDD sub-frame of uplink;
On the descending sub frame of described TDD uplink-downlink configuration indication and/or special subframe, described PUSCH is fed back.
A kind of data transmission method comprises:
Determine that PUSCH to the FDD up-link carrier dispatches and feeds back employed TDD uplink-downlink configuration;
According on the descending sub frame of described TDD uplink-downlink configuration indication and/or the special subframe to the scheduling of the PUSCH of FDD up-link carrier, carry out the PUSCH transmission at the FDD sub-frame of uplink;
Receive feedback to described PUSCH at the descending sub frame of described TDD uplink-downlink configuration indication and/or special subframe;
PUSCH feedback information according to receiving carries out the PUSCH retransmission process.
A kind of data transmission device comprises:
The uplink-downlink configuration determination module be used for to determine that PUSCH to the FDD up-link carrier dispatches and feeds back employed TDD uplink-downlink configuration;
The PUSCH scheduler module is used at the descending sub frame of described TDD uplink-downlink configuration indication and/or the PUSCH of special subframe scheduling FDD up-link carrier;
The PUSCH receiver module is used for receiving described PUSCH at the FDD sub-frame of uplink;
The PUSCH feedback module is on the descending sub frame of indicating in described TDD uplink-downlink configuration and/or the special subframe described PUSCH being fed back.
A kind of data transmission device comprises:
The uplink-downlink configuration determination module be used for to determine that PUSCH to the FDD up-link carrier dispatches and feeds back employed TDD uplink-downlink configuration;
PUSCH dispatching response module, be used for according on the descending sub frame of described TDD uplink-downlink configuration indication and/or the special subframe to the scheduling of the PUSCH of FDD up-link carrier, carry out the PUSCH transmission at the FDD sub-frame of uplink;
PUSCH feeds back receiver module, is used for receiving feedback to described PUSCH at the descending sub frame of described TDD uplink-downlink configuration indication and/or special subframe;
PUSCH retransmission process module is used for carrying out the PUSCH retransmission process according to the PUSCH feedback information that receives.
Method provided by the invention and device, can be applied in TDD carrier wave and FDD up-link carrier and carry out polymerization and TDD carrier wave are striden carrier dispatching to the FDD carrier wave scene, the TDD carrier wave is to scheduling and the feedback of upstream data corresponding to FDD up-link carrier, guarantee the data normal transmission, improved the stability of a system.
Description of drawings
The eNB side data transmission method flow chart that Fig. 1 provides for the embodiment of the invention;
When Fig. 2 is TDD uplink-downlink configuration 0, the first PUSCH feedback sequential that the embodiment of the invention provides and PUSCH scheduling sequential;
When Fig. 3 is TDD uplink-downlink configuration 0, the second PUSCH feedback sequential that the embodiment of the invention provides and PUSCH scheduling sequential;
When Fig. 4 is TDD uplink-downlink configuration 1, the first PUSCH feedback sequential that the embodiment of the invention provides and PUSCH scheduling sequential;
When Fig. 5 is TDD uplink-downlink configuration 1, the second PUSCH feedback sequential that the embodiment of the invention provides and PUSCH scheduling sequential;
When Fig. 6 is TDD uplink-downlink configuration 2, the first PUSCH feedback sequential that the embodiment of the invention provides and PUSCH scheduling sequential;
When Fig. 7 is TDD uplink-downlink configuration 2, the second PUSCH feedback sequential that the embodiment of the invention provides and PUSCH scheduling sequential;
When Fig. 8 is TDD uplink-downlink configuration 2, the third PUSCH feedback sequential that the embodiment of the invention provides and PUSCH scheduling sequential;
When Fig. 9 is TDD uplink-downlink configuration 3, the first PUSCH feedback sequential that the embodiment of the invention provides and PUSCH scheduling sequential;
When Figure 10 is TDD uplink-downlink configuration 3, the second PUSCH feedback sequential that the embodiment of the invention provides and PUSCH scheduling sequential;
When Figure 11 is TDD uplink-downlink configuration 3, the third PUSCH feedback sequential that the embodiment of the invention provides and PUSCH scheduling sequential;
When Figure 12 was TDD uplink-downlink configuration 3, the 4th kind of PUSCH that the embodiment of the invention provides fed back sequential and PUSCH scheduling sequential;
When Figure 13 is TDD uplink-downlink configuration 4, the first PUSCH feedback sequential that the embodiment of the invention provides and PUSCH scheduling sequential;
When Figure 14 is TDD uplink-downlink configuration 4, the second PUSCH feedback sequential that the embodiment of the invention provides and PUSCH scheduling sequential;
When Figure 15 is TDD uplink-downlink configuration 4, the third PUSCH feedback sequential that the embodiment of the invention provides and PUSCH scheduling sequential;
When Figure 16 was TDD uplink-downlink configuration 4, the 4th kind of PUSCH that the embodiment of the invention provides fed back sequential and PUSCH scheduling sequential;
When Figure 17 is TDD uplink-downlink configuration 5, the first PUSCH feedback sequential that the embodiment of the invention provides and PUSCH scheduling sequential;
When Figure 18 is TDD uplink-downlink configuration 5, the second PUSCH feedback sequential that the embodiment of the invention provides and PUSCH scheduling sequential;
When Figure 19 is TDD uplink-downlink configuration 5, the third PUSCH feedback sequential that the embodiment of the invention provides and PUSCH scheduling sequential;
When Figure 20 is TDD uplink-downlink configuration 6, the first PUSCH feedback sequential that the embodiment of the invention provides and PUSCH scheduling sequential;
When Figure 21 is TDD uplink-downlink configuration 6, the second PUSCH feedback sequential that the embodiment of the invention provides and PUSCH scheduling sequential;
When Figure 22 is TDD uplink-downlink configuration 6, the third PUSCH feedback sequential that the embodiment of the invention provides and PUSCH scheduling sequential;
When Figure 23 was TDD uplink-downlink configuration 6, the 4th kind of PUSCH that the embodiment of the invention provides fed back sequential and PUSCH scheduling sequential;
The UE side data transmission method flow chart that Figure 24 provides for the embodiment of the invention;
The eNB side data transmitting device structural representation that Figure 25 provides for the embodiment of the invention;
The UE side data transmitting device structural representation that Figure 26 provides for the embodiment of the invention.
Embodiment
The invention discloses a kind of data transmission method of eNB side, its implementation specifically comprises following operation as shown in Figure 1:
Step 100, eNB determine that the PUSCH to the FDD up-link carrier dispatches and feeds back employed TDD uplink-downlink configuration.
The TDD uplink-downlink configuration that step 100 is determined is as shown in table 1.
Step 110, eNB are at the descending sub frame of TDD uplink-downlink configuration indication and/or the PUSCH on the special subframe scheduling FDD up-link carrier.
After the eNB side was carried out the PUSCH scheduling to UE, UE transmitted PUSCH according to the indication of scheduling at the FDD sub-frame of uplink.
Step 120, eNB receive above-mentioned PUSCH at the FDD sub-frame of uplink.
Step 130, eNB are fed back above-mentioned PUSCH on the descending sub frame of above-mentioned TDD uplink-downlink configuration indication and/or special subframe.
Among the present invention, descending sub frame and/or the special subframe that is used for the above-mentioned TDD uplink-downlink configuration that PUSCH feeds back is indicated can be called the feedback subframe.Wherein, if in the feedback subframe PHICH resource is arranged, then carry out PUSCH HARQ feedback, if do not have the PHICH resource in the feedback subframe, the uplink scheduling signaling that then transmission retransmits in this feedback subframe.PUSCH HARQ feedback refers to feeding back ACK/NACK (correct/error) information.
In the embodiment of the invention, the descending sub frame that the PUSCH of FDD up-link carrier is dispatched can be the FDD descending sub frame, also can be the TDD descending sub frame.The descending sub frame that the PUSCH of FDD up-link carrier is fed back can be the FDD descending sub frame, also can be the TDD descending sub frame.
For above-mentioned steps 130, the invention provides following four kinds of preferred implementations:
(1)
If it is identical with the sub-frame of uplink numbering of above-mentioned TDD uplink-downlink configuration indication to transmit the numbering of FDD sub-frame of uplink of above-mentioned PUSCH, feed back according to the feedback sequential of PUSCH HARQ corresponding to this TDD uplink-downlink configuration;
And if the numbering of FDD sub-frame of uplink m of transmitting above-mentioned PUSCH is for identical with descending sub frame and/or the special subframe numbering of the indication of this TDD uplink-downlink configuration, descending sub frame or special subframe that this TDD uplink-downlink configuration that first m+3 after conforms to a predetermined condition is indicated feed back.Wherein, predetermined condition refers to: for any two FDD sub-frame of uplink, sequential after PUSCH corresponding to FDD sub-frame of uplink feedback be no earlier than the sequential PUSCH that the FDD sub-frame of uplink is corresponding the preceding feedback constantly constantly.
In the embodiment of the invention, the sub-frame of uplink of the TDD uplink-downlink configuration indication identical with FDD sub-frame of uplink numbering can be the FDD sub-frame of uplink, also can be the TDD sub-frame of uplink.
In the embodiment of the invention, the feedback sequential of the PUSCH HARQ that the TDD uplink-downlink configuration is corresponding is as shown in table 3.Especially, for TDD uplink-downlink configuration 0, eNB receives PUSCH at sub-frame of uplink n-6, at descending sub frame n this PUSCH is fed back.
(2)
If it is identical with the sub-frame of uplink numbering of above-mentioned TDD uplink-downlink configuration indication to transmit the numbering of FDD sub-frame of uplink of above-mentioned PUSCH, feed back according to the feedback sequential of PUSCH HARQ corresponding to this TDD uplink-downlink configuration;
And if the numbering of FDD sub-frame of uplink m of transmitting described PUSCH is identical with descending sub frame and/or the special subframe numbering of the indication of this TDD uplink-downlink configuration, described PUSCH is fed back m+3 after and on this TDD uplink-downlink configuration that conforms to a predetermined condition descending sub frame of indicating and/or the special subframe according to predetermined homeostatic principle.Wherein, the purpose of homeostatic principle is, makes the difference of the quantity of FDD sub-frame of uplink corresponding to each feedback subframe be not more than 1.The description of predetermined condition repeats no more here referring to the description of above-mentioned (one) kind preferred implementation.
Above-mentioned (one), (two) plant preferred implementation, utilize descending sub frame and/or the special subframe of TDD uplink-downlink configuration indication, and ordered pair PUSCH feeds back during according to the feedback of PUSCH HARQ corresponding to TDD uplink-downlink configuration.For the TDD carrier wave, utilize as much as possible original PHICH resource on the TDD carrier wave.In addition, (two) plants preferred implementation on this basis, and it is balanced as far as possible to make each descending sub frame of TDD carrier wave or special subframe feed back corresponding FDD sub-frame of uplink number to PUSCH.
(3)
For the PUSCH in FDD sub-frame of uplink m transmission, descending sub frame or the special subframe of the above-mentioned TDD uplink-downlink configuration indication of first after m+3 feed back.
(4)
For the PUSCH in FDD sub-frame of uplink m transmission, according to predetermined homeostatic principle m+3 after and the TDD uplink-downlink configuration that conforms to a predetermined condition descending sub frame and/or the special subframe of indicating feed back wherein, the description of homeostatic principle repeats no more here referring to the description of above-mentioned (two) kind preferred implementation.The description of predetermined condition repeats no more here referring to the description of above-mentioned (one) kind preferred implementation.
The feedback subframe that after m+3 first conforms to a predetermined condition is fed back the PUSCH of FDD sub-frame of uplink m, it is the feedback moment the earliest, therefore, adopt above-mentioned (three), (four) plant preferred embodiment, can reduce as much as possible PUSCH RTT (Round Trip Time, round-trip delay).
Among the present invention, the specific implementation of above-mentioned steps 100 can be: carry out the maximum RTT of feedback of feedback sequential and PUSCH according to the PUSCH to the FDD up-link carrier, in the descending sub frame of TDD uplink-downlink configuration indication and/or the special subframe configuration communication with dispatch instructions to above-mentioned PUSCH; Descending sub frame and/or this communication with dispatch instructions of special subframe transmission in this TDD uplink-downlink configuration indication.
The above-mentioned PUSCH to the FDD up-link carrier carries out the feedback of feedback sequential and refers to that the PUSCH that has determined before the step 100 feeds back sequential, can be with reference to the definite feedback sequential of the above-mentioned four kinds of preferred implementations of the invention described above for the definite of PUSCH feedback sequential.
Among the present invention, UL index (up link index) bit number of above-mentioned communication with dispatch instructions that can dispose the carrying of each descending sub frame or special subframe is identical or incomplete same.Wherein, UL index represents the FDD sub-frame of uplink quantity corresponding to communication with dispatch instructions of carrying in descending sub frame or the special subframe.
If the UL index bit number of the above-mentioned communication with dispatch instructions of each descending sub frame or special subframe carrying is identical, the maximum of corresponding FDD sub-frame of uplink quantity when then this UL index bit number is specially each descending sub frame of the above-mentioned communication with dispatch instructions of carrying and/or special subframe PUSCH is fed back.
If the UL index bit number of the above-mentioned communication with dispatch instructions of each descending sub frame or special subframe carrying is incomplete same, then the UL index bit number of communication with dispatch instructions of each descending sub frame or special subframe carrying is specially, this descending sub frame or special subframe corresponding FDD sub-frame of uplink quantity when PUSCH is fed back.
If the UL index bit number of the above-mentioned communication with dispatch instructions of each descending sub frame or special subframe carrying is identical, then carry out feedback of feedback sequential and the maximum RTT of PUSCH according to the PUSCH to the FDD up-link carrier, in the descending sub frame of TDD uplink-downlink configuration indication and/or the special subframe configuration communication with dispatch instructions to above-mentioned PUSCH, can be described as: if the PUSCH to FDD sub-frame of uplink n-k feeds back on the descending sub frame of this TDD uplink-downlink configuration indication or special subframe n, then after this descending sub frame or special subframe n scheduling n+3, comprise FDD sub-frame of uplink n+t RTTThe PUSCH that-k and x continuous FDD sub-frame of uplink transmit.Preferably, from the FDD sub-frame of uplink that may be scheduled the earliest after the n+3, the PUSCH of continuous x FDD sub-frame of uplink transmission is dispatched by this descending sub frame or special subframe n.Wherein, the FDD sub-frame of uplink that may be scheduled the earliest needs to guarantee, comprises FDD sub-frame of uplink n+t in continuous x the FDD sub-frame of uplink that is scheduled RTT-k.t RTTBe the maximum RTT of PUSCH, the quantity x of the FDD sub-frame of uplink of this descending sub frame or special subframe n scheduling is UL index bit number.
If the UL index bit number of the above-mentioned communication with dispatch instructions of each descending sub frame or special subframe carrying is incomplete same, then carry out feedback of feedback sequential and the maximum RTT of PUSCH according to the PUSCH to the FDD up-link carrier, in the descending sub frame of TDD uplink-downlink configuration indication and/or the special subframe configuration communication with dispatch instructions to above-mentioned PUSCH, can be described as: if the PUSCH to FDD sub-frame of uplink n-k feeds back on the descending sub frame of this TDD uplink-downlink configuration indication or special subframe n, then at this descending sub frame or special subframe n scheduling FDD sub-frame of uplink n+t RTTThe PUSCH of-k transmission.
TDD carrier wave with 3 indications of TDD uplink-downlink configuration carries out the PUSCH scheduling of FDD up-link carrier and is fed back to example.When adopting above-mentioned (one) to plant preferred implementation, corresponding PUSCH feedback sequential and PUSCH scheduling sequential are as shown in Figure 9.Wherein, when the UL index bit number of the above-mentioned communication with dispatch instructions of upper each descending sub frame of two line displays or special subframe carrying is identical, the scheduling sequential of PUSCH; When middle two rows represent that the UL index bit number of the above-mentioned communication with dispatch instructions that each descending sub frame or special subframe carry is incomplete same, the scheduling sequential of PUSCH; The feedback sequential of lower two line display PUSCH.
The TDD uplink-downlink configuration of TDD carrier wave is 3 o'clock, plant preferred implementation according to above-mentioned (one): the sub-frame of uplink of numbering and TDD uplink-downlink configuration 3 indications of the FDD sub-frame of uplink (FDD sub-frame of uplink 2, FDD sub-frame of uplink 3 and FDD sub-frame of uplink 4) of transmission PUSCH is numbered when identical, feeds back according to the feedback sequential that uplink-downlink configuration in the table 33 is indicated.That is, feed back at the PUSCH of 8 pairs of FDD sub-frame of uplink 2 of descending sub frame, feed back at the PUSCH of 9 pairs of FDD sub-frame of uplink 3 of descending sub frame, feed back at the PUSCH of 0 pair of FDD sub-frame of uplink 4 of descending sub frame.If the descending sub frame of numbering and TDD uplink-downlink configuration 3 indications of the FDD sub-frame of uplink m (m=5,6,7,8,9,0,1) of transmission PUSCH and/or special subframe are numbered when identical, descending sub frame or special subframe that the TDD uplink-downlink configuration 3 that first after m+3 conforms to a predetermined condition is indicated feed back.Namely the PUSCH at 0 pair of FDD sub-frame of uplink 5 of descending sub frame and FDD sub-frame of uplink 6 feeds back, on descending sub frame 1, the PUSCH of FDD sub-frame of uplink 7 are fed back, on descending sub frame 5, the PUSCH of FDD sub-frame of uplink 8, FDD sub-frame of uplink 9, FDD sub-frame of uplink 0 and FDD sub-frame of uplink 1 fed back.
Have at most 4 sub-frame of uplink to carry out the PUSCH feedback at a descending sub frame of TDD carrier wave on the FDD up-link carrier as can be known according to above-mentioned definite PUSCH feedback sequential, then the bit number of UL index is 4 to the maximum.Also PUSCH RTT is 11ms as can be known.When the UL index bit number of the communication with dispatch instructions of each descending sub frame or special subframe carrying is identical, because the PUSCH to FDD sub-frame of uplink 8, FDD sub-frame of uplink 9, FDD sub-frame of uplink 0 and FDD sub-frame of uplink 1 on the descending sub frame 5 feeds back, therefore 5 pairs of FDD sub-frame of uplink 9 of descending sub frame, FDD sub-frame of uplink 0, the PUSCH of FDD sub-frame of uplink 1 and FDD sub-frame of uplink 2 dispatches.Because the PUSCH of 8 pairs of FDD sub-frame of uplink 2 of descending sub frame feeds back, so 8 pairs of FDD sub-frame of uplink 2 of descending sub frame, FDD sub-frame of uplink 3, FDD sub-frame of uplink 4 and FDD sub-frame of uplink 5 carry out the PUSCH scheduling.In like manner, 9 pairs of FDD sub-frame of uplink 3 of descending sub frame, FDD sub-frame of uplink 4, FDD sub-frame of uplink 5 and FDD sub-frame of uplink 6 carry out the PUSCH scheduling, 0 pair of FDD sub-frame of uplink 4 of descending sub frame, FDD sub-frame of uplink 5, FDD sub-frame of uplink 6 and FDD sub-frame of uplink 7 carry out the PUSCH scheduling, 1 pair of FDD sub-frame of uplink 5 of descending sub frame, FDD sub-frame of uplink 6, FDD sub-frame of uplink 7 and FDD sub-frame of uplink 8 carry out the PUSCH scheduling, and 5 pairs of FDD sub-frame of uplink 9 of descending sub frame, FDD sub-frame of uplink 0, FDD sub-frame of uplink 1 and FDD sub-frame of uplink 2 carry out the PUSCH scheduling.When the UL index bit number of the communication with dispatch instructions of each descending sub frame or special subframe carrying is incomplete same, because the PUSCH to FDD sub-frame of uplink 8, FDD sub-frame of uplink 9, FDD sub-frame of uplink 0 and FDD sub-frame of uplink 1 on the descending sub frame 5 feeds back, therefore 5 pairs of FDD sub-frame of uplink 9 of descending sub frame, FDD sub-frame of uplink 0, the PUSCH of FDD sub-frame of uplink 1 and FDD sub-frame of uplink 2 dispatches.Owing to feed back at the PUSCH of 8 pairs of FDD sub-frame of uplink 2 of descending sub frame, therefore carry out the PUSCH scheduling at 8 pairs of FDD sub-frame of uplink of descending sub frame 3.Owing to feed back at the PUSCH of 9 pairs of FDD sub-frame of uplink 3 of descending sub frame, therefore carry out the PUSCH scheduling at 9 pairs of FDD sub-frame of uplink of descending sub frame 4.Because the PUSCH of 1 pair of FDD sub-frame of uplink 7 of descending sub frame feeds back, so 1 pair of FDD sub-frame of uplink of descending sub frame 7 carries out the PUSCH scheduling, in like manner carries out the PUSCH scheduling at 0 pair of FDD sub-frame of uplink 5 of descending sub frame, FDD sub-frame of uplink 6 and FDD sub-frame of uplink 7.
TDD carrier wave with 3 indications of TDD uplink-downlink configuration carries out the PUSCH scheduling of FDD up-link carrier and is fed back to example.When adopting above-mentioned (two) to plant preferred implementation, corresponding PUSCH feedback sequential and PUSCH scheduling sequential are as shown in figure 10.Wherein, when the UL index bit number of the above-mentioned communication with dispatch instructions of upper each descending sub frame of two line displays or special subframe carrying is identical, the scheduling sequential of PUSCH; When middle two rows represent that the UL index bit number of the above-mentioned communication with dispatch instructions that each descending sub frame or special subframe carry is incomplete same, the scheduling sequential of PUSCH; The feedback sequential of lower two line display PUSCH.
The TDD uplink-downlink configuration of TDD carrier wave is 3 o'clock, plant preferred implementation according to above-mentioned (two): the sub-frame of uplink of FDD sub-frame of uplink (FDD sub-frame of uplink 2, FDD sub-frame of uplink 3 and FDD sub-frame of uplink 4) and TDD uplink-downlink configuration 3 indications of transmission PUSCH is numbered when identical, feeds back according to the feedback sequential that uplink-downlink configuration in the table 33 is indicated.That is, feed back at the PUSCH of 8 pairs of FDD sub-frame of uplink 2 of descending sub frame, feed back at the PUSCH of 9 pairs of FDD sub-frame of uplink 3 of descending sub frame, feed back at the PUSCH of 0 pair of FDD sub-frame of uplink 4 of descending sub frame.If the descending sub frame of numbering and TDD uplink-downlink configuration 3 indications of the FDD sub-frame of uplink m (m=5,6,7,8,9,0,1) of transmission PUSCH and/or special subframe are numbered when identical, according to above-mentioned homeostatic principle after m+3 and the TDD uplink-downlink configuration 3 that conforms to a predetermined condition descending sub frame or the special subframe of indicating feed back.Namely the PUSCH at 0 pair of FDD sub-frame of uplink 5 of descending sub frame feeds back, PUSCH at 1 pair of FDD sub-frame of uplink 6 of descending sub frame and FDD sub-frame of uplink 7 feeds back, PUSCH at 5 pairs of FDD sub-frame of uplink 8 of descending sub frame and FDD sub-frame of uplink 9 feeds back, PUSCH at 0 pair of FDD sub-frame of uplink 5 of descending sub frame feeds back, and feeds back at the PUSCH of 1 pair of FDD sub-frame of uplink 7 of descending sub frame.
Have at most 2 sub-frame of uplink to carry out the PUSCH feedback at a descending sub frame of TDD carrier wave on the FDD carrier wave as can be known according to above-mentioned definite PUSCH feedback sequential, then the bit number of UL index is 2 to the maximum.Also PUSCH RTT is 11ms as can be known.Corresponding PUSCH scheduling sequential as shown in figure 10.
As seen, adopt (two) to plant preferred implementation so that the PUSCH of each feedback subframe feedback is more balanced.
When adopting above-mentioned (three) and (four) to plant preferred implementation, corresponding PUSCH feedback sequential and PUSCH scheduling sequential can be determined with reference to aforesaid way, repeat no more here.
Among the present invention, above-mentioned steps 110 can also be described as: at the descending sub frame of above-mentioned TDD uplink-downlink configuration indication or the PUSCH of special subframe n scheduling FDD sub-frame of uplink n+l transmission, l ∈ L.Above-mentioned steps 120 can also be described as: the PUSCH to FDD sub-frame of uplink n-k transmission on the descending sub frame of above-mentioned TDD uplink-downlink configuration indication or special subframe n feeds back k ∈ K.
For the PUSCH of a FDD sub-frame of uplink transmission, the sequential of the descending sub frame of dispatching or special subframe n is early than the sequential of the descending sub frame that feeds back or special subframe n.
When the UL index bit number of the communication with dispatch instructions of wherein, carrying in each descending sub frame or the special subframe is identical:
For TDD uplink-downlink configuration 0:
If adopt above-mentioned (one) or (three) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Fig. 2, and PUSCH scheduling sequential is shown in two rows on Fig. 2, when n=0 and n=1 and n=5 and n=6, L={4,5,6,7} is when n=0 and n=5, K={7,6,5,4}, when n=1 and n=6, K={4};
Perhaps,
If adopt above-mentioned (two) or (four) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Fig. 3, and PUSCH scheduling sequential is shown in two rows on Fig. 3, when n=0 and n=5, L={4,5,6}, when n=1 and n=6, L={5,6,7} is when n=0 and n=5, K={7,6,5}, when n=1 and n=6, K={5,4}.
For TDD uplink-downlink configuration 1:
If adopt above-mentioned (one) or (three) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Fig. 4, and PUSCH scheduling sequential is shown in two rows on Fig. 4, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, L={4,5,6}, when n=0 and n=1 and n=5 and n=6, K={4}, when n=4 and n=9, K={6,5,4};
Perhaps,
If adopt above-mentioned (two) or (four) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Fig. 5, and PUSCH scheduling sequential is shown in two rows on Fig. 5, when n=0 and n=1 and n=5 and n=6, L={5,6}, when n=4 and n=9, L={4,5}, when n=0 and n=5, K={5,4}, when n=1 and n=6, K={4} is when n=4 and n=9, K={6,5}.
For TDD uplink-downlink configuration 2:
If adopt above-mentioned (one) or (three) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Fig. 6, and PUSCH scheduling sequential is shown in two rows on Fig. 6, when n=0 and n=3 and n=4 and n=5 and n=8 and n=9, L={4,5,6}, when n=0 and n=4 and n=5 and n=9, K={4}, when n=3 and n=8, K={6,5,4};
Perhaps,
If adopt above-mentioned (two) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Fig. 7, PUSCH dispatches sequential shown in two rows on Fig. 7, when n=0 and n=1 and n=3 and n=4 and n=5 and n=6 and n=8 and n=9, and L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, K={5} is when n=3 and n=8, K={6,5};
Perhaps,
If adopt above-mentioned (four) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Fig. 8, PUSCH dispatches sequential shown in two rows on Fig. 8, when n=0 and n=1 and n=3 and n=4 and n=5 and n=6 and n=8 and n=9, and L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, K={4} is when n=3 and n=8, K={5,4};
For TDD uplink-downlink configuration 3:
If adopt above-mentioned (one) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Fig. 9, and PUSCH scheduling sequential is shown in two rows on Fig. 9, when n=0 and n=1 and n=5 and n=8 and n=9, L={4,5,6,7}, during n=0, K={6,5,4}, during n=1, K={4} is during n=5, K={7,6,5,4}, when n=8 and n=9, K={6};
Perhaps,
If adopt above-mentioned (two) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 10, and PUSCH scheduling sequential is shown in two rows on Figure 10, during n=0, L={5,6}, during n=1, L={6,7}, when n=5 and n=6 and n=7 and n=8 and n=9, L={4,5}, during n=0, K={6,5} is during n=1, K={5,4}, during n=5, K={7,6}, when n=6 and n=7 and n=8 and n=9, K={6};
Perhaps,
If adopt above-mentioned (three) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 11, and PUSCH scheduling sequential is shown in two rows on Figure 11, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5,6,7} is when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, K={4}, during n=5, K={7,6,5,4};
Perhaps,
If adopt above-mentioned (four) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 12, and PUSCH scheduling sequential is shown in two rows on Figure 12, when n=0 and n=1 and n=7 and n=8 and n=9, L={6,7}, during n=5, L={4,5}, during n=6, L={5,6}, when n=0 and n=1 and n=8 and n=9, K={4}, during n=5, K={7,6}, during n=6, K={6,5}, during n=7, K={5,4}.
For TDD uplink-downlink configuration 4:
If adopt above-mentioned (one) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 13, and PUSCH scheduling sequential is shown in two rows on Figure 13, when n=0 and n=1 and n=4 and n=5 and n=8 and n=9, L={4,5,6}, when n=0 and n=1 and n=5, K={4}, when n=4 and n=9, K={6,5,4}, during n=8, K={6};
Perhaps,
If adopt above-mentioned (two) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 14, and PUSCH scheduling sequential is shown in two rows on Figure 14, when n=0 and n=1, L={5,6} is when n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5} is during n=0, K={5,4} is during n=1, K={4}, when n=4 and n=5 and n=6 and n=7 and n=8, K={6}, during n=9, K={6,5};
Perhaps,
If adopt above-mentioned (three) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 15, and PUSCH scheduling sequential is shown in two rows on Figure 15, when n=0 and n=1 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5,6}, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, K={4}, during n=4, K={6,5,4};
If adopt above-mentioned (four) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 16, and PUSCH scheduling sequential is shown in two rows on Figure 16, perhaps, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, L={5,6}, during n=4, L={4,5}, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, K={4}, during n=4, K={6,5}, during n=5, K={5,4}.
For TDD uplink-downlink configuration 5:
If adopt above-mentioned (one) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 17, and PUSCH scheduling sequential is shown in two rows on Figure 17, when n=0 and n=1 and n=3 and n=4 and n=5 and n=8 and n=9, L={4,5,6}, when n=0 and n=1 and n=4 and n=5 and n=9, K={4}, during n=3, K={5,4}, during n=8, K={6,5,4};
Perhaps,
If adopt above-mentioned (two) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 18, and PUSCH scheduling sequential is shown in two rows on Figure 18, when n=0 and n=1 and n=3 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5} is when n=0 and n=1 and n=9, K={5}, when n=3 and n=4 and n=5 and n=6 and n=7, K={6} is during n=8, K={6,5};
Perhaps,
If adopt above-mentioned (three) or (four) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 19, PUSCH dispatches sequential shown in two rows on Figure 19, when n=0 and n=1 and n=3 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, and L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, K={4} is during n=3, K={5,4};
For TDD uplink-downlink configuration 6:
If adopt above-mentioned (one) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 20, and PUSCH scheduling sequential is shown in two rows on Figure 20, when n=0 and n=1 and n=5 and n=6 and n=9, L={4,5,6,7}, during n=0, K={6,5,4}, when n=1 and n=6, K={4} is during n=5, K={7,6,5,4}, during n=9, K={6};
Perhaps,
If adopt above-mentioned (two) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 21, and PUSCH scheduling sequential is shown in two rows on Figure 21, when n=0 and n=5 and n=9, L={4,5,6} is when n=1 and n=6, L={5,6,7}, n=0, K={6,5}, when n=1 and n=6, K={5,4}, during n=5, K={7,6,5}, during n=9, K={6};
Perhaps,
If adopt above-mentioned (three) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 22, and PUSCH scheduling sequential is shown in two rows on Figure 22, when n=0 and n=1 and n=5 and n=6 and n=9, L={4,5,6,7}, when n=0 and n=1 and n=6, K={4}, during n=5, K={7,6,5,4} is during n=9, K={6,5,4};
Perhaps,
If adopt above-mentioned (four) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 23, and PUSCH scheduling sequential is shown in two rows on Figure 23, when n=0 and n=6, L={5,6}, during n=1, L={6,7}, when n=5 and n=9, L={4,5}, when n=0 and n=6, K={6,5}, during n=1, K={5,4}, when n=5 and n=9, K={7,6}.
When wherein, the UL index bit number of the above-mentioned communication with dispatch instructions of each descending sub frame or special subframe carrying is incomplete same:
For TDD uplink-downlink configuration 0:
If adopt above-mentioned (one) or (three) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Fig. 2, and PUSCH scheduling sequential is shown in two rows in the middle of Fig. 2, when n=0 and n=5, L={4,5,6,7} is when n=1 and n=6, L={7}, when n=0 and n=5, K={7,6,5,4}, when n=1 and n=6, K={4};
Perhaps,
If adopt above-mentioned (two) or (four) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Fig. 3, and PUSCH scheduling sequential is shown in two rows on Fig. 3, when n=0 and n=5, L={4,5,6}, when n=1 and n=6, L={6,7}, when n=0 and n=5, K={7,6,5} is when n=1 and n=6, K={5,4};
For TDD uplink-downlink configuration 1:
If adopt above-mentioned (one) or (three) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Fig. 4, and PUSCH scheduling sequential is shown in two rows in the middle of Fig. 4, when n=0 and n=1 and n=5 and n=6, L={6} is when n=4 and n=9, L={4,5,6}, when n=0 and n=1 and n=5 and n=6, K={4}, when n=4 and n=9, K={6,5,4};
Perhaps,
If adopt above-mentioned (two) or (four) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Fig. 5, and PUSCH scheduling sequential is shown in two rows on Fig. 5, when n=0 and n=5, L={5,6} is when n=1 and n=6, L={6}, when n=4 and n=9, L={4,5}, when n=0 and n=5, K={5,4}, when n=1 and n=6, K={4}, when n=4 and n=9, K={6,5};
For TDD uplink-downlink configuration 2:
If adopt above-mentioned (one) or (three) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Fig. 6, and PUSCH scheduling sequential is shown in two rows among Fig. 6, when n=0 and n=4 and n=5 and n=9, L={6} is when n=3 and n=8, L={4,5,6}, when n=0 and n=4 and n=5 and n=9, K={4}, when n=3 and n=8, K={6,5,4};
Perhaps,
If adopt above-mentioned (two) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Fig. 7, and PUSCH scheduling sequential is shown in two rows in the middle of Fig. 7, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, L={5}, when n=3 and n=8, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, K={5} is when n=3 and n=8, K={6,5};
Perhaps,
If adopt above-mentioned (four) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Fig. 8, and PUSCH scheduling sequential is shown in two rows in the middle of Fig. 8, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, L={5}, when n=3 and n=8, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, K={4} is when n=3 and n=8, K={5,4};
For TDD uplink-downlink configuration 3:
If adopt above-mentioned (one) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Fig. 9, and PUSCH dispatches sequential shown in two rows in the middle of Fig. 9, during n=0, and L={5,6,7}, during n=1, L={7} is during n=5, L={4,5,6,7} is when n=8 and n=9, L={5}, during n=0, K={6,5,4}, during n=1, K={4}, during n=5, K={7,6,5,4}, when n=8 and n=9, K={6};
Perhaps,
If adopt above-mentioned (two) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 10, and PUSCH dispatches sequential shown in two rows on Figure 10, during n=0, and L={5,6}, during n=1, L={6,7}, during n=5, L={4,5} is when n=6 and n=7 and n=8 and n=9, L={5}, during n=0, K={6,5}, during n=1, K={5,4} is during n=5, K={7,6}, when n=6 and n=7 and n=8 and n=9, K={6};
Perhaps,
If adopt above-mentioned (three) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 11, and PUSCH scheduling sequential is shown in two rows in the middle of Figure 11, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, L={7} is during n=5, L={4,5,6,7}, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, K={4}, during n=5, K={7,6,5,4};
Perhaps,
If adopt above-mentioned (four) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 12, and PUSCH dispatches sequential shown in two rows in the middle of Figure 12, when n=0 and n=1 and n=8 and n=9, and L={7}, during n=5, L={4,5} is during n=6, L={5,6}, during n=7, L={6,7}, when n=0 and n=1 and n=8 and n=9, K={4} is during n=5, K={7,6}, during n=6, K={6,5}, during n=7, K={5,4};
For TDD uplink-downlink configuration 4:
If adopt above-mentioned (one) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 13, and PUSCH scheduling sequential is shown in two rows in the middle of Figure 13, when n=0 and n=1 and n=5, L={6}, when n=4 and n=9, L={4,5,6} is during n=8, L={4}, when n=0 and n=1 and n=5, K={4}, when n=4 and n=9, K={6,5,4}, during n=8, K={6};
Perhaps,
If adopt above-mentioned (two) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 14, and PUSCH scheduling sequential is shown in two rows in the middle of Figure 14, during n=0, L={5,6}, during n=1, L={6}, when n=4 and n=5 and n=6 and n=7 and n=8, L={4}, during n=9, L={4,5}, during n=0, K={5,4}, during n=1, K={4}, when n=4 and n=5 and n=6 and n=7 and n=8, K={6}, during n=9, K={6,5};
Perhaps,
If adopt above-mentioned (three) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 15, and PUSCH scheduling sequential is shown in two rows in the middle of Figure 15, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, L={6} is during n=4, L={4,5,6}, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, K={4}, during n=4, K={6,5,4};
Perhaps,
If adopt above-mentioned (four) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 16, and PUSCH scheduling sequential is shown in two rows in the middle of Figure 16, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, L={6}, during n=4, L={4,5}, during n=5, L={5,6}, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, K={4}, during n=4, K={6,5}, during n=5, K={5,4}.
For TDD uplink-downlink configuration 5:
If adopt above-mentioned (one) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 17, and PUSCH scheduling sequential is shown in two rows in the middle of Figure 17, when n=0 and n=1 and n=4 and n=5 and n=9, L={4,5,6} is during n=3, L={5,6}, during n=8, L={4,5,6}, when n=0 and n=1 and n=4 and n=5 and n=9, K={4}, during n=3, K={5,4} is during n=8, K={6,5,4};
Perhaps,
If adopt above-mentioned (two) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 18, and PUSCH scheduling sequential is shown in two rows in the middle of Figure 18, when n=0 and n=1 and n=9, L={5} is when n=3 and n=4 and n=5 and n=6 and n=7, L={4}, during n=8, L={4,5}, when n=0 and n=1 and n=9, K={5}, when n=3 and n=4 and n=5 and n=6 and n=7, K={6} is during n=8, K={6,5};
Perhaps,
If adopt above-mentioned (three) or (four) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 19, and PUSCH scheduling sequential is shown in two rows in the middle of Figure 19, when n=0 and n=1 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={5}, during n=3, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, K={4} is during n=3, K={5,4};
For TDD uplink-downlink configuration 6:
If adopt above-mentioned (one) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 20, and PUSCH dispatches sequential shown in two rows in the middle of Figure 20, during n=0, and L={5,6,7}, when n=1 and n=6, L={7} is during n=5, L={4,5,6,7} is during n=9, L={5}, during n=0, K={6,5,4}, when n=1 and n=6, K={4}, during n=5, K={7,6,5,4}, during n=9, K={6};
Perhaps,
If adopt above-mentioned (two) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 21, and PUSCH dispatches sequential shown in two rows in the middle of Figure 21, during n=0, and L={5,6}, when n=1 and n=6, L={6,7} is during n=5, L={4,5,6}, during n=9, L={5}, n=0, K={6,5} is when n=1 and n=6, K={5,4}, during n=5, K={7,6,5}, during n=9, K={6};
Perhaps,
If adopt above-mentioned (three) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 22, and PUSCH dispatches sequential shown in two rows in the middle of Figure 22, when n=0 and n=1 and n=6, and L={4}, during n=5, L={4,5,6,7}, during n=9, L={5,6,7}, when n=0 and n=1 and n=6, K={4} is during n=5, K={7,6,5,4}, during n=9, K={6,5,4};
Perhaps,
If adopt above-mentioned (four) to plant preferred implementation, its PUSCH feedback sequential is shown in two row under Figure 23, and PUSCH scheduling sequential is shown in two rows on Figure 23, when n=0 and n=6, L={5,6}, during n=1, L={6,7}, when n=5 and n=9, L={4,5}, when n=0 and n=6, K={6,5}, during n=1, K={5,4}, when n=5 and n=9, K={7,6}.
Among Fig. 2～Figure 23, every lattice represent a subframe, the numeral subframe numbering below the grid.For each PUSCH feedback sequential chart, the feedback subframe numbering of this sub-frame of uplink of numeral in the grid.For each PUSCH scheduling sequential chart, the numeral in the grid is carried out descending sub frame and/or the special subframe numbering of PUSCH scheduling to this sub-frame of uplink.
Among above-mentioned Fig. 2～Figure 23, when the ULindex bit number of the communication with dispatch instructions of each descending sub frame or special subframe carrying is identical, the scheduling sequential of PUSCH is all determined according to above-mentioned preferred scheduling mode, namely from the FDD sub-frame of uplink that may be scheduled the earliest after the n+3, the PUSCH of continuous x FDD sub-frame of uplink transmission is dispatched by this descending sub frame or special subframe n.Should be pointed out that if the PUSCH to FDD sub-frame of uplink n-k feeds back on the descending sub frame of this TDD uplink-downlink configuration indication or special subframe n, then as long as after this descending sub frame or special subframe n scheduling n+3, comprise FDD sub-frame of uplink n+t RTTThe PUSCH that-k and x continuous FDD sub-frame of uplink transmit gets final product.
The invention also discloses a kind of data transmission method of UE side, its implementation specifically comprises following operation as shown in figure 24:
Step 200, UE determine that the eNB side dispatches the PUSCH of FDD up-link carrier and feed back employed TDD uplink-downlink configuration.
Concrete, can determine by the high-level signaling that receives, also can be according to determining with eNB side agreement in advance.
Step 210, UE according on the descending sub frame of above-mentioned TDD uplink-downlink configuration indication and/or the special subframe to the scheduling of the PUSCH of FDD up-link carrier, carry out the PUSCH transmission at the FDD sub-frame of uplink.
After the UE side carried out just passing to PUSCH, the eNB side was fed back corresponding PUSCH.
Step 220, UE receive feedback to above-mentioned PUSCH at the descending sub frame of above-mentioned TDD uplink-downlink configuration indication and/or special subframe.
Step 230, UE carry out the PUSCH retransmission process according to the PUSCH feedback information that receives.
Wherein, the specific implementation of step 230 can be: if the PUSCH feedback information is ACK information, then corresponding PUSCH is not retransmitted; If the PUSCH feedback information is nack message or retransfer scheduling signaling, then corresponding PUSCH is retransmitted.
In the UE side, the sequential of the feedback of reception PUSCH is identical with the eNB side.Specifically can with reference to the description of above-mentioned eNB side, repeat no more here.
Among the present invention, the specific implementation of above-mentioned steps 210 can be: according to the sequential and the maximum RTT of PUSCH that receive the feedback of above-mentioned PUSCH, descending sub frame and/or the special subframe of indicating in above-mentioned TDD uplink-downlink configuration receive above-mentioned PUSCH communication with dispatch instructions; According to this PUSCH communication with dispatch instructions that receives, carry out the PUSCH transmission at above-mentioned FDD sub-frame of uplink.
The sequential that the UE side joint is received the PUSCH feedback is consistent with the PUSCH feedback sequential of eNB side.Therefore, above-mentioned reception refers to that to the sequential of the feedback of PUSCH the PUSCH that has determined before the step 200 feeds back sequential.
Among the present invention, above-mentioned steps 210 can also be described as: according to the scheduling of the upper PUSCH to FDD sub-frame of uplink n+l transmission of the descending sub frame of above-mentioned TDD uplink-downlink configuration indication or TDD special subframe n, carry out PUSCH transmission, l ∈ L at FDD sub-frame of uplink n+l.Above-mentioned steps 210 can also be described as: at the feedback that TDD descending sub frame or the special subframe n of above-mentioned TDD uplink-downlink configuration indication receive the PUSCH that FDD sub-frame of uplink n-k is transmitted, k ∈ K.
For the PUSCH of a FDD sub-frame of uplink transmission, the sequential of the descending sub frame of dispatching or special subframe n is early than the sequential of the descending sub frame that feeds back or special subframe n.
Wherein, when the UL index bit number of the communication with dispatch instructions of each descending sub frame or special subframe carrying was identical or incomplete same, concrete L and the value condition of K repeated no more here with reference to the description of above-mentioned eNB side.
The invention also discloses a kind of data transmission device, its implementation structure as shown in figure 25, the specific implementation structure is as follows:
Uplink-downlink configuration determination module 1001 be used for to determine that PUSCH to the FDD up-link carrier dispatches and feeds back employed TDD uplink-downlink configuration;
PUSCH scheduler module 1002 is used at the descending sub frame of this TDD uplink-downlink configuration indication and/or the PUSCH of special subframe scheduling FDD up-link carrier;
PUSCH receiver module 1003 is used for receiving above-mentioned PUSCH at the FDD sub-frame of uplink;
PUSCH feedback module 1004 is on the descending sub frame of indicating in above-mentioned TDD uplink-downlink configuration and/or the special subframe above-mentioned PUSCH being fed back.
Wherein, PUSCH scheduler module 1002 specifically can comprise: PUSCH scheduling configuration submodule, be used for carrying out feedback of feedback sequential and PUSCH maximum round trip time delay RTT according to the PUSCH to the FDD up-link carrier, in the descending sub frame of above-mentioned TDD uplink-downlink configuration indication and/or the special subframe configuration communication with dispatch instructions to described PUSCH; The PUSCH scheduling sends submodule, is used for descending sub frame and/or the above-mentioned communication with dispatch instructions of special subframe transmission in this TDD uplink-downlink configuration indication.
Shown in Figure 25ly can be eNB, or be arranged on the device on the eNB.Signal between its modules and the submodule is dealt with relationship and the specific works mode can with reference to the description of above-mentioned eNB side method, repeat no more here.
The invention also discloses a kind of data transmission device, its implementation structure as shown in figure 26, the specific implementation structure is as follows:
Uplink-downlink configuration determination module 2001 be used for to determine that PUSCH to the FDD up-link carrier dispatches and feeds back employed TDD uplink-downlink configuration;
PUSCH dispatching response module 2002, be used for according on the descending sub frame of above-mentioned TDD uplink-downlink configuration indication and/or the special subframe to the scheduling of the PUSCH of FDD up-link carrier, carry out the PUSCH transmission at the FDD sub-frame of uplink;
PUSCH feeds back receiver module 2003, is used for receiving feedback to above-mentioned PUSCH at the descending sub frame of above-mentioned TDD uplink-downlink configuration indication and/or special subframe;
PUSCH retransmission process module 2004 is used for carrying out the PUSCH retransmission process according to the PUSCH feedback information that receives.
Wherein, PUSCH dispatching response module 2002 specifically can comprise: the PUSCH scheduling receives submodule, be used for according to the sequential and the maximum RTT of PUSCH that receive the feedback of above-mentioned PUSCH, receive communication with dispatch instructions to this PUSCH at the descending sub frame of above-mentioned TDD uplink-downlink configuration indication and/or special subframe; PUSCH transmits submodule, is used for according to the above-mentioned PUSCH communication with dispatch instructions that receives, and carries out the PUSCH transmission at above-mentioned FDD sub-frame of uplink.
Shown in Figure 26ly can be UE, or be arranged on the device on the UE.Signal between its modules and the submodule is dealt with relationship and the specific works mode can with reference to the description of above-mentioned UE side method, repeat no more here.
Data transmission method and device that each embodiment of the invention described above provides are applicable to carry out polymerization and TDD carrier wave when the FDD carrier wave is striden carrier dispatching when TDD carrier wave and FDD up-link carrier, the scene that the PUSCH of FDD up-link carrier is dispatched and feeds back; Also be applicable to the scene that the FDD descending carrier is dispatched and fed back the PUSCH of FDD up-link carrier.
Data transmission method and device that each embodiment of the invention described above provides, follow following principle:
The corresponding unique feedback subframe of arbitrary sub-frame of uplink on the FDD carrier wave;
The corresponding feedback subframe of arbitrary sub-frame of uplink m on the FDD carrier wave is descending sub frame or the special subframe after the subframe m+3 in the TDD uplink-downlink configuration;
Any sub-frame of uplink m on the FDD carrier wave and m ' (m '＞m) correspondence is fed back subframe n and n ', then n ' 〉=n respectively.
Obviously, those skilled in the art can carry out various changes and modification to the present invention and not break away from the spirit and scope of the present invention.Like this, if of the present invention these are revised and modification belongs within the scope of claim of the present invention and equivalent technologies thereof, then the present invention also is intended to comprise these changes and modification interior.

Claims (36)

1. a data transmission method is characterized in that, comprising:
Determine that Physical Uplink Shared Channel PUSCH to the FDD up-link carrier dispatches and feeds back employed TDD uplink-downlink configuration;
At the descending sub frame of described TDD uplink-downlink configuration indication and/or the PUSCH of special subframe scheduling FDD up-link carrier;
Receive described PUSCH at the FDD sub-frame of uplink;
On the descending sub frame of described TDD uplink-downlink configuration indication and/or special subframe, described PUSCH is fed back.
2. method according to claim 1 is characterized in that, on the descending sub frame of described TDD uplink-downlink configuration indication and/or special subframe described PUSCH is fed back, and comprising:
If it is identical with the sub-frame of uplink numbering of described TDD uplink-downlink configuration indication to transmit the numbering of FDD sub-frame of uplink of described PUSCH, feed back according to the feedback sequential of PUSCH mixed automatic retransfer request HARQ corresponding to described TDD uplink-downlink configuration;
And if the numbering of transmitting the FDD sub-frame of uplink m of described PUSCH is numbered identical with descending sub frame and/or the special subframe of described TDD uplink-downlink configuration indication, on the descending sub frame of the described TDD uplink-downlink configuration indication that first after m+3 conforms to a predetermined condition or the special subframe described PUSCH is fed back, described predetermined condition refers to: for any two FDD sub-frame of uplink, sequential after PUSCH corresponding to FDD sub-frame of uplink feedback be no earlier than the sequential PUSCH that the FDD sub-frame of uplink is corresponding the preceding feedback constantly constantly.
3. method according to claim 1 is characterized in that, on the descending sub frame of described TDD uplink-downlink configuration indication and/or special subframe described PUSCH is fed back, and comprising:
If it is identical with the sub-frame of uplink numbering of described TDD uplink-downlink configuration indication to transmit the numbering of FDD sub-frame of uplink of described PUSCH, feed back according to the feedback sequential of PUSCH mixed automatic retransfer request HARQ corresponding to described TDD uplink-downlink configuration;
And if the numbering of transmitting the FDD sub-frame of uplink m of described PUSCH is numbered identical with descending sub frame and/or the special subframe of described TDD uplink-downlink configuration indication, described PUSCH is fed back after m+3 and on the descending sub frame of the described TDD uplink-downlink configuration indication that conforms to a predetermined condition and/or the special subframe according to predetermined homeostatic principle, the purpose of described homeostatic principle is, make each difference that is used for the quantity of FDD sub-frame of uplink corresponding to descending sub frame that PUSCH is fed back or special subframe be not more than 1, described predetermined condition refers to: for any two FDD sub-frame of uplink, sequential after PUSCH corresponding to FDD sub-frame of uplink feedback be no earlier than the sequential PUSCH that the FDD sub-frame of uplink is corresponding the preceding feedback constantly constantly.
4. method according to claim 1 is characterized in that, on the descending sub frame of described TDD uplink-downlink configuration indication and/or special subframe described PUSCH is fed back, and comprising:
For the PUSCH in FDD sub-frame of uplink m transmission, descending sub frame or the special subframe of the described TDD uplink-downlink configuration indication of first after m+3 feed back.
5. method according to claim 1 is characterized in that, on the descending sub frame of described TDD uplink-downlink configuration indication and/or special subframe described PUSCH is fed back, and comprising:
For the PUSCH in FDD sub-frame of uplink m transmission, according to predetermined homeostatic principle m+3 after and the TDD uplink-downlink configuration that conforms to a predetermined condition descending sub frame and/or the special subframe of indicating feed back, the purpose of described homeostatic principle is, make each difference that is used for the quantity of FDD sub-frame of uplink corresponding to descending sub frame that PUSCH is fed back or special subframe be not more than 1, described predetermined condition refers to: for any two FDD sub-frame of uplink, sequential after PUSCH corresponding to FDD sub-frame of uplink feedback be no earlier than the sequential PUSCH that the FDD sub-frame of uplink is corresponding the preceding feedback constantly constantly.
6. the described method of any one is characterized in that according to claim 1～5, at the descending sub frame of described TDD uplink-downlink configuration indication and/or the PUSCH of special subframe scheduling FDD up-link carrier, comprising:
Carry out feedback of feedback sequential and PUSCH maximum round trip time delay RTT according to the PUSCH to the FDD up-link carrier, in the descending sub frame of TDD uplink-downlink configuration indication and/or the special subframe configuration communication with dispatch instructions to described PUSCH;
Descending sub frame and/or the described communication with dispatch instructions of special subframe transmission in described TDD uplink-downlink configuration indication.
7. method according to claim 6 is characterized in that:
If the up link index UL index bit number of the described communication with dispatch instructions of each descending sub frame or special subframe carrying is identical, then described UL index bit number is the maximum of described descending sub frame and/or special subframe corresponding FDD sub-frame of uplink quantity when PUSCH is fed back;
Perhaps,
If the UL index bit number of the described communication with dispatch instructions of each descending sub frame or special subframe carrying is incomplete same, then the UL index bit number of the described communication with dispatch instructions of the carrying of each descending sub frame or special subframe is, this descending sub frame or special subframe corresponding FDD sub-frame of uplink quantity when PUSCH is fed back.
8. method according to claim 1, it is characterized in that, at the descending sub frame of TDD uplink-downlink configuration indication and/or the PUSCH of special subframe scheduling FDD up-link carrier, and on the descending sub frame of described TDD uplink-downlink configuration indication and/or special subframe, described PUSCH is fed back, comprising:
At the descending sub frame of described TDD uplink-downlink configuration indication or the PUSCH of special subframe n scheduling FDD sub-frame of uplink n+l transmission, l ∈ L;
And the PUSCH to FDD sub-frame of uplink n-k transmission feeds back on the descending sub frame of described TDD uplink-downlink configuration indication or special subframe n, k ∈ K, PUSCH for a FDD sub-frame of uplink transmission, the sequential of the descending sub frame of dispatching or special subframe n is early than the sequential of the descending sub frame that feeds back or special subframe n, wherein:
For TDD uplink-downlink configuration 0, then when n=0 and n=1 and n=5 and n=6, L={4,5,6,7}, when n=0 and n=5, K={7,6,5,4}, when n=1 and n=6, K={4}; Perhaps, when n=0 and n=5, L={4,5,6}, when n=1 and n=6, L={5,6,7}, when n=0 and n=5, K={7,6,5}, when n=1 and n=6, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 1, then when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, L={4,5,6}, when n=0 and n=1 and n=5 and n=6, K={4}, when n=4 and n=9, K={6,5,4}; Perhaps, when n=0 and n=1 and n=5 and n=6, L={5,6}, when n=4 and n=9, L={4,5}, when n=0 and n=5, K={5,4}, when n=1 and n=6, K={4}, when n=4 and n=9, K={6,5};
Perhaps,
For TDD uplink-downlink configuration 2, then when n=0 and n=3 and n=4 and n=5 and n=8 and n=9, L={4,5,6}, when n=0 and n=4 and n=5 and n=9, K={4}, when n=3 and n=8, K={6,5,4}; Perhaps, when n=0 and n=1 and n=3 and n=4 and n=5 and n=6 and n=8 and n=9, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, K={5}, when n=3 and n=8, K={6,5}; Perhaps, when n=0 and n=1 and n=3 and n=4 and n=5 and n=6 and n=8 and n=9, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, K={4}, when n=3 and n=8, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 3, then when n=0 and n=1 and n=5 and n=8 and n=9, L={4,5,6,7}, during n=0, K={6,5,4}, during n=1, K={4}, during n=5, K={7,6,5,4}, when n=8 and n=9, K={6}; Perhaps, during n=0, L={5,6}, during n=1, L={6,7}, when n=5 and n=6 and n=7 and n=8 and n=9, L={4,5}, during n=0, K={6,5}, during n=1, K={5,4}, during n=5, K={7,6}, when n=6 and n=7 and n=8 and n=9, K={6}; Perhaps, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5,6,7}, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, K={4}, during n=5, K={7,6,5,4}; Perhaps, when n=0 and n=1 and n=7 and n=8 and n=9, L={6,7}, during n=5, L={4,5}, during n=6, L={5,6}, when n=0 and n=1 and n=8 and n=9, K={4}, during n=5, K={7,6}, during n=6, K={6,5}, during n=7, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 4, then when n=0 and n=1 and n=4 and n=5 and n=8 and n=9, L={4,5,6}, when n=0 and n=1 and n=5, K={4}, when n=4 and n=9, K={6,5,4}, during n=8, K={6}; Perhaps, when n=0 and n=1, L={5,6}, when n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5}, during n=0, K={5,4}, during n=1, K={4}, when n=4 and n=5 and n=6 and n=7 and n=8, K={6}, during n=9, K={6,5}; Perhaps, when n=0 and n=1 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5,6}, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, K={4}, during n=4, K={6,5,4}; Perhaps, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, L={5,6}, during n=4, L={4,5}, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, K={4}, during n=4, K={6,5}, during n=5, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 5, then when n=0 and n=1 and n=3 and n=4 and n=5 and n=8 and n=9, L={4,5,6}, when n=0 and n=1 and n=4 and n=5 and n=9, K={4}, during n=3, K={5,4}, during n=8, K={6,5,4}; Perhaps, when n=0 and n=1 and n=3 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5}, when n=0 and n=1 and n=9, K={5}, when n=3 and n=4 and n=5 and n=6 and n=7, K={6}, during n=8, K={6,5}; Perhaps, when n=0 and n=1 and n=3 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, K={4}, during n=3, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 6, then when n=0 and n=1 and n=5 and n=6 and n=9, L={4,5,6,7}, during n=0, K={6,5,4}, when n=1 and n=6, K={4}, during n=5, K={7,6,5,4}, during n=9, K={6}; Perhaps, when n=0 and n=5 and n=9, L={4,5,6}, when n=1 and n=6, L={5,6,7}, n=0, K={6,5}, when n=1 and n=6, K={5,4}, during n=5, K={7,6,5}, during n=9, K={6}; Perhaps, when n=0 and n=1 and n=5 and n=6 and n=9, L={4,5,6,7}, when n=0 and n=1 and n=6, K={4}, during n=5, K={7,6,5,4}, during n=9, K={6,5,4}; Perhaps, when n=0 and n=6, L={5,6}, during n=1, L={6,7}, when n=5 and n=9, L={4,5}, when n=0 and n=6, K={6,5}, during n=1, K={5,4}, when n=5 and n=9, K={7,6}.
9. method according to claim 1, it is characterized in that, at the descending sub frame of described TDD uplink-downlink configuration indication and/or the PUSCH of special subframe scheduling FDD up-link carrier, and on the descending sub frame of described TDD uplink-downlink configuration indication and/or special subframe, described PUSCH is fed back, comprising:
At the descending sub frame of described TDD uplink-downlink configuration indication or the PUSCH of special subframe n scheduling FDD sub-frame of uplink n+l transmission, l ∈ L;
And the PUSCH to FDD sub-frame of uplink n-k transmission feeds back on the descending sub frame of described TDD uplink-downlink configuration indication or special subframe n, k ∈ K, PUSCH for a FDD sub-frame of uplink transmission, the sequential of the descending sub frame of dispatching or special subframe n is early than the sequential of the descending sub frame that feeds back or special subframe n, wherein:
For TDD uplink-downlink configuration 0, then when n=0 and n=5, L={4,5,6,7}, when n=1 and n=6, L={7}, when n=0 and n=5, K={7,6,5,4}, when n=1 and n=6, K={4}; Perhaps, when n=0 and n=5, L={4,5,6}, when n=1 and n=6, L={6,7}, when n=0 and n=5, K={7,6,5}, when n=1 and n=6, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 1, then when n=0 and n=1 and n=5 and n=6, L={6}, when n=4 and n=9, L={4,5,6}, when n=0 and n=1 and n=5 and n=6, K={4}, when n=4 and n=9, K={6,5,4}; Perhaps, when n=0 and n=5, L={5,6}, when n=1 and n=6, L={6}, when n=4 and n=9, L={4,5}, when n=0 and n=5, K={5,4}, when n=1 and n=6, K={4}, when n=4 and n=9, K={6,5};
Perhaps,
For TDD uplink-downlink configuration 2, then when n=0 and n=4 and n=5 and n=9, L={6}, when n=3 and n=8, L={4,5,6}, when n=0 and n=4 and n=5 and n=9, K={4}, when n=3 and n=8, K={6,5,4}; Perhaps, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, L={5}, when n=3 and n=8, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, K={5}, when n=3 and n=8, K={6,5}; Perhaps, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, L={5}, when n=3 and n=8, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, K={4}, when n=3 and n=8, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 3, then during n=0, L={5,6,7}, during n=1, L={7}, during n=5, L={4,5,6,7}, when n=8 and n=9, L={5}, during n=0, K={6,5,4}, during n=1, K={4}, during n=5, K={7,6,5,4}, when n=8 and n=9, K={6}; Perhaps, during n=0, L={5,6}, during n=1, L={6,7} is during n=5, L={4,5}, when n=6 and n=7 and n=8 and n=9, L={5}, during n=0, K={6,5} is during n=1, K={5,4}, during n=5, K={7,6}, when n=6 and n=7 and n=8 and n=9, K={6}; Perhaps, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, L={7}, during n=5, L={4,5,6,7}, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, K={4}, during n=5, K={7,6,5,4}; Perhaps, when n=0 and n=1 and n=8 and n=9, L={7}, during n=5, L={4,5}, during n=6, L={5,6}, during n=7, L={6,7}, when n=0 and n=1 and n=8 and n=9, K={4}, during n=5, K={7,6}, during n=6, K={6,5}, during n=7, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 4, then when n=0 and n=1 and n=5, L={6}, when n=4 and n=9, L={4,5,6}, during n=8, L={4}, when n=0 and n=1 and n=5, K={4}, when n=4 and n=9, K={6,5,4}, during n=8, K={6}; Perhaps, during n=0, L={5,6}, during n=1, L={6} is when n=4 and n=5 and n=6 and n=7 and n=8, L={4}, during n=9, L={4,5}, during n=0, K={5,4}, during n=1, K={4}, when n=4 and n=5 and n=6 and n=7 and n=8, K={6}, during n=9, K={6,5}; Perhaps, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, L={6}, during n=4, L={4,5,6}, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, K={4}, during n=4, K={6,5,4}; Perhaps, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, L={6}, during n=4, L={4,5}, during n=5, L={5,6}, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, K={4}, during n=4, K={6,5}, during n=5, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 5, then when n=0 and n=1 and n=4 and n=5 and n=9, L={4,5,6}, during n=3, L={5,6}, during n=8, L={4,5,6}, when n=0 and n=1 and n=4 and n=5 and n=9, K={4}, during n=3, K={5,4}, during n=8, K={6,5,4}; Perhaps, when n=0 and n=1 and n=9, L={5}, when n=3 and n=4 and n=5 and n=6 and n=7, L={4}, during n=8, L={4,5}, when n=0 and n=1 and n=9, K={5}, when n=3 and n=4 and n=5 and n=6 and n=7, K={6}, during n=8, K={6,5}; Perhaps, when n=0 and n=1 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={5}, during n=3, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, K={4}, during n=3, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 6, then during n=0, L={5,6,7}, when n=1 and n=6, L={7}, during n=5, L={4,5,6,7}, during n=9, L={5}, during n=0, K={6,5,4}, when n=1 and n=6, K={4}, during n=5, K={7,6,5,4}, during n=9, K={6}; Perhaps, during n=0, L={5,6}, when n=1 and n=6, L={6,7}, during n=5, L={4,5,6}, during n=9, L={5}, n=0, K={6,5}, when n=1 and n=6, K={5,4}, during n=5, K={7,6,5}, during n=9, K={6}; Perhaps, when n=0 and n=1 and n=6, L={4}, during n=5, L={4,5,6,7}, during n=9, L={5,6,7}, when n=0 and n=1 and n=6, K={4}, during n=5, K={7,6,5,4}, during n=9, K={6,5,4}; Perhaps, when n=0 and n=6, L={5,6}, during n=1, L={6,7}, when n=5 and n=9, L={4,5}, when n=0 and n=6, K={6,5}, during n=1, K={5,4}, when n=5 and n=9, K={7,6}.
10. a data transmission method is characterized in that, comprising:
Determine that PUSCH to the FDD up-link carrier dispatches and feeds back employed TDD uplink-downlink configuration;
According on the descending sub frame of described TDD uplink-downlink configuration indication and/or the special subframe to the scheduling of the PUSCH of FDD up-link carrier, carry out the PUSCH transmission at the FDD sub-frame of uplink;
Receive feedback to described PUSCH at the descending sub frame of described TDD uplink-downlink configuration indication and/or special subframe;
PUSCH feedback information according to receiving carries out the PUSCH retransmission process.
11. method according to claim 10 is characterized in that, receives feedback to described PUSCH at the descending sub frame of described TDD uplink-downlink configuration indication and/or special subframe, comprising:
If it is identical with the sub-frame of uplink numbering of described TDD uplink-downlink configuration indication to transmit the numbering of FDD sub-frame of uplink of described PUSCH, receive feedback to described PUSCH according to the feedback sequential of PUSCH HARQ corresponding to described TDD uplink-downlink configuration;
And if the numbering of transmitting the FDD sub-frame of uplink m of described PUSCH is numbered identical with descending sub frame and/or the special subframe of described TDD uplink-downlink configuration indication, the descending sub frame of the described TDD uplink-downlink configuration indication that first after m+3 conforms to a predetermined condition or special subframe receive the feedback to described PUSCH, described predetermined condition refers to: for any two FDD sub-frame of uplink, sequential after PUSCH corresponding to FDD sub-frame of uplink feedback be no earlier than the sequential PUSCH that the FDD sub-frame of uplink is corresponding the preceding feedback constantly constantly.
12. method according to claim 10 is characterized in that, receives feedback to described PUSCH at the descending sub frame of the TDD carrier wave of described TDD uplink-downlink configuration indication and/or special subframe, comprising:
If it is identical with the sub-frame of uplink numbering of described TDD uplink-downlink configuration indication to transmit the numbering of FDD sub-frame of uplink of described PUSCH, receive feedback to described PUSCH according to the feedback sequential of PUSCH HARQ corresponding to TDD uplink-downlink configuration;
And if the numbering of transmitting the FDD sub-frame of uplink m of described PUSCH is numbered identical with descending sub frame and/or the special subframe of described TDD uplink-downlink configuration indication, according to predetermined homeostatic principle m+3 after and the descending sub frame of the described TDD uplink-downlink configuration indication that conforms to a predetermined condition and/or special subframe reception to the feedback of described PUSCH, the purpose of described homeostatic principle is, make each difference that is used for the quantity of FDD sub-frame of uplink corresponding to descending sub frame that PUSCH is fed back or special subframe be not more than 1, described predetermined condition refers to: for any two FDD sub-frame of uplink, sequential after PUSCH corresponding to FDD sub-frame of uplink feedback be no earlier than the sequential PUSCH that the FDD sub-frame of uplink is corresponding the preceding feedback constantly constantly.
13. method according to claim 10 is characterized in that, receives feedback to described PUSCH at the descending sub frame of described TDD uplink-downlink configuration indication and/or special subframe, comprising:
For the PUSCH in FDD sub-frame of uplink m transmission, the descending sub frame of the described TDD uplink-downlink configuration indication of first after m+3 or special subframe receive the feedback to described PUSCH.
14. method according to claim 10 is characterized in that, receives feedback to described PUSCH at the descending sub frame of described TDD uplink-downlink configuration indication and/or special subframe, comprising:
For the PUSCH in FDD sub-frame of uplink m transmission, according to predetermined homeostatic principle m+3 after and the descending sub frame of the TDD uplink-downlink configuration that conforms to a predetermined condition indication and/or special subframe reception to the feedback of described PUSCH, the purpose of described homeostatic principle is, make each difference that is used for the quantity of FDD sub-frame of uplink corresponding to descending sub frame that PUSCH is fed back or special subframe be not more than 1, described predetermined condition refers to: for any two FDD sub-frame of uplink, sequential after PUSCH corresponding to FDD sub-frame of uplink feedback be no earlier than the sequential PUSCH that the FDD sub-frame of uplink is corresponding the preceding feedback constantly constantly.
15. the described method of any one according to claim 10～14, it is characterized in that, according on the descending sub frame of described TDD uplink-downlink configuration indication and/or the special subframe to the scheduling of the PUSCH of FDD up-link carrier, carry out the PUSCH transmission at the FDD sub-frame of uplink, comprising:
According to the sequential and the maximum RTT of PUSCH that receive the feedback of described PUSCH, receive communication with dispatch instructions to described PUSCH at the descending sub frame of described TDD uplink-downlink configuration indication and/or special subframe;
According to the described communication with dispatch instructions that receives, carry out the PUSCH transmission at described FDD sub-frame of uplink.
16. method according to claim 15 is characterized in that:
If the up link index UL index bit number of the described communication with dispatch instructions of each descending sub frame or special subframe carrying is identical, then described UL index bit number is the maximum of described descending sub frame and/or special subframe corresponding FDD sub-frame of uplink quantity when PUSCH is fed back;
Perhaps,
If the UL index bit number of the described communication with dispatch instructions of each descending sub frame or special subframe carrying is incomplete same, then the ULindex bit number of described communication with dispatch instructions of each descending sub frame or special subframe carrying is, this descending sub frame or special subframe corresponding FDD sub-frame of uplink quantity when PUSCH is fed back.
17. method according to claim 10, it is characterized in that, according on the descending sub frame of described TDD uplink-downlink configuration indication and/or the special subframe to the scheduling of the PUSCH of FDD up-link carrier, carry out the PUSCH transmission at the FDD sub-frame of uplink, and receive feedback to described PUSCH at the descending sub frame of described TDD uplink-downlink configuration indication and/or special subframe, comprising:
According to the scheduling of the upper PUSCH to FDD sub-frame of uplink n+l transmission of the descending sub frame of described TDD uplink-downlink configuration indication or TDD special subframe n, carry out PUSCH transmission, l ∈ L at FDD sub-frame of uplink n+l;
And receive feedback to the PUSCH of FDD sub-frame of uplink n-k transmission at the TDD descending sub frame of described TDD uplink-downlink configuration indication or special subframe n, k ∈ K, PUSCH for a FDD sub-frame of uplink transmission, the sequential of the descending sub frame of dispatching or special subframe n is early than the sequential of the descending sub frame that feeds back or special subframe n, wherein:
For TDD uplink-downlink configuration 0, then when n=0 and n=1 and n=5 and n=6, L={4,5,6,7}, when n '=0 and n=5, K={7,6,5,4}, when n=1 and n=6, K={4}; Perhaps, when n=0 and n=5, L={4,5,6}, when n=1 and n=6, L={5,6,7}, when n=0 and n=5, K={7,6,5}, when n=1 and n=6, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 1, then when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, L={4,5,6}, when n=0 and n=1 and n=5 and n=6, K={4}, when n=4 and n=9, K={6,5,4}; Perhaps, when n=0 and n=1 and n=5 and n=6, L={5,6}, when n=4 and n=9, L={4,5}, when n=0 and n=5, K={5,4}, when n=1 and n=6, K={4}, when n=4 and n=9, K={6,5};
Perhaps,
For TDD uplink-downlink configuration 2, then when n=0 and n=3 and n=4 and n=5 and n=8 and n=9, L={4,5,6}, when n=0 and n=4 and n=5 and n=9, K={4}, when n=3 and n=8, K={6,5,4}; Perhaps, when n=0 and n=1 and n=3 and n=4 and n=5 and n=6 and n=8 and n=9, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, K={5}, when n=3 and n=8, K={6,5}; Perhaps, when n=0 and n=1 and n=3 and n=4 and n=5 and n=6 and n=8 and n=9, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, K={4}, when n=3 and n=8, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 3, then when n=0 and n=1 and n=5 and n=8 and n=9, L={4,5,6,7}, during n=0, K={6,5,4}, during n=1, K={4}, during n=5, K={7,6,5,4}, when n=8 and n=9, K={6}; Perhaps, during n=0, L={5,6}, during n=1, L={6,7}, when n=5 and n=6 and n=7 and n=8 and n=9, L={4,5}, during n=0, K={6,5}, during n=1, K={5,4}, during n=5, K={7,6}, when n=6 and n=7 and n=8 and n=9, K={6}; Perhaps, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5,6,7}, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, K={4}, during n=5, K={7,6,5,4}; Perhaps, when n=0 and n=1 and n=7 and n=8 and n=9, L={6,7}, during n=5, L={4,5}, during n=6, L={5,6}, when n=0 and n=1 and n=8 and n=9, K={4}, during n=5, K={7,6}, during n=6, K={6,5}, during n=7, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 4, then when n=0 and n=1 and n=4 and n=5 and n=8 and n=9, L={4,5,6}, when n=0 and n=1 and n=5, K={4}, when n=4 and n=9, K={6,5,4}, during n=8, K={6}; Perhaps, when n=0 and n=1, L={5,6}, when n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5}, during n=0, K={5,4}, during n=1, K={4}, when n=4 and n=5 and n=6 and n=7 and n=8, K={6}, during n=9, K={6,5}; Perhaps, when n=0 and n=1 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5,6}, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, K={4}, during n=4, K={6,5,4}; Perhaps, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, L={5,6}, during n=4, L={4,5}, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, K={4}, during n=4, K={6,5}, during n=5, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 5, then when n=0 and n=1 and n=3 and n=4 and n=5 and n=8 and n=9, L={4,5,6}, when n=0 and n=1 and n=4 and n=5 and n=9, K={4}, during n=3, K={5,4}, during n=8, K={6,5,4}; Perhaps, when n=0 and n=1 and n=3 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5}, when n=0 and n=1 and n=9, K={5}, when n=3 and n=4 and n=5 and n=6 and n=7, K={6}, during n=8, K={6,5}; Perhaps, when n=0 and n=1 and n=3 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, K={4}, during n=3, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 6, then when n=0 and n=1 and n=5 and n=6 and n=9, L={4,5,6,7}, during n=0, K={6,5,4}, when n=1 and n=6, K={4}, during n=5, K={7,6,5,4}, during n=9, K={6}; Perhaps, when n=0 and n=5 and n=9, L={4,5,6}, when n=1 and n=6, L={5,6,7}, n=0, K={6,5}, when n=1 and n=6, K={5,4}, during n=5, K={7,6,5}, during n=9, K={6}; Perhaps, when n=0 and n=1 and n=5 and n=6 and n=9, L={4,5,6,7}, when n=0 and n=1 and n=6, K={4}, during n=5, K={7,6,5,4}, during n=9, K={6,5,4}; Perhaps, when n=0 and n=6, L={5,6}, during n=1, L={6,7}, when n=5 and n=9, L={4,5}, when n=0 and n=6, K={6,5}, during n=1, K={5,4}, when n=5 and n=9, K={7,6}.
18. method according to claim 10, it is characterized in that, according on the descending sub frame of described TDD uplink-downlink configuration indication and/or the special subframe to the scheduling of the PUSCH of FDD up-link carrier, carry out the PUSCH transmission at the FDD sub-frame of uplink, and receive feedback to described PUSCH at the descending sub frame of described TDD uplink-downlink configuration indication and/or special subframe, comprising:
According to the scheduling of the upper PUSCH to FDD sub-frame of uplink n+l transmission of the descending sub frame of described TDD uplink-downlink configuration indication or TDD special subframe n, carry out PUSCH transmission, l ∈ L at FDD sub-frame of uplink n+l;
And the feedback that receives the PUSCH that FDD sub-frame of uplink n-k is transmitted at TDD descending sub frame or the special subframe n ' of the indication of described TDD uplink-downlink configuration, k ∈ K, PUSCH for a FDD sub-frame of uplink transmission, the sequential of the descending sub frame of dispatching or special subframe n is early than the sequential of the descending sub frame that feeds back or special subframe n, wherein
For TDD uplink-downlink configuration 0, then when n=0 and n=5, L={4,5,6,7}, when n=1 and n=6, L={7}, when n=0 and n=5, K={7,6,5,4}, when n=1 and n=6, K={4}; Perhaps, when n=0 and n=5, L={4,5,6}, when n=1 and n=6, L={6,7}, when n=0 and n=5, K={7,6,5}, when n=1 and n=6, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 1, then when n=0 and n=1 and n=5 and n=6, L={6}, when n=4 and n=9, L={4,5,6}, when n=0 and n=1 and n=5 and n=6, K={4}, when n=4 and n=9, K={6,5,4}; Perhaps, when n=0 and n=5, L={5,6}, when n=1 and n=6, L={6}, when n=4 and n=9, L={4,5}, when n=0 and n=5, K={5,4}, when n=1 and n=6, K={4}, when n=4 and n=9, K={6,5};
Perhaps,
For TDD uplink-downlink configuration 2, then when n=0 and n=4 and n=5 and n=9, L={6}, when n=3 and n=8, L={4,5,6}, when n=0 and n=4 and n=5 and n=9, K={4}, when n=3 and n=8, K={6,5,4}; Perhaps, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, L={5}, when n=3 and n=8, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, K={5}, when n=3 and n=8, K={6,5}; Perhaps, when n=0 and n=3 and n=4 and n=5 and n=6 and n=9, L={5}, when n=3 and n=8, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, K={4}, when n=3 and n=8, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 3, then during n=0, L={5,6,7}, during n=1, L={7}, during n=5, L={4,5,6,7}, when n=8 and n=9, L={5}, during n=0, K={6,5,4}, during n=1, K={4}, during n=5, K={7,6,5,4}, when n=8 and n=9, K={6}; Perhaps, during n=0, L={5,6}, during n=1, L={6,7} is during n=5, L={4,5}, when n=6 and n=7 and n=8 and n=9, L={5}, during n=0, K={6,5} is during n=1, K={5,4}, during n=5, K={7,6}, when n=6 and n=7 and n=8 and n=9, K={6}; Perhaps, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, L={7}, during n=5, L={4,5,6,7}, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, K={4}, during n=5, K={7,6,5,4}; Perhaps, when n=0 and n=1 and n=8 and n=9, L={7}, during n=5, L={4,5}, during n=6, L={5,6}, during n=7, L={6,7}, when n=0 and n=1 and n=8 and n=9, K={4}, during n=5, K={7,6}, during n=6, K={6,5}, during n=7, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 4, then when n=0 and n=1 and n=5, L={6}, when n=4 and n=9, L={4,5,6}, during n=8, L={4}, when n=0 and n=1 and n=5, K={4}, when n=4 and n=9, K={6,5,4}, during n=8, K={6}; Perhaps, during n=0, L={5,6}, during n=1, L={6} is when n=4 and n=5 and n=6 and n=7 and n=8, L={4}, during n=9, L={4,5}, during n=0, K={5,4}, during n=1, K={4}, when n=4 and n=5 and n=6 and n=7 and n=8, K={6}, during n=9, K={6,5}; Perhaps, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, L={6}, during n=4, L={4,5,6}, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, K={4}, during n=4, K={6,5,4}; Perhaps, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, L={6}, during n=4, L={4,5}, during n=5, L={5,6}, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, K={4}, during n=4, K={6,5}, during n=5, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 5, then when n=0 and n=1 and n=4 and n=5 and n=9, L={4,5,6}, during n=3, L={5,6}, during n=8, L={4,5,6}, when n=0 and n=1 and n=4 and n=5 and n=9, K={4}, during n=3, K={5,4}, during n=8, K={6,5,4}; Perhaps, when n=0 and n=1 and n=9, L={5}, when n=3 and n=4 and n=5 and n=6 and n=7, L={4}, during n=8, L={4,5}, when n=0 and n=1 and n=9, K={5}, when n=3 and n=4 and n=5 and n=6 and n=7, K={6}, during n=8, K={6,5}; Perhaps, when n=0 and n=1 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={5}, during n=3, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, K={4}, during n=3, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 6, then during n=0, L={5,6,7}, when n=1 and n=6, L={7}, during n=5, L={4,5,6,7}, during n=9, L={5}, during n=0, K={6,5,4}, when n=1 and n=6, K={4}, during n=5, K={7,6,5,4}, during n=9, K={6}; Perhaps, during n=0, L={5,6}, when n=1 and n=6, L={6,7}, during n=5, L={4,5,6}, during n=9, L={5}, n=0, K={6,5}, when n=1 and n=6, K={5,4}, during n=5, K={7,6,5}, during n=9, K={6}; Perhaps, when n=0 and n=1 and n=6, L={4}, during n=5, L={4,5,6,7}, during n=9, L={5,6,7}, when n=0 and n=1 and n=6, K={4}, during n=5, K={7,6,5,4}, during n=9, K={6,5,4}; Perhaps, when n=0 and n=6, L={5,6}, during n=1, L={6,7}, when n=5 and n=9, L={4,5}, when n=0 and n=6, K={6,5}, during n=1, K={5,4}, when n=5 and n=9, K={7,6}.
19. a data transmission device is characterized in that, comprising:
The uplink-downlink configuration determination module be used for to determine that PUSCH to the FDD up-link carrier dispatches and feeds back employed TDD uplink-downlink configuration;
The PUSCH scheduler module is used at the descending sub frame of described TDD uplink-downlink configuration indication and/or the PUSCH of special subframe scheduling FDD up-link carrier;
The PUSCH receiver module is used for receiving described PUSCH at the FDD sub-frame of uplink;
The PUSCH feedback module is on the descending sub frame of indicating in described TDD uplink-downlink configuration and/or the special subframe described PUSCH being fed back.
20. device according to claim 19 is characterized in that, described PUSCH feedback module specifically is used for:
If it is identical with the sub-frame of uplink numbering of described TDD uplink-downlink configuration indication to transmit the numbering of FDD sub-frame of uplink of described PUSCH, feed back according to the feedback sequential of PUSCH HARQ corresponding to described TDD uplink-downlink configuration;
And if the numbering of transmitting the FDD sub-frame of uplink m of described PUSCH is numbered identical with descending sub frame and/or the special subframe of described TDD uplink-downlink configuration indication, on the descending sub frame of the described TDD uplink-downlink configuration indication that first after m+3 conforms to a predetermined condition or the special subframe described PUSCH is fed back, described predetermined condition refers to: for any two FDD sub-frame of uplink, sequential after PUSCH corresponding to FDD sub-frame of uplink feedback be no earlier than the sequential PUSCH that the FDD sub-frame of uplink is corresponding the preceding feedback constantly constantly.
21. device according to claim 19 is characterized in that, described PUSCH feedback module specifically is used for:
If it is identical with the sub-frame of uplink numbering of described TDD uplink-downlink configuration indication to transmit the numbering of FDD sub-frame of uplink of described PUSCH, feed back according to the feedback sequential of PUSCH mixed automatic retransfer request HARQ corresponding to described TDD uplink-downlink configuration;
And if the numbering of transmitting the FDD sub-frame of uplink m of described PUSCH is numbered identical with descending sub frame and/or the special subframe of described TDD uplink-downlink configuration indication, described PUSCH is fed back after m+3 and on the descending sub frame of the described TDD uplink-downlink configuration indication that conforms to a predetermined condition and/or the special subframe according to predetermined homeostatic principle, the purpose of described homeostatic principle is, make each difference that is used for the quantity of FDD sub-frame of uplink corresponding to descending sub frame that PUSCH is fed back or special subframe be not more than 1, described predetermined condition refers to: for any two FDD sub-frame of uplink, sequential after PUSCH corresponding to FDD sub-frame of uplink feedback be no earlier than the sequential PUSCH that the FDD sub-frame of uplink is corresponding the preceding feedback constantly constantly.
22. device according to claim 19 is characterized in that, described PUSCH feedback module specifically is used for:
For the PUSCH in FDD sub-frame of uplink m transmission, descending sub frame or the special subframe of the described TDD uplink-downlink configuration indication of first after m+3 feed back.
23. device according to claim 19 is characterized in that, described PUSCH feedback module specifically is used for:
For the PUSCH in FDD sub-frame of uplink m transmission, according to predetermined homeostatic principle m+3 after and the TDD uplink-downlink configuration that conforms to a predetermined condition descending sub frame and/or the special subframe of indicating feed back, the purpose of described homeostatic principle is, make each difference that is used for the quantity of FDD sub-frame of uplink corresponding to descending sub frame that PUSCH is fed back or special subframe be not more than 1, described predetermined condition refers to: for any two FDD sub-frame of uplink, sequential after PUSCH corresponding to FDD sub-frame of uplink feedback be no earlier than the sequential PUSCH that the FDD sub-frame of uplink is corresponding the preceding feedback constantly constantly.
24. the described device of any one is characterized in that according to claim 19～23, described PUSCH scheduler module specifically comprises:
PUSCH scheduling configuration submodule, be used for carrying out feedback of feedback sequential and PUSCH maximum round trip time delay RTT according to the PUSCH to the FDD up-link carrier, in the descending sub frame of described TDD uplink-downlink configuration indication and/or the special subframe configuration communication with dispatch instructions to described PUSCH;
The PUSCH scheduling sends submodule, is used for descending sub frame and/or the described communication with dispatch instructions of special subframe transmission in described TDD uplink-downlink configuration indication.
25. device according to claim 24 is characterized in that:
If the up link index UL index bit number of the described communication with dispatch instructions of each descending sub frame or special subframe carrying is identical, then described UL index bit number is the maximum of described descending sub frame and/or special subframe corresponding FDD sub-frame of uplink quantity when PUSCH is fed back;
Perhaps,
If the UL index bit number of the described communication with dispatch instructions of each descending sub frame or special subframe carrying is incomplete same, then the UL index bit number of described communication with dispatch instructions of each descending sub frame or special subframe carrying is, this descending sub frame or special subframe corresponding FDD sub-frame of uplink quantity when PUSCH is fed back.
26. device according to claim 19 is characterized in that:
Described PUSCH scheduler module specifically is used for, at the descending sub frame of described TDD uplink-downlink configuration indication or the PUSCH of special subframe n scheduling FDD sub-frame of uplink n+l transmission, l ∈ L;
Described PUSCH feedback module specifically is used for, PUSCH to FDD sub-frame of uplink n-k transmission on the descending sub frame of described TDD uplink-downlink configuration indication or special subframe n feeds back, k ∈ K, PUSCH for a FDD sub-frame of uplink transmission, the sequential of the descending sub frame of dispatching or special subframe n is early than the sequential of the descending sub frame that feeds back or special subframe n, wherein:
For TDD uplink-downlink configuration 0, then when n=0 and n=1 and n=5 and n=6, L={4,5,6,7}, when n '=0 and n=5, K={7,6,5,4}, when n=1 and n=6, K={4}; Perhaps, when n=0 and n=5, L={4,5,6}, when n=1 and n=6, L={5,6,7}, when n=0 and n=5, K={7,6,5}, when n=1 and n=6, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 1, then when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, L={4,5,6}, when n=0 and n=1 and n=5 and n=6, K={4}, when n=4 and n=9, K={6,5,4}; Perhaps, when n=0 and n=1 and n=5 and n=6, L={5,6}, when n=4 and n=9, L={4,5}, when n=0 and n=5, K={5,4}, when n=1 and n=6, K={4}, when n=4 and n=9, K={6,5};
Perhaps,
For TDD uplink-downlink configuration 2, then when n=0 and n=3 and n=4 and n=5 and n=8 and n=9, L={4,5,6}, when n=0 and n=4 and n=5 and n=9, K={4}, when n=3 and n=8, K={6,5,4}; Perhaps, when n=0 and n=1 and n=3 and n=4 and n=5 and n=6 and n=8 and n=9, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, K={5}, when n=3 and n=8, K={6,5}; Perhaps, when n=0 and n=1 and n=3 and n=4 and n=5 and n=6 and n=8 and n=9, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, K={4}, when n=3 and n=8, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 3, then when n=0 and n=1 and n=5 and n=8 and n=9, L={4,5,6,7}, during n=0, K={6,5,4}, during n=1, K={4}, during n=5, K={7,6,5,4}, when n=8 and n=9, K={6}; Perhaps, during n=0, L={5,6}, during n=1, L={6,7}, when n=5 and n=6 and n=7 and n=8 and n=9, L={4,5}, during n=0, K={6,5}, during n=1, K={5,4}, during n=5, K={7,6}, when n=6 and n=7 and n=8 and n=9, K={6}; Perhaps, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5,6,7}, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, K={4}, during n=5, K={7,6,5,4}; Perhaps, when n=0 and n=1 and n=7 and n=8 and n=9, L={6,7}, during n=5, L={4,5}, during n=6, L={5,6}, when n=0 and n=1 and n=8 and n=9, K={4}, during n=5, K={7,6}, during n=6, K={6,5}, during n=7, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 4, then when n=0 and n=1 and n=4 and n=5 and n=8 and n=9, L={4,5,6}, when n=0 and n=1 and n=5, K={4}, when n=4 and n=9, K={6,5,4}, during n=8, K={6}; Perhaps, when n=0 and n=1, L={5,6}, when n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5}, during n=0, K={5,4}, during n=1, K={4}, when n=4 and n=5 and n=6 and n=7 and n=8, K={6}, during n=9, K={6,5}; Perhaps, when n=0 and n=1 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5,6}, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, K={4}, during n=4, K={6,5,4}; Perhaps, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, L={5,6}, during n=4, L={4,5}, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, K={4}, during n=4, K={6,5}, during n=5, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 5, then when n=0 and n=1 and n=3 and n=4 and n=5 and n=8 and n=9, L={4,5,6}, when n=0 and n=1 and n=4 and n=5 and n=9, K={4}, during n=3, K={5,4}, during n=8, K={6,5,4}; Perhaps, when n=0 and n=1 and n=3 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5}, when n=0 and n=1 and n=9, K={5}, when n=3 and n=4 and n=5 and n=6 and n=7, K={6}, during n=8, K={6,5}; Perhaps, when n=0 and n=1 and n=3 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, K={4}, during n=3, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 6, then when n=0 and n=1 and n=5 and n=6 and n=9, L={4,5,6,7}, during n=0, K={6,5,4}, when n=1 and n=6, K={4}, during n=5, K={7,6,5,4}, during n=9, K={6}; Perhaps, when n=0 and n=5 and n=9, L={4,5,6}, when n=1 and n=6, L={5,6,7}, n=0, K={6,5}, when n=1 and n=6, K={5,4}, during n=5, K={7,6,5}, during n=9, K={6}; Perhaps, when n=0 and n=1 and n=5 and n=6 and n=9, L={4,5,6,7}, when n=0 and n=1 and n=6, K={4}, during n=5, K={7,6,5,4}, during n=9, K={6,5,4}; Perhaps, when n=0 and n=6, L={5,6}, during n=1, L={6,7}, when n=5 and n=9, L={4,5}, when n=0 and n=6, K={6,5}, during n=1, K={5,4}, when n=5 and n=9, K={7,6}.
27. device according to claim 19 is characterized in that:
Described PUSCH scheduler module specifically is used for, at the descending sub frame of described TDD uplink-downlink configuration indication or the PUSCH of special subframe n scheduling FDD sub-frame of uplink n+l transmission, l ∈ L;
Described PUSCH feedback module specifically is used for, PUSCH to FDD sub-frame of uplink n-k transmission on the descending sub frame of described TDD uplink-downlink configuration indication or special subframe n feeds back, k ∈ K, PUSCH for a FDD sub-frame of uplink transmission, the sequential of the descending sub frame of dispatching or special subframe n is early than the sequential of the descending sub frame that feeds back or special subframe n, wherein:
For TDD uplink-downlink configuration 0, then when n=0 and n=5, L={4,5,6,7}, when n=1 and n=6, L={7}, when n=0 and n=5, K={7,6,5,4}, when n=1 and n=6, K={4}; Perhaps, when n=0 and n=5, L={4,5,6}, when n=1 and n=6, L={6,7}, when n=0 and n=5, K={7,6,5}, when n=1 and n=6, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 1, then when n=0 and n=1 and n=5 and n=6, L={6}, when n=4 and n=9, L={4,5,6}, when n=0 and n=1 and n=5 and n=6, K={4}, when n=4 and n=9, K={6,5,4}; Perhaps, when n=0 and n=5, L={5,6}, when n=1 and n=6, L={6}, when n=4 and n=9, L={4,5}, when n=0 and n=5, K={5,4}, when n=1 and n=6, K={4}, when n=4 and n=9, K={6,5};
Perhaps,
For TDD uplink-downlink configuration 2, then when n=0 and n=4 and n=5 and n=9, L={6}, when n=3 and n=8, L={4,5,6}, when n=0 and n=4 and n=5 and n=9, K={4}, when n=3 and n=8, K={6,5,4}; Perhaps, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, L={5}, when n=3 and n=8, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, K={5}, when n=3 and n=8, K={6,5}; Perhaps, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, L={5}, when n=3 and n=8, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, K={4}, when n=3 and n=8, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 3, then during n=0, L={5,6,7}, during n=1, L={7}, during n=5, L={4,5,6,7}, when n=8 and n=9, L={5}, during n=0, K={6,5,4}, during n=1, K={4}, during n=5, K={7,6,5,4}, when n=8 and n=9, K={6}; Perhaps, during n=0, L={5,6}, during n=1, L={6,7} is during n=5, L={4,5}, when n=6 and n=7 and n=8 and n=9, L={5}, during n=0, K={6,5} is during n=1, K={5,4}, during n=5, K={7,6}, when n=6 and n=7 and n=8 and n=9, K={6}; Perhaps, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, L={7}, during n=5, L={4,5,6,7}, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, K={4}, during n=5, K={7,6,5,4}; Perhaps, when n=0 and n=1 and n=8 and n=9, L={7}, during n=5, L={4,5}, during n=6, L={5,6}, during n=7, L={6,7}, when n=0 and n=1 and n=8 and n=9, K={4}, during n=5, K={7,6}, during n=6, K={6,5}, during n=7, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 4, then when n=0 and n=1 and n=5, L={6}, when n=4 and n=9, L={4,5,6}, during n=8, L={4}, when n=0 and n=1 and n=5, K={4}, when n=4 and n=9, K={6,5,4}, during n=8, K={6}; Perhaps, during n=0, L={5,6}, during n=1, L={6} is when n=4 and n=5 and n=6 and n=7 and n=8, L={4}, during n=9, L={4,5}, during n=0, K={5,4}, during n=1, K={4}, when n=4 and n=5 and n=6 and n=7 and n=8, K={6}, during n=9, K={6,5}; Perhaps, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, L={6}, during n=4, L={4,5,6}, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, K={4}, during n=4, K={6,5,4}; Perhaps, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, L={6}, during n=4, L={4,5}, during n=5, L={5,6}, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, K={4}, during n=4, K={6,5}, during n=5, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 5, then when n=0 and n=1 and n=4 and n=5 and n=9, L={4,5,6}, during n=3, L={5,6}, during n=8, L={4,5,6}, when n=0 and n=1 and n=4 and n=5 and n=9, K={4}, during n=3, K={5,4}, during n=8, K={6,5,4}; Perhaps, when n=0 and n=1 and n=9, L={5}, when n=3 and n=4 and n=5 and n=6 and n=7, L={4}, during n=8, L={4,5}, when n=0 and n=1 and n=9, K={5}, when n=3 and n=4 and n=5 and n=6 and n=7, K={6}, during n=8, K={6,5}; Perhaps, when n=0 and n=1 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={5}, during n=3, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, K={4}, during n=3, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 6, then during n=0, L={5,6,7}, when n=1 and n=6, L={7}, during n=5, L={4,5,6,7}, during n=9, L={5}, during n=0, K={6,5,4}, when n=1 and n=6, K={4}, during n=5, K={7,6,5,4}, during n=9, K={6}; Perhaps, during n=0, L={5,6}, when n=1 and n=6, L={6,7}, during n=5, L={4,5,6}, during n=9, L={5}, n=0, K={6,5}, when n=1 and n=6, K={5,4}, during n=5, K={7,6,5}, during n=9, K={6}; Perhaps, when n=0 and n=1 and n=6, L={4}, during n=5, L={4,5,6,7}, during n=9, L={5,6,7}, when n=0 and n=1 and n=6, K={4}, during n=5, K={7,6,5,4}, during n=9, K={6,5,4}; Perhaps, when n=0 and n=6, L={5,6}, during n=1, L={6,7}, when n=5 and n=9, L={4,5}, when n=0 and n=6, K={6,5}, during n=1, K={5,4}, when n=5 and n=9, K={7,6}.
28. a data transmission device is characterized in that, comprising:
The uplink-downlink configuration determination module be used for to determine that PUSCH to the FDD up-link carrier dispatches and feeds back employed TDD uplink-downlink configuration;
PUSCH dispatching response module, be used for according on the descending sub frame of described TDD uplink-downlink configuration indication and/or the special subframe to the scheduling of the PUSCH of FDD up-link carrier, carry out the PUSCH transmission at the FDD sub-frame of uplink;
PUSCH feeds back receiver module, is used for receiving feedback to described PUSCH at the descending sub frame of described TDD uplink-downlink configuration indication and/or special subframe;
PUSCH retransmission process module is used for carrying out the PUSCH retransmission process according to the PUSCH feedback information that receives.
29. device according to claim 28 is characterized in that, described PUSCH feedback receiver module specifically is used for:
If it is identical with the sub-frame of uplink numbering of described TDD uplink-downlink configuration indication to transmit the numbering of FDD sub-frame of uplink of described PUSCH, receive feedback to described PUSCH according to the feedback sequential of PUSCH HARQ corresponding to described TDD uplink-downlink configuration;
And if the numbering of transmitting the FDD sub-frame of uplink m of described PUSCH is numbered identical with descending sub frame and/or the special subframe of described TDD uplink-downlink configuration indication, the descending sub frame of the described TDD uplink-downlink configuration indication that first after m+3 conforms to a predetermined condition or special subframe receive the feedback to described PUSCH, described predetermined condition refers to: for any two FDD sub-frame of uplink, sequential after PUSCH corresponding to FDD sub-frame of uplink feedback be no earlier than the sequential PUSCH that the FDD sub-frame of uplink is corresponding the preceding feedback constantly constantly.
30. device according to claim 28 is characterized in that, described PUSCH feedback receiver module specifically is used for:
If it is identical with the sub-frame of uplink numbering of described TDD uplink-downlink configuration indication to transmit the numbering of FDD sub-frame of uplink of described PUSCH, receive feedback to described PUSCH according to the feedback sequential of PUSCH HARQ corresponding to TDD uplink-downlink configuration;
And if the numbering of transmitting the FDD sub-frame of uplink m of described PUSCH is numbered identical with descending sub frame and/or the special subframe of described TDD uplink-downlink configuration indication, according to predetermined homeostatic principle m+3 after and the descending sub frame of the described TDD uplink-downlink configuration indication that conforms to a predetermined condition and/or special subframe reception to the feedback of described PUSCH, the purpose of described homeostatic principle is, make each difference that is used for the quantity of FDD sub-frame of uplink corresponding to descending sub frame that PUSCH is fed back or special subframe be not more than 1, described predetermined condition refers to: for any two FDD sub-frame of uplink, sequential after PUSCH corresponding to FDD sub-frame of uplink feedback be no earlier than the sequential PUSCH that the FDD sub-frame of uplink is corresponding the preceding feedback constantly constantly.
31. device according to claim 28 is characterized in that, described PUSCH feedback receiver module specifically is used for:
For the PUSCH in FDD sub-frame of uplink m transmission, the descending sub frame of the described TDD uplink-downlink configuration indication of first after m+3 or special subframe receive the feedback to described PUSCH.
32. device according to claim 28 is characterized in that, described PUSCH feedback receiver module specifically is used for:
For the PUSCH in FDD sub-frame of uplink m transmission, according to predetermined homeostatic principle m+3 after and the descending sub frame of the TDD uplink-downlink configuration that conforms to a predetermined condition indication and/or special subframe reception to the feedback of described PUSCH, the purpose of described homeostatic principle is, make each difference that is used for the quantity of FDD sub-frame of uplink corresponding to descending sub frame that PUSCH is fed back or special subframe be not more than 1, described predetermined condition refers to: for any two FDD sub-frame of uplink, sequential after PUSCH corresponding to FDD sub-frame of uplink feedback be no earlier than the sequential PUSCH that the FDD sub-frame of uplink is corresponding the preceding feedback constantly constantly.
33. the described device of any one is characterized in that according to claim 28～32, PUSCH dispatching response module specifically comprises:
PUSCH scheduling receives submodule, is used for according to the sequential and the maximum RTT of PUSCH that receive the feedback of described PUSCH, receives communication with dispatch instructions to described PUSCH at the descending sub frame of described TDD uplink-downlink configuration indication and/or special subframe;
PUSCH transmits submodule, is used for according to the described communication with dispatch instructions that receives, and carries out the PUSCH transmission at described FDD sub-frame of uplink.
34. device according to claim 33 is characterized in that:
If the up link index UL index bit number of the described communication with dispatch instructions of each descending sub frame or special subframe carrying is identical, then described UL index bit number is the maximum of described descending sub frame and/or special subframe corresponding FDD sub-frame of uplink quantity when PUSCH is fed back;
Perhaps,
If the UL index bit number of the described communication with dispatch instructions of each descending sub frame or special subframe carrying is incomplete same, then the ULindex bit number of described communication with dispatch instructions of each descending sub frame or special subframe carrying is, this descending sub frame or special subframe corresponding FDD sub-frame of uplink quantity when PUSCH is fed back.
35. device according to claim 28 is characterized in that:
Described PUSCH dispatching response module specifically is used for, and according to the scheduling of the upper PUSCH to FDD sub-frame of uplink n+l transmission of the descending sub frame of described TDD uplink-downlink configuration indication or TDD special subframe n, carries out PUSCH transmission, l ∈ L at FDD sub-frame of uplink n+l;
Described PUSCH feedback receiver module specifically is used for, and receive feedback to the PUSCH of FDD sub-frame of uplink n-k transmission at the TDD descending sub frame of described TDD uplink-downlink configuration indication or special subframe n, k ∈ K, PUSCH for a FDD sub-frame of uplink transmission, the sequential of the descending sub frame of dispatching or special subframe n is early than the sequential of the descending sub frame that feeds back or special subframe n, wherein:
For TDD uplink-downlink configuration 0, then when n=0 and n=1 and n=5 and n=6, L={4,5,6,7}, when n '=0 and n=5, K={7,6,5,4}, when n=1 and n=6, K={4}; Perhaps, when n=0 and n=5, L={4,5,6}, when n=1 and n=6, L={5,6,7}, when n=0 and n=5, K={7,6,5}, when n=1 and n=6, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 1, then when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, L={4,5,6}, when n=0 and n=1 and n=5 and n=6, K={4}, when n=4 and n=9, K={6,5,4}; Perhaps, when n=0 and n=1 and n=5 and n=6, L={5,6}, when n=4 and n=9, L={4,5}, when n=0 and n=5, K={5,4}, when n=1 and n=6, K={4}, when n=4 and n=9, K={6,5};
Perhaps,
For TDD uplink-downlink configuration 2, then when n=0 and n=3 and n=4 and n=5 and n=8 and n=9, L={4,5,6}, when n=0 and n=4 and n=5 and n=9, K={4}, when n=3 and n=8, K={6,5,4}; Perhaps, when n=0 and n=1 and n=3 and n=4 and n=5 and n=6 and n=8 and n=9, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, K={5}, when n=3 and n=8, K={6,5}; Perhaps, when n=0 and n=1 and n=3 and n=4 and n=5 and n=6 and n=8 and n=9, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, K={4}, when n=3 and n=8, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 3, then when n=0 and n=1 and n=5 and n=8 and n=9, L={4,5,6,7}, during n=0, K={6,5,4}, during n=1, K={4}, during n=5, K={7,6,5,4}, when n=8 and n=9, K={6}; Perhaps, during n=0, L={5,6}, during n=1, L={6,7}, when n=5 and n=6 and n=7 and n=8 and n=9, L={4,5}, during n=0, K={6,5}, during n=1, K={5,4}, during n=5, K={7,6}, when n=6 and n=7 and n=8 and n=9, K={6}; Perhaps, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5,6,7}, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, K={4}, during n=5, K={7,6,5,4}; Perhaps, when n=0 and n=1 and n=7 and n=8 and n=9, L={6,7}, during n=5, L={4,5}, during n=6, L={5,6}, when n=0 and n=1 and n=8 and n=9, K={4}, during n=5, K={7,6}, during n=6, K={6,5}, during n=7, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 4, then when n=0 and n=1 and n=4 and n=5 and n=8 and n=9, L={4,5,6}, when n=0 and n=1 and n=5, K={4}, when n=4 and n=9, K={6,5,4}, during n=8, K={6}; Perhaps, when n=0 and n=1, L={5,6}, when n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5}, during n=0, K={5,4}, during n=1, K={4}, when n=4 and n=5 and n=6 and n=7 and n=8, K={6}, during n=9, K={6,5}; Perhaps, when n=0 and n=1 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5,6}, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, K={4}, during n=4, K={6,5,4}; Perhaps, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, L={5,6}, during n=4, L={4,5}, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, K={4}, during n=4, K={6,5}, during n=5, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 5, then when n=0 and n=1 and n=3 and n=4 and n=5 and n=8 and n=9, L={4,5,6}, when n=0 and n=1 and n=4 and n=5 and n=9, K={4}, during n=3, K={5,4}, during n=8, K={6,5,4}; Perhaps, when n=0 and n=1 and n=3 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5}, when n=0 and n=1 and n=9, K={5}, when n=3 and n=4 and n=5 and n=6 and n=7, K={6}, during n=8, K={6,5}; Perhaps, when n=0 and n=1 and n=3 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, K={4}, during n=3, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 6, then when n=0 and n=1 and n=5 and n=6 and n=9, L={4,5,6,7}, during n=0, K={6,5,4}, when n=1 and n=6, K={4}, during n=5, K={7,6,5,4}, during n=9, K={6}; Perhaps, when n=0 and n=5 and n=9, L={4,5,6}, when n=1 and n=6, L={5,6,7}, n=0, K={6,5}, when n=1 and n=6, K={5,4}, during n=5, K={7,6,5}, during n=9, K={6}; Perhaps, when n=0 and n=1 and n=5 and n=6 and n=9, L={4,5,6,7}, when n=0 and n=1 and n=6, K={4}, during n=5, K={7,6,5,4}, during n=9, K={6,5,4}; Perhaps, when n=0 and n=6, L={5,6}, during n=1, L={6,7}, when n=5 and n=9, L={4,5}, when n=0 and n=6, K={6,5}, during n=1, K={5,4}, when n=5 and n=9, K={7,6}.
36. device according to claim 28 is characterized in that:
Described PUSCH dispatching response module specifically is used for, and according to the scheduling of the upper PUSCH to FDD sub-frame of uplink n+l transmission of the descending sub frame of described TDD uplink-downlink configuration indication or TDD special subframe n, carries out PUSCH transmission, l ∈ L at FDD sub-frame of uplink n+l;
Described PUSCH feedback receiver module specifically is used for, the feedback that receives the PUSCH that FDD sub-frame of uplink n-k is transmitted at TDD descending sub frame or the special subframe n ' of the indication of described TDD uplink-downlink configuration, k ∈ K, PUSCH for a FDD sub-frame of uplink transmission, the sequential of the descending sub frame of dispatching or special subframe n is early than the sequential of the descending sub frame that feeds back or special subframe n, wherein
For TDD uplink-downlink configuration 0, then when n=0 and n=5, L={4,5,6,7}, when n=1 and n=6, L={7}, when n=0 and n=5, K={7,6,5,4}, when n=1 and n=6, K={4}; Perhaps, when n=0 and n=5, L={4,5,6}, when n=1 and n=6, L={6,7}, when n=0 and n=5, K={7,6,5}, when n=1 and n=6, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 1, then when n=0 and n=1 and n=5 and n=6, L={6}, when n=4 and n=9, L={4,5,6}, when n=0 and n=1 and n=5 and n=6, K={4}, when n=4 and n=9, K={6,5,4}; Perhaps, when n=0 and n=5, L={5,6}, when n=1 and n=6, L={6}, when n=4 and n=9, L={4,5}, when n=0 and n=5, K={5,4}, when n=1 and n=6, K={4}, when n=4 and n=9, K={6,5};
Perhaps,
For TDD uplink-downlink configuration 2, then when n=0 and n=4 and n=5 and n=9, L={6}, when n=3 and n=8, L={4,5,6}, when n=0 and n=4 and n=5 and n=9, K={4}, when n=3 and n=8, K={6,5,4}; Perhaps, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, L={5}, when n=3 and n=8, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, K={5}, when n=3 and n=8, K={6,5}; Perhaps, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, L={5}, when n=3 and n=8, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=9, K={4}, when n=3 and n=8, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 3, then during n=0, L={5,6,7}, during n=1, L={7}, during n=5, L={4,5,6,7}, when n=8 and n=9, L={5}, during n=0, K={6,5,4}, during n=1, K={4}, during n=5, K={7,6,5,4}, when n=8 and n=9, K={6}; Perhaps, during n=0, L={5,6}, during n=1, L={6,7} is during n=5, L={4,5}, when n=6 and n=7 and n=8 and n=9, L={5}, during n=0, K={6,5} is during n=1, K={5,4}, during n=5, K={7,6}, when n=6 and n=7 and n=8 and n=9, K={6}; Perhaps, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, L={7}, during n=5, L={4,5,6,7}, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, K={4}, during n=5, K={7,6,5,4}; Perhaps, when n=0 and n=1 and n=8 and n=9, L={7}, during n=5, L={4,5}, during n=6, L={5,6}, during n=7, L={6,7}, when n=0 and n=1 and n=8 and n=9, K={4}, during n=5, K={7,6}, during n=6, K={6,5}, during n=7, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 4, then when n=0 and n=1 and n=5, L={6}, when n=4 and n=9, L={4,5,6}, during n=8, L={4}, when n=0 and n=1 and n=5, K={4}, when n=4 and n=9, K={6,5,4}, during n=8, K={6}; Perhaps, during n=0, L={5,6}, during n=1, L={6} is when n=4 and n=5 and n=6 and n=7 and n=8, L={4}, during n=9, L={4,5}, during n=0, K={5,4}, during n=1, K={4}, when n=4 and n=5 and n=6 and n=7 and n=8, K={6}, during n=9, K={6,5}; Perhaps, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, L={6}, during n=4, L={4,5,6}, when n=0 and n=1 and n=5 and n=6 and n=7 and n=8 and n=9, K={4}, during n=4, K={6,5,4}; Perhaps, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, L={6}, during n=4, L={4,5}, during n=5, L={5,6}, when n=0 and n=1 and n=6 and n=7 and n=8 and n=9, K={4}, during n=4, K={6,5}, during n=5, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 5, then when n=0 and n=1 and n=4 and n=5 and n=9, L={4,5,6}, during n=3, L={5,6}, during n=8, L={4,5,6}, when n=0 and n=1 and n=4 and n=5 and n=9, K={4}, during n=3, K={5,4}, during n=8, K={6,5,4}; Perhaps, when n=0 and n=1 and n=9, L={5}, when n=3 and n=4 and n=5 and n=6 and n=7, L={4}, during n=8, L={4,5}, when n=0 and n=1 and n=9, K={5}, when n=3 and n=4 and n=5 and n=6 and n=7, K={6}, during n=8, K={6,5}; Perhaps, when n=0 and n=1 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, L={5}, during n=3, L={4,5}, when n=0 and n=1 and n=4 and n=5 and n=6 and n=7 and n=8 and n=9, K={4}, during n=3, K={5,4};
Perhaps,
For TDD uplink-downlink configuration 6, then during n=0, L={5,6,7}, when n=1 and n=6, L={7}, during n=5, L={4,5,6,7}, during n=9, L={5}, during n=0, K={6,5,4}, when n=1 and n=6, K={4}, during n=5, K={7,6,5,4}, during n=9, K={6}; Perhaps, during n=0, L={5,6}, when n=1 and n=6, L={6,7}, during n=5, L={4,5,6}, during n=9, L={5}, n=0, K={6,5}, when n=1 and n=6, K={5,4}, during n=5, K={7,6,5}, during n=9, K={6}; Perhaps, when n=0 and n=1 and n=6, L={4}, during n=5, L={4,5,6,7}, during n=9, L={5,6,7}, when n=0 and n=1 and n=6, K={4}, during n=5, K={7,6,5,4}, during n=9, K={6,5,4}; Perhaps, when n=0 and n=6, L={5,6}, during n=1, L={6,7}, when n=5 and n=9, L={4,5}, when n=0 and n=6, K={6,5}, during n=1, K={5,4}, when n=5 and n=9, K={7,6}.
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