CN108271435A

CN108271435A - The method sent for scheduling uplink in a communication network

Info

Publication number: CN108271435A
Application number: CN201780003774.1A
Authority: CN
Inventors: 严重善; 郑*润; 郑润; 朴承根; 柳星珍
Original assignee: Electronics and Telecommunications Research Institute ETRI
Current assignee: Electronics and Telecommunications Research Institute ETRI
Priority date: 2016-02-04
Filing date: 2017-02-03
Publication date: 2018-07-10
Anticipated expiration: 2037-02-03
Also published as: CN108271435B; WO2017135721A1

Abstract

Disclose a kind of method sent for scheduling uplink in a communication network.Terminal operation method includes the following steps：Detect the control channel of subframe #n sent from base station；Uplink license is received from control channel；And it is sent to base station by multiple subframes of uplink license scheduling.Therefore, the performance of communication network can be improved.

Description

The method sent for scheduling uplink in a communication network

Technical field

The present invention relates to the technology sent for scheduling uplink, and more particularly relate to unauthorized in support The technology that scheduling uplink is sent in the communication network of frequency band (unlicensed band).

Background technology

With the progress of Information and Communication Technology, various wireless communication techniques are also developing.It is used according to corresponding technology Frequency band, wireless communication technique can usually be classified as using authorized frequency bands technology and using unlicensed band (for example, work Industry-Scientific-Medical (ISM) frequency band) technology.Since authorized frequency bands are specially used by specific operator, so, it is non-with using The technology of authorized frequency bands is compared, and better reliability, communication quality etc. can be provided using the technology of authorized frequency bands.

There is the long term evolutions (LTE) or advanced LTE standardized in third generation partner program (3GPP) (LTE-A) as the representative cellular telecommunication art using authorized frequency bands.Therefore, base station or the use of LTE or advanced LTE is supported Family equipment (UE) can be sent or be received signal by authorized frequency bands.Moreover, there is wireless defined in IEEE 802.11 LAN (WLAN) is as the representative wireless communication technique using unlicensed band.Therefore, support WLAN access point or Signal can be sent or be received by unlicensed band by standing.

Meanwhile with the explosive increase of mobile flow, additional authorized frequency bands are needed, to be handled by authorized frequency bands This more and more mobile flows.But authorized frequency bands are limited resources.Since authorized frequency bands are typically to pass through operator Between auction obtain, accordingly, it may be desirable to up to astronomical investment is to obtain additional authorized frequency bands.In order to solve The above problem, it may be considered that provide the LTE or advanced LTE methods of service by unlicensed band.

In the case where providing LTE (or LTE-A) by unlicensed band and servicing, the communication node with supporting WLAN is needed (for example, access point, stand) coexists.For coexisting in unlicensed band, the communication node (example of LTE (or LTE-A) is supported Such as, base station, UE etc.) can unlicensed band be occupied based on LBT (listem-before-talk) schemes.In this case, support LTE (or LTE-A etc.) communication node may not desired time point send signal.That is, with supporting the logical of authorized frequency bands Believe that node is different, signal may not be sent at desired time point by supporting the communication node of unlicensed band.Therefore, it is necessary to In the method sent in the communication network for supporting unlicensed band based on limited send opportunity come scheduling uplink.

Meanwhile it is to write to understand the background technology of the disclosure to these descriptions of the relevant technologies.Therefore, these It can include in description about the information known to disclosed technique person of ordinary skill in the field in addition to routine techniques.

Invention content

Technical problem

The purpose of the disclosure for solving the above problems is to provide in the communication network for supporting unlicensed band The method that scheduling uplink is sent.

Technical solution

The operating method of terminal in communication network for achieving the above object according to an embodiment of the present disclosure can be with Including：Detect the control channel of subframe #n sent from base station；Uplink license is received from control channel；And it is sent out to base station It send by multiple subframes of uplink license scheduling.Multiple subframes include subframe # (n+l+k) to # (n+l+k+ (N_SF- 1)), n is Integer equal to or more than 0, l are equal to or greater than 4 integer, the k of instruction dispatch delay offset be equal to or greater than 0 it is whole Number, and N_SFIt is the quantity of multiple subframes.

Here it is possible to by higher level signaling from base station receive for activate uplink permit receive capabilities please It asks.

Here it is possible to the maximum quantity of subframe dispatched by uplink license is received from base station by higher level signaling.

Here, it can be continuous in the time domain by multiple subframes of uplink license scheduling.

Here, uplink license can include k, N_SFAt least one of with i, and i indicate it is every in multiple subframes The index of one subframe, be 0,1 ..., (N_SF- 1) one in.

Here, uplink permits to include：The physical uplink chain being included in each subframe in multiple subframes The starting position of channel (PUSCH) is shared on road or the start bit of PUSCH in the first subframe for being included in multiple subframes It puts.

Here, multiple single-carrier frequency division multiple access (SC-FDMA) symbol that starting position can be included in subframe is worked as In SC-FDMA symbol #0, SC-FDMA symbols #0 in specific time or SC-FDMA symbols #1.

Here, uplink license can include the end position of each subframe in multiple subframes or multiple sons The end position of the last one subframe in frame.

Here, end position can be included in the last one SC- in multiple SC-FDMA symbols in subframe SC-FDMA symbols before FDMA symbols either the last one SC-FDMA symbol.

Here, uplink license can be included in the channel access process that sends and will be performed before multiple subframes by terminal Type.

Here, when type indicate Class1 when, when channel status be determined to be in idle state reach in competition window When keeping out of the way the corresponding period of selection, multiple subframes can be sent.

Here it is possible to competition window is changeably set according to channel access priority.

Here, when type indicates type 2, when channel status is determined to be in idle state up to the preconfigured period When, multiple subframes can be sent.

Here, uplink license can include public field and independent field, and public field can include being provided commonly for The information of multiple subframes, and individually each independent field in field can be included for each height in multiple subframes The different information of frame.

Here, uplink license can be included for the new data indicator of each subframe in multiple subframes (NDI) and redundancy versions (RV).

Here, uplink license can include the hybrid automatic repeat-request (HARQ) of the first subframe in multiple subframes Process number (process number), and can be determined according to the increase of the HARQ process numbers and subframe numbers of the first subframe more At least one HARQ process numbers of at least one remaining subframe in a subframe in addition to the first subframe.

Here, uplink license can include instruction wherein transmission detection reference signal (sounding reference Signal, SRS) subframe subframe numbers SRS indexes.

To achieve the above object, the operating method of the base station in communication network according to another embodiment of the present disclosure can be with Including：Generate uplink license；Include the down link control information of uplink license to terminal transmission by subframe #n (DCI)；And it is received from terminal by multiple subframes of uplink license scheduling.Multiple subframes include subframe # (n+l+k) to # (n+l+k+(N_SF- 1)), n is equal to or greater than 0 integer, and l is equal to or greater than 4 integer, the k of instruction dispatch delay offset It is equal to or greater than 0 integer, and N_SFIt is the quantity of multiple subframes.

Here it is possible to by higher level signaling to terminal send for activate uplink permit receive capabilities please It asks.

Here it is possible to the maximum quantity of subframe dispatched by uplink license is sent to terminal by higher level signaling.

Here, it when type indicates Class1, is reached when channel status is determined to be in idle state corresponding in contention window During the period kept out of the way selected in mouthful, multiple subframes can be received from terminal.

Here, when type indicates type 2, when channel status is determined to be in idle state up to the preconfigured period When, multiple subframes can be received from terminal.

Here, uplink license can include for the new data indicator of each (NDI) in multiple subframes and Redundancy versions (RV).

Here, uplink license can include the hybrid automatic repeat-request (HARQ) of the first subframe in multiple subframes Process number, and can be determined in multiple subframes except first according to the increase of the HARQ process numbers and subframe numbers of the first subframe At least one HARQ process numbers of at least one remaining subframe except subframe.

Here, uplink license can include the detection reference signal of the instruction wherein subframe numbers of the subframe of transmission SRS (SRS) it indexes.

Advantageous effect

It is adjusted according to the present invention it is possible to be effectively carried out uplink in the communication network for supporting unlicensed band and send Degree, so as to improve uplink transmitting efficiency.Therefore, the performance of communication network can be improved.

Description of the drawings

Fig. 1 is the concept map for the first embodiment for showing cordless communication network.

Fig. 2 is the concept map for the second embodiment for showing cordless communication network.

Fig. 3 is the concept map for the 3rd embodiment for showing cordless communication network.

Fig. 4 is the concept map for the fourth embodiment for showing cordless communication network.

Fig. 5 is the block diagram for showing to form the embodiment of the communication node of cordless communication network.

Fig. 6 is the concept map for the embodiment for showing Class1 frame.

Fig. 7 is the concept map for the embodiment for showing 2 frame of type.

Fig. 8 is the concept map of the embodiment for the resource grid for showing to be included in the time slot in downlink subframe.

Fig. 9 is the concept map of the embodiment for the resource grid for showing to be included in the time slot in uplink subframe；

Figure 10 is the concept map for the embodiment for showing uplink subframe configuration；

Figure 11 is the flow chart for the embodiment for showing the communication means based on variable sub-frame configuration；

Figure 12 is the concept map for the embodiment for showing the radio frames (radio frame) in unlicensed band；

Figure 13 is the sequence chart of the first embodiment for the method for showing to send for scheduling uplink in a communication network.

Figure 14 is the concept map of the first embodiment for the subframe for showing scheduling in a communication network.

Figure 15 is the concept map of the second embodiment for the subframe for showing scheduling in a communication network.

Figure 16 is the sequence chart of the second embodiment for the method for showing to send for scheduling uplink in a communication network.

Figure 17 is the concept map of the 3rd embodiment for the subframe for showing scheduling in a communication network.

Figure 18 is the concept map of the first embodiment for the starting position for showing uplink subframe；

Figure 19 is the concept map of the second embodiment for the starting position for showing uplink subframe；

Figure 20 is the concept map of the 3rd embodiment for the starting position for showing uplink subframe；

Figure 21 is the concept map of the fourth embodiment for the starting position for showing uplink subframe；

Figure 22 is the concept map of the first embodiment for the end position for showing uplink subframe；And

Figure 23 is the concept map of the second embodiment for the end position for showing uplink subframe.

Specific embodiment

Disclosed herein is embodiment of the disclosure.However, in order to describe implementation of the disclosure the purpose of example, it is disclosed herein Specific structure and function details are only representative, however, embodiment of the disclosure can be specifically real with many alternative forms It applies, and should not be construed as being limited to embodiment of the disclosure set forth herein.

Therefore, although the disclosure is easy to various modifications and alternative form, its specific embodiment in the accompanying drawings with Exemplary mode is shown, and will be described in detail herein.It should be understood, however, that it is not intended to the disclosure being limited to institute Disclosed particular form, but on the contrary, the disclosure will cover all modifications, the equivalent fallen into spirit and scope of the present disclosure And alternative solution.Through the description of attached drawing, identical number refers to identical element.

It should be understood that although term first, second etc. may be used herein to describe various elements, these elements are not It should be limited by these terms.These terms are only used to distinguish an element and another element.For example, first element can be with It is referred to as second element, and similarly, second element can be referred to as first element, without departing from the scope of the present disclosure.Such as Used herein above, term "and/or" includes any and all combination of one or more associated listed projects.

It will be appreciated that when an element is said to be " connected " or " coupled " to another element, can be directly connected to or coupling It closes another element or there may be intermediary element.On the contrary, when element is referred to as " being directly connected " or " directly coupled " to another During one element, then there is no intermediary elements.Other words for describing the relationship between element should be explained in a similar way (that is, " ... between " and " between directly existing ... ", " adjacent " and " direct neighbor " etc.).

Term used herein is used only for the purpose of describing specific embodiments, and is not intended to limit the disclosure.Such as institute here It uses, unless the context clearly indicates otherwise, otherwise singulative " one ", "one" and " described " are also intended to including plural shape Formula.It will be further appreciated that when used herein, term "comprising", " containing ", " comprising " and/or " including " indicate The feature, entirety, step, operation, the presence of element and/or component, but presence or additional one or more is not precluded Other features, entirety, step, operation, element, component and/or a combination thereof.

Unless otherwise defined, otherwise all terms (including technical terms and scientific terms) used herein have and this public affairs Open the identical meaning of the normally understood meaning of those of ordinary skill in the art.It is to be further understood that such as logical Those terms defined in the dictionary often used should be interpreted as having and its meaning one in the contexts of the association area The meaning of cause, and except being non-clearly so defined, otherwise will not by idealization or excessively in the form of meaning understand.

Hereinafter, embodiment of the disclosure is more fully described with reference to the accompanying drawings.In order to convenient when describing the disclosure Overall understanding, identical component is presented with like reference characters in attached drawing, and will omit to its repetitive description.

Hereinafter, cordless communication network according to the exemplary embodiment of the disclosure will be described.However, according to the disclosure The cordless communication network applied of exemplary embodiment be not limited to the content being described below.That is, the example according to the disclosure Property embodiment can be applied to various cordless communication networks.

With reference to figure 1, first base station 110 can support that the honeycomb in third generation partner program (3GPP) Plays leads to Letter (for example, long term evolution (LTE), advanced LTE (LTE-A), mandate auxiliary access (LAA) etc.).First base station 110 can be supported It is multiple-input and multiple-output (MIMO) (for example, single user (SU)-MIMO, multi-user (MU)-MIMO, extensive MIMO etc.), more The technologies such as point cooperation transmission/reception (CoMP), carrier aggregation (CA).First base station 110 can operate in authorized frequency bands (F1), And form macrocell.First base station 100 can be connected to other bases by ideal return link or nonideal return link It stands (for example, the second base station 120, third base station 130 etc.).

Second base station 120 can be located in the coverage area of first base station 110.Moreover, the second base station 120 can also be non- It is operated in authorized frequency bands F3, and forms small cell (small cell).Third base station 130 can also be located at first base station 110 Coverage area in.Third base station 130 can operate, and form small cell in unlicensed band F3.Second base station, 120 He The wireless local that can each support 802.11 Plays of Institute of Electrical and Electric Engineers (IEEE) in third base station 130 Net (WLAN).The each user equipment (UE) for being connected to first base station 110 can be by using authorized frequency bands F1 and unauthorized frequency CA with F3 sends and receives signal.

With reference to figure 2, in 210 and second base station 220 of first base station each of can support cellular communication (for example, LTE, LTE-A, LAA etc.).Each in 210 and second base station 220 of first base station can support MIMO (such as SU-MIMO, MU- MIMO, extensive MIMO etc.), CoMP, CA etc..In addition, each in base station 210 and 220 can be grasped in authorized frequency bands F1 Make, and form each small cell.Each in base station 210 and 220 can be positioned at the covering model for the base station for forming macrocell In enclosing.First base station 210 can be connect by ideal return link or nonideal return link with third base station 230.Separately Outside, the second base station 220 can be connect by ideal return link or nonideal return link with the 4th base station 240.

Third base station 230 can be located in the coverage area of first base station 210.It third base station 230 can be in unauthorized frequency It is operated, and form small cell in band F3.4th base station 240 can be located in the coverage area of the second base station 220.4th base station 240 can operate, and form small cell in unlicensed band F3.Each in base station 230 and 240 can be supported The WLAN of 802.11 Plays of IEEE.First base station 210, the UE for being connected to first base station 210, the second base station 220 and connection To each in the UE of the second base station 220 by the way that the CA of authorized frequency bands F1 and unlicensed band F3 can be used to send and connect The collection of letters number.

With reference to figure 3, each in first base station 310, the second base station 320 and third base station 330 can support honeycomb It communicates (for example, LTE, LTE-A, LAA etc.).Each in first base station 310, the second base station 320 and third base station 330 can To support MIMO (for example, SU-MIMO, MU-MIMO, extensive MIMO etc.), CoMP, CA etc..First base station 310 can authorize It is operated in frequency band F1, and forms macrocell.First base station 310 can pass through ideal return link or nonideal return link It is connected to other base stations (for example, the second base station 320, third base station 330 etc.).Second base station 320 can be located at first base station 310 Coverage area in.Second base station 320 can operate, and form small cell in authorized frequency bands F1.Third base station 330 can be with In the coverage area of first base station 310.Third base station 330 can operate, and form small cell in authorized frequency bands F1.

Second base station 320 can be connect by ideal return link or nonideal return link with the 4th base station 340. 4th base station 340 can be located in the coverage area of the second base station 320.4th base station 340 can grasp in unlicensed band F3 Make, and form small cell.Third base station 330 can pass through ideal return link or nonideal return link and the 5th base Stand 350 connection.5th base station 350 can be located in the coverage area of third base station 330.5th base station 350 can be unauthorized It is operated in frequency band F3, and forms small cell.Each in base station 340 and 350 can support 802.11 Plays of IEEE The WLAN of change.

First base station 310, the second base station 320, is connected to the second base station at the UE (not shown) for being connected to first base station 310 320 UE (not shown), third base station 330 and be connected in the UE (not shown) of third base station 330 each can lead to It crosses and is sent and received signal using the CA of authorized frequency bands F1 and unlicensed band F3.

With reference to figure 4, each in first base station 410, the second base station 420 and third base station 430 can support honeycomb It communicates (for example, LTE, LTE-A, LAA etc.).Each in first base station 410, the second base station 420 and third base station 430 can To support MIMO (such as SU-MIMO, MU-MIMO, extensive MIMO etc.), CoMP, CA etc..First base station 410 can authorize It is operated in frequency band F1, and forms macrocell.First base station 410 can pass through ideal return link or nonideal return link It is connected to other base stations (for example, the second base station 420, third base station 430 etc.).Second base station 420 can be located at first base station 410 Coverage area in.Second base station 420 can operate, and form small cell in authorized frequency bands F2.Third base station 430 can be with In the coverage area of first base station 410.Third base station 430 can operate, and form small cell in authorized frequency bands F2. Each in second base station 420 and third base station 430 can be in the authorized frequency bands F1 where being operated with first base station 410 not It is operated in same authorized frequency bands F2.

Second base station 420 can be connect by ideal return link or nonideal return link with the 4th base station 440. 4th base station 440 can be located in the coverage area of the second base station 420.4th base station 440 can grasp in unlicensed band F3 Make, and form small cell.Third base station 430 can pass through ideal return link or nonideal return link and the 5th base Stand 450 connection.5th base station 450 can be located in the coverage area of third base station 430.5th base station 450 can be unauthorized It is operated in frequency band F3, and forms small cell.Each in base station 440 and 450 can be supported to get the bid in IEEE 802.11 The WLAN of standardization.

First base station 410 and be connected in the UE (not shown) of first base station 410 each can be by using awarding The CA of power frequency band F1 and unlicensed band F3 sends and receives signal.Second base station 420 is connected to the UE of the second base station 420 (not Show), third base station 430 and be connected in the UE (not shown) of third base station 430 each can be by using mandate The CA of frequency band F2 and unlicensed band F3 send and receive signal.

The above-mentioned communication node for forming cordless communication network (for example, base station, UE etc.) can be according to listem-before-talk (LBT) mistake Journey sends signal in unlicensed band.That is, communication node can be unauthorized to determine by performing energy measuring operation Whether frequency band is occupied.When unlicensed band is confirmed as idle state, communication node can send signal.Here, in root During competition window according to random back operation, when unlicensed band is maintained idle state, communication nodes can be sent Signal.On the contrary, when unlicensed band is confirmed as busy state, then communication node cannot send signal.

Alternatively, communication entity can operate to send signal based on carrier sense Adaptive Transmission (CSAT).That is, Communication node can send signal based on the duty ratio of pre-configuration.It is the communication to support cellular communication in current duty ratio During the duty ratio of node distribution, communication node can send signal.On the contrary, current duty cycle be for support except cellular communication with During the duty ratio of the communication node distribution of outer other communications (for example, WALN when), communication node cannot transmit signal.It can be with Use state of quantity, unlicensed band based on the communication node that there is and support WLAN in unlicensed band etc. is come adaptive Determine duty ratio with answering.

Communication node can perform discontinuous transmission in unlicensed band.For example, it is configured with if it is unlicensed band Maximum sending duration or maximum channel holding time, then communication node can be in maximum sending duration or maximum channel Signal is sent during holding time.Communication node cannot current maximum sending duration (or maximum channel occupy when Between) during send entire signal in the case of, communication node can send remaining in next maximum sending duration Signal.In addition, communication node can select the carrier wave with relatively small interference in unlicensed band, and selected It is operated in carrier wave.In addition, in the case where communication node sends signal in unlicensed band, transmission power can be controlled to subtract Few interference to other communication nodes.

On the other hand, communication node can be supported based on CDMA (CDMA), wideband CDMA (WCDMA), time division multiple acess (TDMA), frequency division multiple access (FDMA), Single Carrier Frequency Division Multiple Access (SC-FDMA), Orthogonal Frequency Division Multiplexing (OFDM) or Orthogonal Frequency Division Multiple Access (OFDMA) communication protocol.

Base station in communication node can be referred to as node B (NB), evolved node B (eNB), base station transceiver (BTS), Radio base station, radio transceiver, access point (AP) or access node.In addition, the user equipment (UE) in communication node can To be referred to as terminal, access terminal, mobile terminal, stand, subscriber station, portable subscriber station, movement station, node or equipment.Communication Node can have the structure that will be described below.

With reference to figure 5, communication node 500 can include at least one processor 510, memory (memory) 520 and connection To network and perform the transceiver 530 of communication.In addition, communication node 500 can include input interface unit 540, output interface Unit 550 and reservoir (storage) 560.Being included in the various components in communication node 500 can connect via bus 570 To be in communication with each other.

Processor 510 can perform the program command being stored in memory 520 and/or reservoir 560.Processor 510 Can be central processing unit (CPU), graphics processing unit (GPU) or application specific processor, side according to an embodiment of the present disclosure Method performs wherein.Memory 520 and reservoir 560 can include volatile storage medium and/or non-volatile memory medium. For example, memory 520 can include read-only memory (ROM) and/or random access memory (RAM).

The operating method of the communication node in cordless communication network is described below.Although it will describe by the first communication node The method (for example, signal sends or receives) of execution, but the second corresponding communication node can be performed with being led to by first Believe the corresponding method of method (for example, signal is received or sent) that node performs.That is, when the operation for describing UE, Corresponding base station can perform the corresponding operation of operation with UE.On the contrary, when the operation for describing base station, UE can be performed Operation corresponding with the operation of base station.

Meanwhile carrier aggregation can be applied at least one of unlicensed band cell and authorized frequency bands cell It is at least one.Can by wireless heterogeneous networks (RRC) signaling (for example, ' RRCConnectionReconfiguration' disappears Breath (hereinafter, being referred to as " RRC information ")) send and receive)) perform the configuration of unlicensed band cell, add, repair Change or discharge.RRC information can be sent to UE by authorized frequency bands cell, and can include management and operate described unauthorized Band cells required information.

Different from authorized frequency bands cell, the period that signal can be continuously transmitted in unlicensed band cell can be limited System is in maximum sending duration.In addition, when sending signal based on LBT, it can be in the transmission for completing another communication node When send the signal.In the case that LTE (or LTE-A) services are provided in unlicensed band cell, LTE (or LTE-A) is supported Communication node send can have aperiodicity, discontinuity, the characteristic of opportunistic.Based on these characteristics, by supporting The signal that the communication node of LTE (or LTE-A) is continuously transmitted in unlicensed band up to certain period of time can be referred to as " non-to award Weigh frequency band burst (burst) ".

In addition, by the channel defined in authorized frequency bands (for example, physical control format indicator channel (PCFICH), object Manage hybrid automatic repeat-request (ARQ) indicator channel (PHICH), physical downlink control channel (PDCCH), physical multicast Channel (PMCH), physical uplink control channel (PUCCH), physical uplink shared channel (PUSCH) etc.) and signal The continuous subframes set of the combination composition of at least one of (for example, synchronizing signal, reference signal etc.) can be in unauthorized frequency Take transmission.In this case, the transmission of subframe can be referred to as " unlicensed band transmission ".

For the transmission in unlicensed band frame can be classified as downlink (DL) unlicensed band burst frame, Uplink (UL) unlicensed band burst frame and UL/DL unlicensed band burst frames.DL unlicensed bands burst frame can be with Including the subframe that application unlicensed band is sent, and " unlicensed band signal " can also be included.It dashes forward in DL unlicensed bands It sends out in frame, unlicensed band signal can be located at before the subframe sent using unlicensed band.The unlicensed band signal can be with The sequential (timing) (or sequential of OFDM symbol) for the subframe for sending application unlicensed band is configured as with authorizing frequency The sequential (or sequential of OFDM symbol) of subframe in band matches.Also, unlicensed band signal can be used for based on non- Automatic growth control (AGC), synchronous acquisition, channel estimation needed for the reception for the data that authorized frequency bands are sent etc..

Meanwhile cellular communications networks (for example, LTE network) can support frequency division duplex (FDD) or time division duplex (TDD). Frame based on FDD can be defined as Class1 frame, and the frame based on TDD can be defined as 2 frame of type.

Fig. 6 is the concept map for the embodiment for showing Class1 frame.

With reference to figure 6, radio frames 600 can include 10 subframes, and each subframe can include two time slots (slot). Therefore, radio frames 600 can include 20 time slots (such as time slot #0, time slot #1, time slot #2, time slot #3 ..., time slot #18, when Gap #19).Length (the T of radio frames 600_f) can be 10 milliseconds (ms).Moreover, the length of each subframe can be 1ms.Moreover, Length (the T of each time slot_slot) can be 0.5ms.Here, T_sIt can be 1/30,720,000 second.

Each time slot can include multiple OFDM symbols in time domain, and including multiple resource blocks (RB) in frequency domain. Each resource block can include multiple subcarriers in frequency domain.The quantity for forming the OFDM symbol of each time slot can be according to cycle The configuration of prefix (CP) determines.CP can be classified as to conventional CP and extension CP.If using routine CP, each time slot can To include 7 OFDM symbols, and each subframe can include 14 OFDM symbols.If using extension CP, each time slot It can include 6 OFDM symbols, and each subframe can include 12 OFDM symbols.

Fig. 7 is the concept map for the exemplary embodiment for showing 2 frame of type.

With reference to figure 7, radio frames 700 can include two fields, and each field can include 5 subframes.Therefore, nothing Line frame 700 can include 10 subframes.Length (the T of radio frames 700_f) can be 10ms, and the length of each field can be with It is 5ms.The length of each subframe can be 1ms.Here, T_sIt can be 1/30,720,000 second.

Radio frames 700 can include at least one downlink subframe, at least one uplink subframe and at least one Special subframe.Each in downlink subframe and uplink subframe can include two time slots.The length of each time slot (T_slot) can be 0.5ms.Each formed in the subframe #1 and subframe #6 in the subframe of radio frames 700 can be special son Frame.Each special subframe can include down link pilot timeslot (DwPTS), protective time slot (GP) and uplink pilot time slot (UpPTS)。

It is included in downlink subframe, the quantity of uplink subframe and special subframe and position in radio frames 700 It can vary depending on.Can " the uplink for being included in 10 subframes in radio frames 700 be set based on table 1 Link-downlink (UL-DL) is configured ".In table 1, " D " can indicate uplink with indicating downlink link subframe, " U " Subframe, and " S " can indicate special subframe.

[table 1]

DwPTS, which may be considered that, to be included in down link period, and can be used for UE cell searchings, time and frequency Rate synchronizes acquisition etc..PDSCH, PDCCH, primary synchronization signal (PSS), reference signal etc. can in DwPTS with general downlink chain Way frame is sent same or likely.

GP can be used for solving the interference problem that the uplink data as caused by postponing downlink data receipt is sent. Also, GP can include being switched to the time needed for uplink data transmission operation from downlink data receipt operation. UpPTS, which may be considered that, to be included in uplink period, and can be used for uplink channel estimation, time and frequency Synchronous acquisition etc..Physical Random Access Channel (PRACH), detection reference signal (SRS) etc. can be sent in UpPTS.

The length of DwPTS, GP and UpPTS for being included in special subframe can be variably adjusted as needed.Table 2 can Be special subframe configuration embodiment (for example, configuration of DwPTS and UpPTS).It is arranged in the subframe of the length with 1ms Except the period of DwPTS and UpPTS can be set to GP.In table 2, T_sIt can be basal latency unit and can be set For 1/ (15000 × 2048) second.

[table 2]

Following table 3 can be the downlink and uplink that normal CP is used in the special subframe configuration of table 2 The configuration of special subframe in the case of the two.Described in " DwPTS " field, " GP " field and " UpPTS " field in table 3 Quantity can be with indicator to the quantity of the OFDM symbol of each field.If for example, subframe include 14 OFDM symbols and Using " special subframe, which is matched, to be set to 0 " in table 3, then special subframe can include the DwPTS comprising 3 OFDM symbols, include 10 The GP of the OFDM symbol and UpPTS for including 1 OFDM symbol.

[table 3]

It can indicate that OFDM symbol indexes, and k can indicate sub-carrier indices with reference to figure 8,1.It can indicate down The quantity of resource block in line link.It can be with the number of the OFDM symbol in indicating downlink chain time gap (or resource block) Amount.It can indicate the quantity of resource subcarrier in the block.

When using common CP, it is included in each resource block of the time slot in downlink subframe or uplink subframe (RB) 12 subcarriers in 7 OFDM symbols and frequency domain in time domain can be included.In this case, by the list in time domain The resource that single sub-carrier in a OFDM symbol and frequency domain defines can be referred to as resource element (RE).

In the downlink of cellular communications networks (for example, LTE network) is sent, it can be performed as unit of RB and be directed to UE Resource distribution, and the mapping of reference signal and synchronizing signal can be performed as unit of RE.

Fig. 9 is the concept map of the embodiment for the resource grid for showing to be included in the time slot in uplink subframe.

Single-carrier frequency division multiple access (SC-FDMA) symbol index can be indicated with reference to figure 9,1, and k can indicate subcarrier Index.It can indicate the quantity of the resource block in uplink.It can indicate uplink time slot (or resource Block) in SC-FDMA symbols quantity.It can indicate the quantity of resource subcarrier in the block.

When using normal CP, being included in the resource block in uplink subframe can be including 7 SC- in time domain 12 subcarriers in FDMA symbols and frequency domain.In this case, by the single SC-FDMA symbols and frequency domain in time domain The resource that single sub-carrier defines can be referred to as resource element (RE).

Figure 10 is the concept map for the embodiment for showing uplink subframe configuration.

With reference to figure 10, when using normal CP, uplink subframe can include 14 SC-FDMA symbols.Uplink Subframe can include PUCCH, PUSCH, demodulated reference signal (DMRS), SRS etc..For demodulate the DMRS of PUCCH and SRS, with And PUCCH can be sent by the fringe region of the frequency domain of uplink subframe.Distribute to for demodulate PUCCH DMRS and The resource of SRS and PUCCH is (for example, the quantity of resource block, the quantity of SC-FDMA symbols, the position of frequency resource and time The position of resource) it can be changed according to system configuration.

It can be by unassigned in uplink subframe for demodulating DMRS, SRS of PUSCH etc. and PUSCH The resource (for example, resource block) of PUCCH is sent.For example, for each time slot intermediate SC-FDMA symbols (for example, when The SC-FDMA symbol #3 in SC-FDMA symbols #3, time slot #1 in gap #0) in be configured to demodulation PUSCH DMRS.It can be with The configuration SRS in the last one SC-FDMA symbol (for example, SC-FDMA symbol #6 in time slot #1) of subframe.If when In the SC-FDMA symbols #6 of gap #1 without configuration SRS, then can by the SC-FDMA symbols #6 of time slot #1 come send PUCCH and PUSCH。

Hereinafter, description is performed into downlink communication and uplink wherein in the same frequency band of unlicensed band The frame (for example, radio frames, subframe) of communication.Supporting the FDD communication networks of authorized frequency bands (for example, the communication based on Class1 frame Network) in, can downlink communication and uplink communication be performed according to frequency band, but regardless of subframe numbers how.Under for example, Communications uplink can be performed by the radio frames (for example, subframe #0 to #9) in downlink band (for example, frequency band #1), And uplink communication can be by radio frames in uplink band (for example, frequency band #2) (for example, subframe #0 is to son Frame #9) it performs.

It, can be according to UL- in the TDD communication networks (for example, communication network based on 2 frame of type) for supporting authorized frequency bands DL configurations perform uplink communication, and can be configured according to UL-DL and pass through downlink by uplink subframe Frame performs downlink communication.For example, when using the UL-DL of table 1 with setting to 0, can be performed by subframe #0 and subframe #5 Downlink communication, and can uplink communication be performed by subframe #2 to subframe #4 and subframe #7 to subframe #9.

Simultaneously as unlicensed band can be shared by a plurality of users, so being difficult to make based on the UL-DL configurations in table 1 With fixed uplink subframe and fixed downlink subframe.Therefore, in the communication network for supporting unlicensed band, on Uplink subframe and downlink subframe can be changeably configured.

Figure 11 is the flow chart for the embodiment for showing the communication means based on variable sub-frame configuration.

With reference to figure 11, base station can be the base station shown in Fig. 1 to Fig. 4, and terminal may be coupled to base station.Base station and end Each in end can support cellular communication (for example, LTE, LTE-A, LAA, eLAA for defining in the 3 gpp standards etc.) and It is operated in unlicensed band and authorized frequency bands.Also, each in base station and terminal can be with the communication section that is shown in Fig. 5 Point 500 is same or similar.

Base station can check channel (for example, unlicensed band) by performing channel access process (for example, LBT processes) State (S1100).For example, base station can select backoff counter and can identify to keep out of the way meter with selected in competition window The channel status (for example, sensing the channel) of number device corresponding period.Alternatively, base station can identify predetermined period (example Such as, 25 μ s or (25+ Timing Advances (timing advance, TA)) μ s) channel status (for example, sensing the channel).

If it is determined that channel status is idle state, then base station can be configured including uplink subframe, downlink The radio frames (S1110) of at least one of frame and special subframe.The length of radio frames can be set to be less than default maximum Length.Default maximum length can be 10ms.In radio frames, uplink subframe, downlink subframe and special subframe Quantity can be changeably configured respectively.It can be as follows by the radio frames that base station is configured in unlicensed band.

Figure 12 is the concept map for the embodiment for showing the radio frames in unlicensed band.

With reference to figure 12, non-awarded since subframe #0 to #2 of the channel status in the radio frames #0 with authorized frequency bands is corresponding It is busy state to weigh in the frequency band period, so base station can be configured wirelessly after the busy state in the unlicensed band period Frame.If the length that preset maximum length is 10ms and subframe is 1ms, base station can be configured including 10 or more The radio frames of few subframe.For example, radio frames can include five downlink subframes, a special subframe and four uplinks Subframe.

Referring again to Figure 11, base station can perform communication (S1120) by the radio frames being configured.For example, base station can lead to The downlink subframe crossed in unlicensed band performs downlink communication, and pass through the uplink subframe in authorized frequency bands and hold Row uplink communication.

Hereinafter, will the uplink scheduling side in the communication network of authorized frequency bands and unlicensed band is supported be described Method.Here, uplink subframe can include PUSCH.For example, it can be wrapped by the uplink subframe of uplink license scheduling Include PUSCH.Uplink license can be classified as single uplink license and the license of more uplinks.Single uplink license Can be for dispatching the license of the uplink of single uplink subframe (for example, PUSCH).More uplinks are permitted For dispatching the license of the uplink of multiple uplink subframes (for example, PUSCH).

Dispatching method based on the license of single uplink can be as follows.

Figure 13 is the sequence chart of the first embodiment for the method for showing to send for scheduling uplink in a communication network, And Figure 14 is the concept map of the first embodiment for the subframe for showing scheduling in a communication network.

With reference to Figure 13 and 14, base station can be the base station shown in Fig. 1 to Fig. 4, and terminal may be coupled to base station.Base Standing can support cellular communication (for example, LTE, LTE-A, LAA, eLAA for defining in the 3 gpp standards with each in terminal Deng) and operated in unlicensed band and authorized frequency bands.Also, each in base station and terminal can be with showing in Fig. 5 Communication node 500 it is same or similar.

Single uplink license (S1300) can be configured in base station.For example, when receiving request uplink scheduling from terminal Message when, the license of single uplink can be configured in base station.Single uplink license can be included in the parameter described in table 4 It is at least one.Also, single uplink license can also include parameter and the parameter described in table 4.

[table 4]

Base station can send the down link control information (DCI) (S1310) permitted including single uplink.It can pass through At least one of PDCCH and enhanced PDCCH (EPDCCH) send DCI.DCI including the license of single uplink can lead to Subframe #n is crossed to send, and single uplink license can be with the transmission of scheduling subframe # (n+l).N can be equal to or greater than zero Integer.L can be preset in base station and terminal.It base station can be by higher level signaling (for example, RRC signaling) to terminal notification 1.L can be equal to or greater than 4 integer.For example, the single uplink license sent by subframe #0 can be with scheduling subframe #4 Transmission, and sent by subframe #1 single uplink license can be with the transmission of scheduling subframe #5.

Terminal can obtain DCI, and can identify and be included in by monitoring (or detection) PDCCH and EPDCCH Single uplink license (S1320) in DCI.Terminal can be identified based on the parameter in single uplink license is included in The transmission of subframe # (n+l) is scheduled, and subframe # (n+ are configured based on being included in the parameter in the license of single uplink l).Subframe # (n+l) can be sent to base station (S1330) by terminal.For example, terminal can will be by being received by subframe #0 The subframe #4 of single uplink license scheduling is sent to base station, and will be permitted by the single uplink received by subframe #1 The subframe #5 of scheduling is sent to base station.

Base station can be based on being included in single uplink license (for example, being permitted via the subframe #n single uplinks sent Can) in parameter from terminal receive subframe # (n+l).For example, base station can be based on being included on the list sent by subframe #0 Parameter in line link license receives subframe #4 from terminal, and can be based on being included in single uplink for being sent by subframe #1 Parameter in link license receives subframe #5 from terminal.

Meanwhile pre-setting the sending time of uplink license and the uplink by uplink license scheduling In the case of interval between the sending time of subframe, the transmission of uplink license can be in preset interval with one-to-one Mode and the transmission of uplink subframe match.When using from carrier wave scheduling scheme, uplink license transmission and It can be by same carrier wave (that is, identical in TDD communication networks by the transmission of the uplink subframe of uplink license scheduling Carrier wave) or pairs of carrier wave (that is, a pair of of carrier wave in FDD communication networks) perform.When using cross-carrier scheduling scheme, The carrier wave of uplink license is sent by it and can be different from the uplink dispatched by its transmission by uplink license The carrier wave of subframe.Cross-carrier scheduling scheme can be used in the communication network for supporting carrier aggregation.

In the FDD communication networks for supporting authorized frequency bands, due to downlink carrier and uplink carrier separate configuration, So the transmission of uplink license can match with the transmission of uplink subframe in a manner of one-to-one.Also, it is propping up It holds in the TDD communication networks of authorized frequency bands, has pre-defined " UL-DL sub-frame configurations " due to being based on table 1, uplink is permitted Can transmission can match in a manner of one-to-one with the transmission of uplink subframe.

On the other hand, in the communication network for supporting unlicensed band, due to channel use it is uncertain, variable upper Line link-downlink subframe configurations etc., sending for uplink license can be with the uplink by uplink license scheduling The transmission of way frame dynamically matches.When use is from carrier wave scheduling scheme in the communication network for supporting unlicensed band, Variable uplink-downlink sub-frame configuration may be difficult.For example, if the quantity of downlink subframe is less than packet Include the quantity of the uplink subframe in the subframe burst (or radio frames) of multiple subframes, then it may the conventional uplink of limitation The use of dispatching method.

Next, by the dispatching method permitted based on more uplinks is described.Can be based on from carrier wave scheduling scheme or Cross-carrier scheduling scheme performs following dispatching method.

With reference to figure 15, in unlicensed band, radio frames can include 10 subframes.For example, radio frames can include six A uplink subframe, three downlink subframes and a special subframe.Base station can be generated for scheduling uplink More uplinks license of frame #4 to #6, and permitted by subframe #0 to send more uplinks of generation.

Meanwhile in multiple uplink subframes by the license scheduling of more uplinks, the first uplink in time domain Subframe can be referred to as " starting uplink subframe ".For example, uplink subframe #4 can start uplink subframe. In multiple uplink subframes by the license scheduling of more uplinks, the last one uplink subframe in time domain can be claimed For " terminating uplink subframe ".For example, uplink subframe #6 can terminate uplink subframe.

More uplink licenses can be classified as " more uplink license types 1 " and " more uplink license types 2”。

1) more uplink license types 1

It, can be with each in the multiple uplink subframes of configuration schedules when using more uplink license types 1 More uplink licenses.For example, may be configured to more uplinks license A of scheduling uplink subframe #4, can be configured More uplinks for scheduling uplink subframe #5 permit B and may be configured to scheduling uplink subframe #6's More uplinks permit C.In this case, each in more uplink license A, B and C can be included in different In DCI.For example, more uplinks license A can be included in the first DCI, more uplinks license B can be included in the In two DCI, and more uplinks license C can be included in the 3rd DCI.Also, in more uplink license A, B and C Each can be scrambled (), and by identical based on identical radio network temporary identifier (RNTI) Subframe #0 is sent.

2) more uplink license types 2

It, can be with more uplinks of the multiple uplink subframes of configuration schedules when using more uplink license types 2 License.More uplink licenses can include a public field and multiple independent fields.For example, the license of more uplinks can be with Including being used for the public field of uplink subframe #4 to #6, for the independent field A of uplink subframe #4, for uplink The independent field B of the way frame #5 and independent field C for uplink subframe #6.

Public field can be included at least one parameter being used in conjunction in multiple uplink subframes.It is for example, public Field can include the resource block assignment information for uplink subframe #4 to #6, MCS, transmission power control (TPC) order Deng.Independent field can be configured for each in multiple uplink subframes and can be including for multiple uplinks The different parameters of each in way frame.For example, individually each in field A, B and C can include HARQ process numbers, RV, NDI etc..

Dispatching method based on above-mentioned subframe structure (for example, subframe structure shown in Figure 15) can be as follows.

With reference to figure 16, base station can be the base station shown in Fig. 1 to 4, and terminal may be coupled to base station.Base station and end Each in end can support cellular communication (for example, LTE, LTE-A, LAA, eLAA for defining in the 3 gpp standards etc.) and It is operated in unlicensed band and authorized frequency bands.Also, each in base station and terminal can be with the communication section that is shown in Fig. 5 Point 500 is same or similar.

Base station can be permitted to terminal notification more by higher level signaling (for example, RRC signaling) by more uplinks The scheduling (S1600) of the transmission of a uplink subframe.Under specific circumstances (for example, the quantity when uplink subframe is more than During the quantity of downlink subframe), the scheduling that the uplink based on the license of more uplinks is sent may be necessary, and Therefore such case can be directed to and perform step S1600.

Also, base station can be by higher level signaling (for example, RRC signaling) to the more uplink license types of terminal notification (for example, Class1 or type 2) can be permitted maximum quantity of uplink subframe of scheduling etc. by more uplinks.It can be by The maximum quantity of the uplink subframe of more uplink license scheduling can be referred to as " M_SF”。M_SFIt may be greater than or be equal to Zero integer.For example, M_SFCan be 4.

Terminal can identify that the transmission of multiple uplink subframes is by more by higher level signaling (for example, RRC signaling) Uplink permits to dispatch.In this case, terminal can activate the more uplinks for dispatching multiple uplink subframes The receive capabilities of road license.Also, terminal can identify that more uplinks are permitted by higher level signaling (for example, RRC signaling) Type (for example, Class1 or type 2), M_SFDeng.

Meanwhile if uplink is required to send, terminal can send request scheduling to the uplink of base station to base station The message (S1610) that road is sent.It is supported mostly for asking the message of scheduling that uplink is sent that can include instruction terminal The indicator of line link license, more uplink license types etc..When the scheduling sent from terminal request uplink, base station Can (S1620) be permitted with collocating uplink link.In the case where terminal supports more uplink licenses, base station may be configured to Dispatch more uplinks license of multiple uplink subframes.Also, base station can determine the type of more uplink licenses. In this case, base station can determine the type that more uplinks are permitted according to the request of terminal.

M can be equal to or less than by the quantity of the uplink subframe of more uplinks license scheduling_SF.By more uplinks The uplink subframe of license scheduling can be the continuous uplink subframe in time domain.For example, on continuous shown in Figure 15 Uplink subframe #2 to #7 can permit to dispatch by more uplinks.

More uplink licenses can be including at least one parameter described in table 4 and table 5.Also, more uplinks are permitted It can also include the parameter described in call parameter and table 4 and table 5.

[table 5]

In fig.15, when using " more uplink license types 1 ", it may be configured to scheduling uplink subframe #4 More uplinks license A, and more uplinks license A can be included in the parameter described in table 4 and table 5 at least one It is a.More uplinks license B of scheduling uplink subframe #5 is may be configured to, and more uplinks license B can be wrapped Include at least one of parameter described in table 4 and table 5.It may be configured to more uplinks of scheduling uplink subframe #6 C is permitted on road, and more uplinks license C can be including at least one of parameter described in table 4 and table 5.

In fig.15, when using " more uplink license types 2 ", can be configured including public field and it is multiple individually More uplinks license of field.Public field can include it is in the parameter described in table 4 and table 5, by UL subframe At least one parameter that frame #4 to #6 is used in conjunction with.Each in independent field can be including the parameter described in table 4 and table 5 In the middle, for the different parameters of each in uplink subframe #4 to #6.It may be configured to uplink subframe #4 Independent field A, may be configured to the independent field B of uplink subframe #5, and may be configured to UL subframe The independent field C of frame #6.For example, HARQ process numbers, RV, NDI, k, i, length letter in parameter described in table 4 and table 5 At least one of breath, channel access relevant information and SRS indexes can be included in each in independent field A, B and C In.In the parameter listed in table 4 and table 5, the rest parameter (example in addition at least one parameter that independent field includes Such as, MCS, resource block assignment information, TPC command etc.) public field can be included in.It is included in more uplink licenses The type of public field and the parameter in independent field is not limited to above-mentioned example, and can be configured differently.

It then, will be in description mostly when using " more uplink license types 1 " or " more uplink license types 2 " The embodiment of line link license.

■ HARQ process numbers

When using more uplink license types 1, HARQ process numbers can be included in more uplink licenses. In Figure 15, the HARQ process numbers of uplink subframe #4 can be included in more uplink license A, uplink subframe #5 HARQ process numbers can be included in more uplinks license B, and the HARQ process numbers of uplink subframe #6 can be with It is included in more uplink license C.Therefore, terminal can be based respectively on more uplink license A, B and C to identify uplink The HARQ process numbers of link subframe #4 to #6.

Alternatively, it is possible to by more uplinks permit A be only sent in by more uplinks license scheduling it is multiple on The HARQ process numbers of beginning uplink subframe (for example, uplink subframe #4) in uplink subframe, and in residue The HARQ process numbers of uplink subframe (for example, uplink subframe #5 and #6) can not be permitted by corresponding uplink (for example, more uplinks permit B and C) is sent.In this case, terminal can permit A to know based on more uplinks The HARQ process numbers of other uplink subframe #4, and use beginning uplink subframe (for example, uplink subframe #4) HARQ process numbers derive the HARQ process numbers of remaining uplink subframe (for example, uplink subframe #5 and #6).

HARQ process numbers can increase according to the increase of UL subframe frame number, and work as and permitted by more uplinks When the HARQ process numbers for the uplink subframe #4 that A is obtained are x, the HARQ process numbers that can derive uplink subframe #5 are (x + 1), and can derive uplink subframe #6 HARQ process numbers be (x+2).In this case, terminal can use table I described in 5 derives HARQ process numbers.When the maximum value of HARQ process numbers is y, terminal can use " x mod (complementation fortune Calculating) y " determines the HARQ process numbers of uplink subframe #4, using " (x+1) mod y " determine uplink subframe #5's HARQ process numbers, and " (x+2) mod y " is used to determine the HARQ process numbers of uplink subframe #6.Here, y can be It is preset in base station and terminal.For example, base station can be by higher level signaling (for example, RRC signaling) to terminal notification y, and y can To be 16.

Alternatively, it is possible to by more uplinks permit A come be sent in by more uplinks license scheduling it is multiple on The actual value of the HARQ process numbers of beginning uplink subframe (for example, uplink subframe #4) in uplink subframe, and And (for example, more uplinks permit B and C) can be permitted to send to starting UL subframe by corresponding more uplinks Offset (hereinafter referred to as " the H of the HARQ process numbers of frame (for example, uplink subframe #4)_off”).In this case, Terminal can use H_offWith the uplink subframe by multiple uplink subframes of more uplinks license scheduling The HARQ process numbers of (for example, uplink subframe #4) derive remaining subframe (for example, uplink subframe #5 and #6) HARQ process numbers.Here, H_offCan be set to 0,1,2 ..., N_SF-1。

As the H that the HARQ process numbers of uplink subframe #4 include for x and more uplinks license B_offIt, can when being 1 To derive the HARQ process numbers of uplink subframe #5 as (x+1).When the HARQ subframe numbers of uplink subframe #4 are x and more The H that uplink license C includes_offWhen being 2, the HARQ process numbers that can derive uplink subframe #6 are (x+2).It is another Aspect, when the maximum value of HARQ process numbers is y, terminal can use " x mod y " determine uplink subframe #4's HARQ process numbers use " (x+H_off(that is, 1)) mod y " determine the HARQ process numbers of uplink subframe #5, and use “(x+H_off(that is, 2)) mod y " determine the HARQ process numbers of uplink subframe #6.

When using more uplink license types 2, HARQ process numbers can be included in the list of more uplink licenses In only field.In fig.15, the HARQ process numbers of uplink subframe #4 can be included in the independent of more uplink licenses In field A, the HARQ process numbers of uplink subframe #5 can be included in the independent field B of more uplink licenses, and And the HARQ process numbers of uplink subframe #6 can be included in the independent field C of more uplink licenses.Therefore, terminal Independent field A, B and C can be based respectively on to identify the HARQ process numbers of uplink subframe #4 to #6.

Permit to dispatch by more uplinks alternatively, it is possible to only send by the independent field A that more uplinks are permitted Multiple uplink subframes in beginning uplink subframe (for example, uplink subframe #4) HARQ process numbers, and And the HARQ process numbers of remaining uplink subframe (for example, uplink subframe #5 and #6) can not pass through corresponding independent word Section (for example, individually field B and C) is sent.In this case, terminal can permit A to identify based on more uplinks The HARQ process numbers of uplink subframe #4, and use the HARQ for starting uplink subframe (for example, uplink subframe #4) Process number derives the HARQ process numbers of remaining uplink subframe (for example, uplink subframe #5 and #6).

HARQ process numbers can increase according to the increase of UL subframe frame number, and work as and permitted by more uplinks Independent field A (or public field) obtain uplink subframe #4 HARQ process numbers be x when, uplink can be derived The HARQ process numbers of subframe #5 are (x+1), and the HARQ process numbers that can derive uplink subframe #6 are (x+2).Meanwhile When the maximum value of HARQ process numbers is y, terminal can use " x mod y " to determine the HARQ processes of uplink subframe #4 Number, determine the HARQ process numbers of uplink subframe #5 using " (x+1) mod y ", and " (x+2) mod y " is used to determine The HARQ process numbers of uplink subframe #6.

Alternatively, it is possible to it is sent by independent field A (or public field) that more uplinks are permitted by more uplinks The beginning uplink subframe (for example, uplink subframe #4) in multiple uplink subframes that link license is dispatched The actual value of HARQ process numbers, and can be permitted by more uplinks corresponding independent field (for example, individually field A, B and C) come send to start uplink subframe (for example, uplink subframe #4) HARQ process numbers offset (hereinafter It is referred to as " H_off”)。

In this case, terminal can use H_offWith multiple uplink subframes by the license scheduling of more uplinks The HARQ process numbers of beginning uplink subframe (for example, uplink subframe #4) in the middle derive remaining subframe (on for example, Uplink subframe #5 and #6) HARQ process numbers.Here, H_offCan be set to 0,1,2 ..., N_SF-1。

When the HARQ process numbers of uplink subframe #4 are x and the H that is included in independent field B_offIt, can be with when being 1 The HARQ process numbers for deriving uplink subframe #5 are (x+1).When the HARQ subframe numbers of uplink subframe #4 for x and are wrapped Include the H in independent field C_offWhen being 2, the HARQ process numbers that can derive uplink subframe #6 are (x+2).On the other hand, When the maximum value of HARQ process numbers is y, terminal can use " x mod y " determine the HARQ processes of uplink subframe #4 Number, use " (x+H_off(that is, 1)) mod y " determine the HARQ process numbers of uplink subframe #5, and use " (x+H_off (that is, 2)) mod y " determine the HARQ process numbers of uplink subframe #6.

Based on said program, base station can be to terminal notification HARQ process numbers, and terminal can be more based on being included in Information in uplink license identifies HARQ process numbers.

■RV

When using more uplink license types 1, RV can be included in more uplink licenses.In fig.15, RV can be included in each of more uplink license A, B and C.Therefore, terminal can be based respectively on more uplinks A, B and C is permitted to identify the RV of uplink subframe #4 to #6.

When using more uplink license types 2, RV can be included in the license of more uplinks public field or In independent field.In fig.15, when in uplink subframe #4 to #6 use identical RV when, corresponding RV can by including In the public field of more uplinks license.Therefore, terminal can be identified based on public field for uplink subframe # 4 to #6 RV.Alternatively, when using different RV in each uplink subframe #4 to #6, for UL subframe The RV of frame #4 can be included in independent field A, can be included in independent field for the RV of uplink subframe #5 B, and can be included in independent field C for the RV of uplink subframe #6.Therefore, terminal can be based respectively on individually Field A, B and C identify the RV of uplink subframe #4 to #6.

Alternatively, it is possible to RV is derived based on NDI.In this case, RV can be not included in more uplinks In license.For example, RV variation sequence can be it is predefined, when NDI be " 0 " when can according to predefined variation sequence come RV is set, and RV can be initialized as to initial value (for example, " 0 ") when NDI is " 1 ".It is in predefined variation sequence " In the case of 0 → 2 → 1 ", once more uplinks license (or independent field) of the NDI including being arranged to " 0 " is received, The RV of uplink subframe can be then set as to 2, and if more uplinks license of the NDI including being arranged to " 0 " (or independent field) is received twice, then can be set as the RV of uplink subframe " 1 ".

In the case where using more uplink license types 1, when more uplinks license A includes being arranged to " 1 " During NDI, the RV of uplink subframe #4 can be set as initial value (for example, " 0 ") by terminal.When more uplinks permit B packets When including the NDI for being arranged to " 0 ", the RV of uplink subframe #5 can be set as " 2 " by terminal.When more uplinks permit C During NDI including being arranged to " 0 ", the RV of uplink subframe #6 can be set as " 2 " by terminal.

In the case where using more uplink license types 2, when independent field A includes being arranged to " 1 " NDI when, The RV of uplink subframe #4 can be set as initial value (for example, " 0 ") by terminal.When independent field B includes being arranged to " 0 " NDI when, the RV of uplink subframe #5 can be set as by terminal " 2 ".When independent field C includes being arranged to " 0 " NDI When, the RV of uplink subframe #6 can be set as by terminal " 2 ".

Based on said program, base station can be to terminal notification RV, and terminal can be based on being included in more uplinks Information in license identifies RV.

■N_SF

N_SFIt can indicate the quantity of the uplink subframe by the license scheduling of more uplinks.N_SFIt can be set to low In M_SF。

When using more uplink license types 1, N_SFIt can be included in more uplink licenses.In fig.15, N_SFIt can be included in each in more uplink license A, B and C.Alternatively, due to being directed to uplink subframe # 4 to #6 are configured identical N_SF, so N_SFIt can be only included in more uplink license A.Alternatively, N_SFIt can not It is included in each in more uplink license A, B and C.In this case, N_SFCan in base station and terminal quilt It is default.When using more uplink license types 2, N_SFIt can be included in the public field of more uplink licenses. In Figure 15, N_SFIt can be included in the public field of more uplinks license of scheduling uplink subframe #4 to #6.

It can be based on HARQ process numbers and NDI rather than N_SFTo derive by the UL subframe of more uplinks license scheduling The quantity of frame.In this case, N_SFIt can be not included in the license of more uplinks.

For example, it can be derived based on effective HARQ process numbers by the uplink subframe of more uplinks license scheduling Quantity.In fig.15, when the HARQ process numbers of uplink subframe #4 are x, the HARQ process numbers of uplink subframe #5 are (x+1), when the HARQ process numbers of uplink subframe #6 are (x+2), the HARQ process numbers of uplink subframe #7 are x, uplink The HARQ process numbers of link subframe #4 can be identical with the HARQ process numbers of uplink subframe #7.That is, work as M_SFFor 4 simultaneously And N_SFWhen being 3, more uplink licenses can include the field of the HARQ process numbers of instruction uplink subframe #7.In this feelings Under condition, the HARQ process numbers of uplink subframe #7 can be configured in the uplink subframe #4 to #6 with before by base station The HARQ process numbers (for example, x, (x+1) or (x+2)) of one uplink subframe are identical.

When exist with identical HARQ process numbers multiple uplink subframes when, terminal can will have identical HARQ into The first uplink subframe in time domain in multiple uplink subframes of journey number is determined as efficient uplink subframe.Cause This, the uplink subframe #4 before uplink subframe #7 can be determined as efficient uplink subframe by terminal.Terminal can To determine that uplink subframe #4 to #6 is permitted to dispatch and uplink subframe #7 is not by more uplinks by more uplinks Permit to dispatch in road.In this case, since the efficient uplink subframe determined based on HARQ process numbers is uplink Subframe #4 to #6, so terminal can determine more uplink license 3 uplink subframes of scheduling.

Alternatively, it is possible to it is derived based on HARQ process numbers and NDI by the uplink of more uplinks license scheduling The quantity of subframe.That is, it is further contemplated that NDI permits the uplink subframe dispatched to derive by more uplinks Quantity.

In the examples described above, it can identify and be removed on first in multiple uplink subframes with identical HARQ process numbers The NDI of at least one uplink subframe except uplink subframe.Terminal can determine the NDI's for including being arranged to " 0 " Uplink subframe is permitted to dispatch by more uplinks, and determines the uplink subframe for including being arranged to the NDI of " 1 " Do not permit to dispatch by more uplinks.For example, when the NDI for being used for uplink subframe #7 is arranged to " 0 ", terminal can be with Determine that uplink subframe #7 permits to dispatch by more uplinks.Therefore, terminal can determine more uplink license scheduling 4 Uplink subframe.Alternatively, if the NDI for uplink subframe #7 is arranged to " 1 ", terminal can determine Uplink subframe #7 does not permit to dispatch by more uplinks.Therefore, terminal can determine more uplink license 3 uplinks of scheduling Link subframe.

Based on said program, base station can be permitted the number of the uplink subframe of scheduling to terminal notification by more uplinks Amount, and terminal can be identified based on the information in more uplink licenses is included in by the license scheduling of more uplinks The quantity of uplink subframe.

■ l, k, i

L can represent the sending time of more uplink licenses and in multiple uplinks by the license scheduling of more uplinks Interval between the sending time of the first uplink subframe (for example, starting uplink subframe) in way frame.L can be with It is equal to or greater than zero integer.For example, l can be set to 4.

L can be sent to terminal in step S1600 via higher level signaling (for example, RRC signaling).Alternatively, When using more uplink license types 1,1 can be included in more uplink licenses.In fig.15, l can distinguish It is included in each in more uplink license A, B and C.Alternatively, due to being directed to uplink subframe #4 to #6 Identical 1 is configured, so 1 can be included in multiple uplink subframes for being dispatched by the license of more uplinks In the more uplinks license A for starting uplink subframe (for example, uplink subframe #4).Permit when using more uplinks During type 2, l can be included in the public field of more uplink licenses.In fig.15, l can be included in for In the public field of more uplinks license of uplink subframe #4 to #6.

Meanwhile it can usually be permitted by the more uplinks sent by subframe #n come scheduling uplink subframe # (n+l) To # (n+l+ (N_SF- 1) transmission).However, due to network environment (for example, subframe structure etc.), uplink subframe #'s (n+l) Sending may not permit to dispatch by the more uplinks sent by subframe #n.For example, by the license of more uplinks to The scheduling of uplink subframe may be delayed by k.

In this case, k can indicate that dispatch delay deviates.When sending more uplinks licenses by subframe #n, k It can indicate subframe # (n+l) and the practical offset started between uplink subframe (for example, subframe # (n+l+k)).Namely It says, k can be the dispatch delay offset from subframe # (n+l).K may be greater than or null integer.The maximum value of k may It can be restricted.For example, the maximum value of k can be 8 or 16.

When using more uplink license types 1, k can be included in more uplink licenses.In fig.15, k It can be respectively included in each in more uplink license A, B and C.Alternatively, due to being directed to UL subframe Frame #4 to #6 sets identical k, so k can be included in for by multiple UL subframes of more uplinks license scheduling In more uplinks license A of beginning uplink subframe (for example, uplink subframe #4) in frame.When using more uplinks During link license type 2, k can be included in the public field of more uplink licenses.In fig.15, k can by including In the public field permitted for more uplinks of uplink subframe #4 to #6.

Meanwhile can the time using the license of more uplinks dynamically be set based on above-mentioned k.

Figure 17 is the concept map of the 3rd embodiment for the subframe for showing the scheduling in communication network.

With reference to figure 17, in unlicensed band, radio frames can include 10 subframes.For example, radio frames can include six A uplink subframe, three downlink subframes and a special subframe.Base station can send more uplinks by subframe #0 Link permits to send with the uplink of scheduling subframe #5 and #6.P (that is, 1+k) can indicate permitting to adjust by more uplinks Beginnings uplink subframe in multiple uplink subframes of degree with by its send the subframe of more uplinks licenses it Between interval.P can changeably be set.If l is fixed value, P can be indicated by l and k.For example, as l=4, P can With by l=4 and k=1 instructions.Alternatively, if l is variable value, P can be represented by l.That is, l can be set It is 5.

Meanwhile i can indicate the index of each in the uplink subframe by the license scheduling of more uplinks.I can To be arranged to 0,1 ..., N_SF-1.For example, in the uplink subframe by the license scheduling of more uplinks, for the The i of one uplink subframe (for example, starting uplink subframe) can be set to " 0 ", for the second uplink subframe I can be set to " 1 ", and " N is can be set to for the i of last uplink subframe_SF-1”。

When using more uplink license types 1, i can be included in more uplink licenses.In fig.15, i It can be included in each in more uplink license A, B and C.For example, more uplink license A can include being set The i of " 0 " is set to, more uplink license B can include being arranged to the i of " 0 ", and more uplinks license C can include It is arranged to the i of " 0 ".Alternatively, i can be not included in each during more uplinks permit A, B and C.At this In the case of kind, terminal can derive i according to ordering of sub-frames.

When using more uplink license types 2, i can be included in the independent field of more uplink licenses. In fig.15, i can be included in each in independent field A, B and C of more uplink licenses.For example, independent word Section A can include being arranged to the i of " 0 ", and independent field B can include being arranged to the i of " 1 ", and individually field C can be wrapped Include the i for being arranged to " 2 ".

Meanwhile base station can using l, k and i come indicate by more uplinks permit (alternatively, public field, individually Field) scheduling subframe numbers, and terminal can using l, k and i come identify by more uplinks license scheduling subframe numbers (or Person, public field, independent field).In fig.15, when using more uplink license types 1, more uplink license A can With include being arranged to the k of " 0 " and be arranged to " 0 " i (alternatively, be arranged to the l of " 4 ", be arranged to " 0 " k and Be arranged to the i of " 0 "), more uplinks license B can include being arranged to the k of " 1 " and be arranged to " 0 " i (alternatively, It is arranged to the l of " 4 ", be arranged to the k of " 1 " and is arranged to the i of " 0 "), and more uplinks license C can include It is arranged to the k of " 2 " and is arranged to the i of " 0 " (alternatively, being arranged to the l of " 4 ", being arranged to the k of " 2 " and be set I for " 0 ").In this case, based on l, k and i, terminal can identify that uplink subframe #4 permits A by more uplinks Scheduling, uplink subframe #5 are dispatched, and uplink subframe #6 permits C by more uplinks by more uplinks license B Scheduling.

In fig.15, when using more uplink license types 2, public field can include being arranged to the k of " 0 " (alternatively, being arranged to " 4 " l and be arranged to the k of " 0 "), independent field A can include being arranged to the i of " 0 ", independent word Section B can include being arranged to the l of " 1 ", and individually field C can include being arranged to the l of " 2 ".In this case, base In l, k and i, terminal can identify that uplink subframe #4 is dispatched by public field and independent field A, uplink subframe #5 by Public field and independent field B scheduling, and uplink subframe #6 is dispatched by public field and independent field C.Alternatively, Each in independent field A, B and C can not include i.In this case, terminal can derive i according to ordering of sub-frames, and And it is identified by the uplink subframe of each independent field scheduling based on l, k and the i of derivation.

That is, when sending more uplinks licenses by subframe #n, can permit adjust by more uplinks The subframe # (n+l+k+i) of degree.If radio frames include 10 subframes, terminal can be known based on " n+l+k+i mod 10 " Not by the subframe of more uplinks license scheduling.

Based on said program, base station can be to terminal notification l, k and i, and terminal can be based on being included in uplink Road license in l, k and i come determine will by more uplinks permit dispatch subframe numbers.

■ length informations

It can changeably be set by the length of the uplink subframe of more uplinks license scheduling.For example, uplink The length of way frame can changeably be set to perform channel access process.

Permit when by more uplinks come when dispatching multiple uplink subframes, length information includes multiple UL subframes The starting position of beginning uplink subframe in frame and the end position for terminating uplink subframe, and can include multiple The starting position of each and end position in uplink subframe.

Uplink subframe opens indicating in the multiple uplink subframes dispatched by the license of more uplinks Beginning position can be referred to as " length type with the length information of at least one of the end position of end uplink subframe 1”.Indicate by more uplinks license scheduling multiple uplink subframes in each uplink subframe starting position and The length information of at least one of end position can be referred to as " length type 2 ".

It can be as follows by the starting position of the uplink subframe of " length type 1 " instruction.

Figure 18 is the concept map of the first embodiment for the starting position for showing uplink subframe, and Figure 19 is to show uplink The concept map of the second embodiment of the starting position of way frame, Figure 20 are that the third for the starting position for showing uplink subframe is real Apply the concept map of example and Figure 21 be the starting position for showing uplink subframe fourth embodiment concept map.

Referring to figs. 18 to Figure 21, starting uplink subframe can or phase identical with the uplink subframe shown in Figure 10 Seemingly.In the uplink subframe 1800 of Figure 18, when the starting position of the uplink subframe indicated by length type 1 can be The symbol #0 of gap #0.In this case, the upper of the symbol #6 of the symbol #0 including time slot #0 to time slot #1 can be configured in terminal Uplink subframe 1800.In the uplink subframe 1900 of Figure 19, the uplink subframe indicated by length type 1 Position can be the specific time (such as 25 μ s) in the symbol #0 of time slot #0.In this case, terminal can be configured including Specific time (such as 25 μ s) in the symbol #0 of time slot #0 to the symbol #6 of time slot #1 uplink subframe 1900.In Figure 20 Uplink subframe 2000 in, the starting position of the uplink subframe indicated by length type 1 can be the code of time slot #0 Specific time (for example, (25+TA) μ s) in first #0.In this case, the code for including time slot #0 can be configured in terminal Specific time (such as (25+TA) μ s) in first #0 to the symbol #6 of time slot #1 uplink subframe 2000.Here, TA can be with Indicate Timing Advance or other values.In the uplink subframe 2100 of Figure 21, the UL subframe that is indicated by length type 1 The starting position of frame can be the symbol #1 of time slot #0.In this case, the symbol #1 including time slot #0 can be configured in terminal To the uplink subframe 2100 of the symbol #6 of time slot #1.

Indicate to start the starting position of uplink subframe length type 1 can table 6 based on following be configured.

[table 6]

Value	Starting position
		00	Symbol #0
01	25 μ s in symbol #0
		10	(25+TA) μ s in symbol #0
11	Symbol #1

It can be as follows by the end position of the end uplink subframe of " length type 1 " instruction.

Figure 22 is the concept map of the first embodiment for the end position for showing uplink subframe, and Figure 23 is to show The concept map of the second embodiment of the end position of uplink subframe.

With reference to figure 22 and Figure 23, terminating uplink subframe can or phase identical with the uplink subframe shown in Figure 10 Seemingly.In the uplink subframe 2200 of Figure 22, when the end position of the uplink subframe indicated by length type 1 can be The symbol #6 of gap #1.In this case, the upper of the symbol #6 of the symbol #0 including time slot #0 to time slot #1 can be configured in terminal Uplink subframe 2200.In the uplink subframe 2300 of Figure 23, by the end for the uplink subframe that length type 1 indicates Position can be the symbol #5 of time slot #1.In this case, the symbol #0 including time slot #0 to time slot #1 can be configured in terminal Symbol #5 uplink subframe 2300.

Indicating " length type 1 " of the end position of uplink subframe can represent as shown in following table 7.

[table 7]

Value	End position
		0	Symbol #6
1	Symbol #5

Length type 1 can include at least one of starting position field and end position field.Length type 1 is opened Beginning location field can be set based on table 6, and the end position field of length type 1 can be set based on table 7.

Meanwhile the starting position of uplink subframe indicated as length type 2 can be upper shown in Figure 18 to Figure 21 The starting position of uplink subframe is same or similar.Indicating the length type 2 of the starting position of uplink subframe can be based on Table 6 is set.The end position of uplink subframe indicated by length type 2 can be with the end shown in Figure 22 and Figure 23 Position is same or similar.Indicating the length type 2 of the end position of uplink subframe can be set based on table 7.Length class Type 2 can include at least one of starting position field and end position field.The starting position field of length type 2 can be with It is set based on table 6, and the end position field of length type 2 can be set based on table 7.

When using more uplink license types 1 and length type 1, more uplink licenses can include for by more The length type 1 of multiple uplink subframes of uplink license scheduling.In fig.15, length type 1 can be included in In each in more uplink license A, B and C.In this case, terminal can be based on by being included in more uplinks Collocating uplink link subframe #4 is carried out, and based on by being included on mostly in the starting position that length type 1 in road license A indicates The end position that length type 1 in line link license C indicates includes the UL subframe of 14 SC-FDMA symbols to be configured Frame #5 and uplink subframe #6.Alternatively, Class1 can be only included in more uplink license A.In such case Under, terminal can be based on the end position indicated by the length type 1 being included in more uplink license A come collocating uplink Link subframe #6.Here, as the symbol #0 of the starting position field instruction time slot #0 of length type 1, it is convenient to omit corresponding Starting position field.As the symbol #6 of the end position field instruction time slot #1 of length type 1, it is convenient to omit end position word Section.

When using more uplink license types 1 and length type 2, more uplink licenses can include for by more The length type 2 of multiple uplink subframes of uplink license scheduling.Length type 2 can be configured for by more uplinks Link permits each in multiple uplink subframes of scheduling.In fig.15, for the length class of uplink subframe #4 Type 2 can be included in more uplinks license A, for uplink subframe #5 length type 2 can be included in it is more In uplink license B, and more uplink license C can be included in for the length type 2 of uplink subframe #6 In.In this case, terminal can be based on as opening indicated by the length type 2 being included in more uplink license A Beginning position and at least one of end position carry out collocating uplink link subframe #4, based on being permitted by being included in more uplinks Collocating uplink link subframe #5 is carried out at least one of starting position indicated by length type 2 and end position in B, and Based on as in the starting position indicated by the length type 2 being included in more uplinks license C and end position at least One is carried out collocating uplink link subframe #6.Here, as the symbol #0 of the starting position field instruction time slot #0 of length type 2, It can be omitted corresponding starting position field.It, can be with as the symbol #6 of the end position field instruction time slot #1 of length type 2 Omit end position field.

When using more uplink license types 2 and length type 1, the public field of more uplink licenses can wrap It includes for by the length type 1 of multiple uplink subframes of more uplinks license scheduling.In fig.15, length type 1 can To be included in the public field of more uplinks of scheduling uplink subframe #4 to #6 license.In this case, eventually End can be matched based on the starting position indicated by the length type 1 by being included in the public field of more uplink licenses Uplink subframe #4 is put, based on indicated by the length type 1 in the public field permitted as being included in more uplinks End position includes the uplink subframe #5 and uplink subframe #6 of 14 SC-FDMA symbols to be configured.Here, work as length During the symbol #0 of the starting position field instruction time slot #0 of Class1, it is convenient to omit the field of corresponding starting position.Work as length type During the symbol #6 of 1 end position field instruction time slot #1, it is convenient to omit end position field.

When using more uplink license types 2 and length type 2, the public field of more uplinks license and individually At least one of field can include length type 2.In fig.15, it is used for uplink subframe # in equal length type 2 (for example, when the starting position in uplink subframe #4 to #6 is identical with end position), more uplinks in the case of 4 to #6 The public field of road license can include length type 2.Alternatively, when the length type 2 in uplink subframe #4 to #6 Starting position field be uniformly set and when the end position field of length type 2 is set differently, more uplinks The public field of road license can include the starting position field for uplink subframe #4 to #6, more uplink licenses Independent field A can include the end position field for uplink subframe #4, and the independent field B of more uplink licenses can To include the end position field for uplink subframe #5, and the independent field C of more uplinks license can include For the end position field of uplink subframe #6.

Alternatively, when in uplink subframe #4 to #6 the starting position field of length type 2 be set differently And when the end position field of length type 2 is uniformly set, the public field of more uplink licenses can include using In the end position field of uplink subframe #4 to #6, the independent field A of more uplink licenses can be included for uplink The starting position field of link subframe #4, the independent field B of more uplink licenses can be included for uplink subframe #5 Starting position field, and more uplinks license independent field C can include for uplink subframe #6 beginning Location field.Here, as the symbol #0 of the starting position field instruction time slot #0 of length type 2, it is convenient to omit open accordingly Beginning location field.As the symbol #6 of the end position field instruction time slot #1 of length type 2, it is convenient to omit end position word Section.

When using more uplink license types 2, length type 1 and length type 2, more uplinks are permitted public Field can include length type 1, and the independent field of more uplinks license can be by including length type 2.In Figure 15 In, it can include the starting position field of length type 1, more uplinks for the public field of uplink subframe #4 to #6 The independent field A of license can include the end position field of the length type 2 for uplink subframe #4, more uplinks The independent field B of license can include the end position field of the length type 2 for uplink subframe #5, and more uplinks The independent field C of link license can include the end position field of the length type 2 for uplink subframe #6.This In the case of, the length type including the starting position by being indicated by length type 1 and by independent field A can be configured in terminal 2 instruction end positions formed region uplink subframe #4, including by symbol #0 and time slot #0 and by independent field B Length type 2 indicate end position formed region uplink subframe #5 and including the symbol #0 by time slot #0 And the uplink subframe #6 in region formed by the end position that the length type 2 of independent field C indicates.

Alternatively, the public field of uplink subframe #4 to #6 can include the end position field of length type 1, Independent field A can include the starting position field of the length type 2 for uplink subframe #4, and independent field B can be wrapped The starting position field of the length type 2 for uplink subframe #5 is included, and individually field C can be included for uplink The starting position field of the length type 2 of way frame #6.In this case, terminal can be configured including by by independent field The uplink subframe #4 in region that the starting position and the symbol #6 of time slot #1 that the length type 2 of A indicates are formed, including logical Cross the uplink in region that the symbol #6 of the starting position indicated by the length type 2 of independent field B and time slot #1 are formed Subframe #5 and the starting position including being indicated by the length type 2 by independent field C and the length class by public field The uplink subframe #6 in the region that the end position that type 1 indicates is formed.

Based on said program, base station can be permitted the length of the uplink subframe of scheduling to terminal notification by more uplinks Information is spent, and terminal can be permitted to adjust to identify based on the information being included in more uplink licenses by more uplinks The length information of the uplink subframe of degree.

■ channel access relevant informations

When receiving more uplink licenses, terminal can be in the hair by more uplinks license scheduling uplink subframe Before sending channel (or time slot) state is identified by performing channel access process.Channel access process can be LBT processes.Such as Fruit channel status is confirmed as idle state, then terminal can be sent by the uplink subframe of more uplinks license scheduling. On the other hand, if channel status is confirmed as busy state, terminal can not be sent by the license scheduling of more uplinks Uplink subframe.

Channel access relevant information can include at least one of the following：Indicate whether the finger of execution channel access process Show symbol (hereinafter referred to as " access indicator "), channel access procedural type (for example, Class1 or type 2) and channel The run time of access procedure.

Access indicator can be classified as " access indicator type 1 " and " access indicator type 2 ".Access indicator Class1 may indicate whether to perform channel access process in uplink subframe is started.Access indicator type 2 can indicate Whether channel access process is performed in each in uplink subframe.

In fig.15, when using more uplink license types 1 and access indicator type 1, indicator type 1 is accessed It can be included in each in more uplink license A, B and C.Since identical access indicator type 1 is set When in uplink subframe #4 to #6, therefore only it can include accessing indicator type 1 in more uplinks license A.

Alternatively, when using more uplink license types 1 and access indicator type 2, for UL subframe The access indicator type 2 of frame #4 can be included in more uplink license A, and the access for uplink subframe #5 refers to Show that symbol type 2 can be included in more uplink license B, and for the access indicator type of uplink subframe #6 2 can be included in more uplink license C.When identical access indicator type 2 is arranged on uplink subframe #4 During into #6, only it can include accessing indicator type 2 in more uplinks license A.In this case, terminal can be with base Determine whether in uplink subframe #4 to #6 in being included in the access indicator type 2 in more uplink license A Perform channel access process.

In fig.15, when using more uplink license types 2 and access indicator type 1, indicator type 1 is accessed It can be included in the public field of more uplinks license of scheduling uplink subframe #4 to #6.

Alternatively, when using more uplink license types 2 and access indicator type 2, for UL subframe The access indicator type 2 of frame #4 can be included in independent field A, for the access indicator class of uplink subframe #5 Type 2 can be included in independent field B, and for uplink subframe #6 access indicator type 2 can by including In independent field C.When identical access indicator type 2 is arranged in uplink subframe #4 to #6, access instruction Symbol type 2 can be included in public field.

Meanwhile when base station and terminal are preconfigured to be the channel access process performed for sending uplink subframe When, channel access relevant information can not include access indicator.Alternatively, it is possible to the length letter based on uplink subframe Breath derives access indicator.In this case, channel access relevant information can not include access indicator.For example, work as root When " 00 " is indicated in table 6 according to the starting position of each in length type 1 and length type 2, terminal can determine not hold Row channel access process.When the starting position of each in length type 1 and length type 2 indicated in table 6 " 01 ", During one in " 10 " and " 11 ", terminal can determine that channel access process will be performed.When according to length type 1 and length type When the end position of each in 2 indicates " 0 " in table 7, terminal can determine not performing channel access process.When according to length When the end position of each in degree Class1 and length type 2 indicates " 1 " in table 7, terminal can determine that channel will be performed Access procedure.

Channel access procedural type can be classified as " channel access procedural type 1 " and " channel access procedural type 2 ". When using channel access procedural type 1, terminal can randomly choose backoff counter, and if channel in competition window State during the backoff counter corresponding period with being determined to be in idle state, then terminal can send uplink Subframe.Alternatively, if channel status is true during " with backoff counter+delay duration corresponding period " It is set to and is in idle condition, then terminal can sends uplink subframe.It is preferential that contention window size can be based on channel access Grade determines.For example, base station can determine contention window size based on table 8.CW_minIt can indicate that given channel access is preferential The minimum value of competition window in grade sequence, and CW_maxIt can indicate competition window in given channel access priority most Big value.

[table 8]

Channel access priority	CW_min	CW_max
			1	3	7
2	7	15
			3	15	1023
4	15	1023

When using channel access procedural type 2, terminal can identify channel shape during specific time period (such as 25 μ s) State, and if channel status is the free time, send uplink subframe.Alternatively, terminal can be corresponding to " when specific Channel status is identified during the period of section (for example, 25 μ s)+additional time ", and if channel status is the free time, can be sent out Serve uplink subframe.

In fig.15, when using more uplink license types 1, for the channel access process of uplink subframe #4 Type (for example, Class1 or type 2) can be included in more uplink license A, for the channel of uplink subframe #5 Access procedure type (for example, Class1 or type 2) can be included in more uplink license B, and UL subframe The channel access procedural type (for example, Class1 or type 2) of frame #6 can be included in more uplink license C.Work as uplink When channel access procedural type in link subframe #4 to #6 is arranged to identical, channel access procedural type is (for example, Class1 Or type 2) more uplink license A can be only included in.In this case, terminal can be based on being included in more uplinks Link permits the channel access procedural type (for example, Class1 or type 2) in A to perform to send uplink subframe #4 To the channel access process of #6.

In fig.15, when using the channel access in more uplink license types 2 and uplink subframe #4 to #6 When procedural type is arranged to identical, channel access procedural type (for example, Class1 or type 2) can be included in scheduling In the public field of more uplinks license of uplink subframe #4 to #6.Alternatively, when using more uplink permission class Type 2 and when being arranged differently than channel access procedural type in each uplink subframe #4 to #6, for UL subframe The channel access procedural type (for example, Class1 or type 2) of frame #4 can be included in independent field A, for uplink The channel access procedural type (for example, Class1 or type 2) of subframe #5 can be included in independent field B, and for The channel access procedural type (for example, Class1 or type 2) of uplink subframe #6 can be included in independent field C.

Meanwhile can channel access procedural type be derived based on the length information of uplink subframe.In this case, Channel access relevant information can not include channel access procedural type.For example, when according in length type 1 and length type 2 The starting position of each when " 01 " or " 10 " is indicated in table 6, terminal can determine to use channel access procedural type 2. When the starting position of each in length type 1 and length type 2 indicates " 11 " in table 6, terminal can determine Use channel access procedural type 1.When the end position of each in length type 1 and length type 2 refers in table 7 When showing " 1 ", terminal can determine to use channel access procedural type 1.

The run time of channel access process can be set with table 9 based on following.In table 9, current uplink way Frame can be by the uplink subframe of more uplinks license (or independent field) scheduling.

[table 9]

Value	Description
		00	The symbol #0 of time slot #0 in uplink subframe is started
01	The symbol #6 of time slot #1 in the previous subframe for starting uplink subframe
		10	The symbol #0 of time slot #0 in current uplink subframe
11	The symbol #6 of time slot #1 in the previous subframe of current uplink subframe

In fig.15, when using more uplink license types 1, channel access process in uplink subframe #4 Run time can be included in more uplinks license A, during the operation of the channel access process in uplink subframe #5 Between can be included in more uplinks license B, and the run time of the channel access process in uplink subframe #6 It can be included in more uplink license C.Alternatively, when the channel access process in uplink subframe #4 to #6 Run time be identical, the run time of channel access process can be only included in more uplinks license A.At this In the case of kind, terminal can be performed based on the run time for the channel access process being included in more uplink license A Channel access process in uplink subframe #4 to #6.

In fig.15, when using more uplink license types 2 and the channel in uplink subframe #4 to #6 connects When entering the run time of process and being arranged to identical, the run time of channel access process can be only included in more uplinks In the public field of license.Alternatively, when using in more uplink license types 2 and uplink subframe #4 to #6 When the run time of channel access process is set differently, for the channel access process of uplink subframe #4 operation when Between can be included in independent field A, the run time for the channel access process of uplink subframe #5 can be wrapped It includes in independent field B, and the run time for the channel access process of uplink subframe #6 can be included in list In only field C.

Meanwhile the run time of channel access process can be derived based on the length information of uplink subframe.This In the case of, channel access relevant information can not include the run time of channel access process.For example, when according to length type 1 Starting position when one in " 01 ", " 10 " and " 11 " is indicated in table 6, terminal can determine the operation of channel access process Time is the symbol #0 for starting the time slot #0 in uplink subframe.When the starting position according to length type 2 indicates in table 6 " 01 ", " 10 " and " 11 " and in one when, terminal can determine that the run time of channel access process is current uplink way The symbol #0 of time slot #0 in frame.

Based on said program, base station can be to terminal notification channel access relevant information, and terminal can be identified and be wrapped Include the channel access relevant information in the license of more uplinks.

■ SRS indexes

SRS indexes can indicate wherein to send in multiple uplink subframes by the license scheduling of more uplinks At least one uplink subframe of SRS.It for example, can be based on multiple uplink subframes by the license scheduling of more uplinks The first uplink subframe (for example, start uplink subframe) in the middle sets SRS indexes.For example, table 10 can be based on To set the SRS indexes of the uplink subframe #4 to #6 shown in Figure 15.

[table 10]

SRS indexes	Subframe numbers
		00	#4
01	#5
		10	#6
11	Retain

When SRS indexes include " 00 ", " 01 " and " 10 ", terminal can be by each in uplink subframe #4 to #6 A transmission SRS.Alternatively, if SRS indexes only include " 01 ", terminal can send SRS by uplink subframe #5, And cannot SRS be sent by uplink subframe #4 and #6.

Also, in the license of more uplinks, SRS request and SRS indexes can be configured as independent field (hereinafter It is referred to as " SRS fields ").When SRS is asked to send in uplink subframe, SRS fields can be included in more uplinks In the license of road.If SRS is not asked to send in uplink subframe, SRS fields can be not included in more uplinks In license.

When using more uplink license types 1, SRS indexes (or SRS fields) can be included in more uplinks Permit in each in A, B and C.For example, when sending SRS in uplink subframe #4, it is arranged to the SRS ropes of " 00 " Drawing can be included in more uplink license A, and when not sending SRS in uplink subframe #4, SRS indexes can To be not included in more uplinks permit A.When sending SRS in uplink subframe #5, it is arranged to the SRS of " 01 " Index can be included in more uplink license B, and when not sending SRS in uplink subframe #5, SRS indexes It can be not included in more uplinks permit B.When sending SRS in uplink subframe #6, it is arranged to " 10 " SRS indexes can be included in more uplink license C, and when not sending SRS in uplink subframe #6, SRS Index can be not included in more uplinks permit C.

When using more uplink license types 2, SRS indexes (or SRS fields) can be included in dispatching uplink chain In the public field of more uplinks license of way frame #4 to #6.Alternatively, SRS indexes (or SRS fields) can be wrapped It includes in each in the independent field permitted in more uplinks.For example, when sending SRS in uplink subframe #4, Being arranged to the SRS indexes of " 00 " can be included in independent field A, and works as and do not sent in uplink subframe #4 During SRS, SRS indexes can be not included in independent field A.When sending SRS in uplink subframe #5, it is arranged to The SRS indexes of " 01 " can be included in independent field B, and when not sending SRS in uplink subframe #5, SRS Index can be not included in independent field B.When sending SRS in uplink subframe #6, it is arranged to the SRS of " 10 " Index can be included in independent field C, and when not sending SRS in uplink subframe #6, and SRS indexes can not It is included in independent field C.

Based on said program, base station can be to terminal notification SRS indexes, and terminal can identify and be included in more uplinks SRS indexes in link license.

Meanwhile base station can generate the DCI permitted including more uplinks.More uplinks can be permitted based on RNTI It is scrambled.And the form of the DCI including the license of more uplinks can be 0A, 0B, 4A or 4B.

When using more uplink license types 1, can generate for each in multiple more uplink licenses DCI.In fig.15, it can generate for the DCI of more uplinks license A, can generate for more uplinks license B's DCI, and can generate for the DCI of more uplinks license C.Can based on public RNTI generate DCI in each (or More uplink license A, B and C of person).

When using more uplink license types 2, can generate for public field single DCI and be included in it is more Independent field in uplink license.In figure 16, can generate including public field, independent field A, independent field B and The single DCI of independent field C.

Base station can send DCI (S1630) by PDCCH/EPDCCH.Terminal can pass through monitoring (or detection) PDCCH/ EPDCCH obtains more uplink licenses (S1640) to receive DCI from the DCI received.Here, terminal can be based on RNTI obtains DCI (that is, more uplinks are permitted).In fig.15, when using more uplink license types 1, terminal can be with It is obtained using identical RNTI and permits A, B and C for the more uplinks of each in uplink subframe #4 to #6.It can replace Ground is changed, when using more uplink license types 2, terminal can obtain more uplinks for uplink subframe #4 to #6 Permit (that is, public field and independent field A, B and C) in road.

Meanwhile when the receive capabilities for activating more uplink licenses, terminal can receive more uplink licenses.At this In the case of kind, terminal can not perform the reception operation of conventional uplink license (for example, single uplink license).

Terminal can send (S1650) based on the information being included in more uplink licenses to perform uplink. In fig.15, terminal can be confirmed that the transmission of uplink subframe #4 to #6 is permitted to dispatch by more uplinks.Terminal can be with base It is confirmed whether to perform channel access in the channel access relevant information or length information that are included in more uplink licenses Process.When performing channel access process before uplink subframe #4 to #6 is sent, terminal can be based on channel access phase Information, length information etc. are closed to identify run time and channel access procedural type.

Terminal can be performed at the run time of channel access process based on the channel access procedural type identified Channel access process.For example, terminal can be in symbol #0 (or the uplink subframe #3 of the time slot #0 of uplink subframe #4 The symbol #6 of time slot #1) in perform channel access process, and when channel status is determined to be in idle state, then terminal can To send uplink subframe #4 to #6.I.e., it is possible to perform UL subframe in the case of no additional channel access procedure The transmission of frame #5 and #6.

Alternatively, terminal can be in symbol #0 (or the uplink subframe #3 of the time slot #0 of uplink subframe #4 Time slot #1 symbol #6) in perform channel access process, and when channel status is determined to be in idle state, terminal Uplink subframe #4 can be sent.Terminal can be in symbol #0 (or the uplinks of the time slot #0 of uplink subframe #5 The symbol #6 of the time slot #1 of subframe #4) in perform channel access process, and when channel status is determined to be in idle state When, terminal can send uplink subframe #5.Terminal can be in the symbol #0 (on or of the time slot #0 of uplink subframe #6 The symbol #6 of the time slot #1 of uplink subframe #5) in perform channel access process, and when channel status is determined to be in sky During not busy state, terminal can send uplink subframe #6.It that is, can be each in uplink subframe #4 to #6 A middle execution channel access process.

When determining that channel status is in idle condition or performs uplink in the case of no channel access process During transmission, terminal can be with collocating uplink link subframe.Specifically, during terminal can be permitted based on more uplinks are included in N_SF, at least one of l, k and i identify the subframe numbers sent for uplink.In fig.15, terminal can be by subframe #4 It is determined as uplink subframe to #6.Terminal can identify use based on the length information in more uplink licenses is included in In the length for the uplink subframe that uplink is sent.For example, terminal can identify UL subframe based on table 6 and table 7 The length of frame, and based on the length identified come collocating uplink link subframe.Also, terminal can be based on being included on mostly Line link license in SRS indexes come identify wherein transmission SRS subframe numbers.For example, terminal can be identified based on table 10 The subframe numbers of SRS are sent wherein, and can be based on the subframe numbers identified come collocating uplink link subframe.

That is, terminal can perform channel access mistake based on the information in more uplink licenses is included in Journey, and when determining that channel status is in idle condition by channel access process, terminal can be sent to base station based on quilt It is included in the uplink subframe of the information configuration in more uplink licenses.

Base station can receive uplink subframe from terminal.For example, base station can be more based on what is be configured in step S1620 Uplink permits to receive uplink subframe.

Embodiment of the disclosure may be implemented as that computer-readable medium can be run and be recorded in by various computers On program instruction.Computer-readable medium can include program instruction, data file, data structure or combination.It is recorded in Program instruction on computer-readable medium can be exclusively for designed by the disclosure and configuration or can be computer software neck The technical staff in domain is known and available.

The example of computer-readable medium can include the hardware device of such as ROM, RAM and flash memories, be had Body is configured to store and run program instruction.The example of program instruction include made of such as compiler machine code and Use the higher-level language code that can be run by computer of interpreter.Above-mentioned example hardware device can be configured as extremely Lack a software module to operate to perform embodiment of the disclosure, vice versa.

Although embodiments of the present disclosure have been described in detail and its advantage, it is to be understood that not departing from the disclosure In the case of range, various changes, replacement and change can be made herein.

Claims

1. a kind of operating method of the terminal in communication network, the operating method includes：

Detect the control channel of subframe #n sent from base station；

Uplink license is received from control channel；And

It is sent to base station by multiple subframes of uplink license scheduling,

Wherein, the multiple subframe includes subframe # (n+l+k) to # (n+l+k+ (N_SF- 1)), n is equal to or greater than 0 integer, l 4 integer is equal to or greater than, the k of instruction dispatch delay offset is equal to or greater than 0 integer, and N_SFIt is the multiple son The quantity of frame.

2. operating method according to claim 1, wherein, it is received by higher level signaling from the base station for activating State the request of the receive capabilities of uplink license.

3. operating method according to claim 1, wherein, it is received by higher level signaling from the base station by the uplink The maximum quantity of the subframe of link license scheduling.

4. operating method according to claim 1, wherein, by multiple subframes of uplink license scheduling in time domain In be continuous.

5. operating method according to claim 1, wherein, the uplink license includes k, N_SFWith at least one in i It is a, and i indicate the index of each subframe in the multiple subframe, be 0,1 ..., (N_SF- 1) one in.

6. operating method according to claim 1, wherein, the uplink is permitted to include：It is included in the multiple son It the starting position of the physical uplink shared channel PUSCH in each subframe in frame or is included in the multiple The starting position of the physical uplink shared channel PUSCH in the first subframe in subframe.

7. operating method according to claim 6, wherein, the starting position is included in multiple single loads in subframe Single-carrier frequency division multiple access SC-FDMA symbols #0, single-carrier frequency division multiple access SC-FDMA in wave frequency division multiple access SC-FDMA symbols Specific time or single-carrier frequency division multiple access SC-FDMA symbols #1 in symbol #0.

8. operating method according to claim 1, wherein, the uplink license includes every in the multiple subframe The end position of one subframe or the end position of the last one subframe in the multiple subframe.

9. operating method according to claim 8, wherein, the end position is included in multiple single loads in subframe The last one single-carrier frequency division multiple access SC-FDMA symbols in wave frequency division multiple access SC-FDMA symbols either it is described last Single-carrier frequency division multiple access SC-FDMA symbols before a single-carrier frequency division multiple access SC-FDMA symbols.

10. operating method according to claim 1, wherein, the uplink license, which is included in, sends the multiple son The type of channel access process that will be performed before frame by the terminal.

11. operating method according to claim 10, wherein, when the type indicates Class1, when channel status is true It is set to and is in idle condition up to being selected in competition window when keeping out of the way the corresponding period, sends the multiple subframe.

12. operating method according to claim 11, wherein, the competition is changeably set according to channel access priority Window.

13. operating method according to claim 10, wherein, when the type indicates type 2, when channel status is true It is set to when being in idle condition up to the preconfigured period, sends the multiple subframe.

14. operating method according to claim 1, wherein, the uplink license includes public field and independent word Section, the public field includes the information for being provided commonly for the multiple subframe, and each in the independent field is individually Field is included for the different information of each subframe in the multiple subframe.

15. operating method according to claim 1, wherein, the uplink license is included for the multiple subframe In the new data indicator NDI of each subframe and redundancy versions RV.

16. operating method according to claim 1, wherein, the uplink license is included in the multiple subframe The hybrid automatic repeat-request HARQ process numbers of first subframe, and according to the hybrid automatic repeat-request of first subframe The increase of HARQ process numbers and subframe numbers is at least one surplus in addition to first subframe in the multiple subframe to determine At least one hybrid automatic repeat-request HARQ process numbers of minor frame.

17. operating method according to claim 1, wherein, the uplink license includes instruction and sends spy wherein Survey the detection reference signal SRS indexes of the subframe numbers of the subframe of reference signal SRS.

18. a kind of operating method of the base station in communication network, the operating method includes：

Generate uplink license；

Include the down link control information DCI of uplink license to terminal transmission by subframe #n；And

It is received from terminal by multiple subframes of uplink license scheduling,

19. operating method according to claim 18, wherein, it sends to activate to the terminal by higher level signaling The request of the receive capabilities of the uplink license.

20. operating method according to claim 18, wherein, it is sent by higher level signaling to the terminal by described The maximum quantity of the subframe of line link license scheduling.

21. operating method according to claim 18, wherein, by uplink license scheduling multiple subframes when It is continuous in domain.

22. operating method according to claim 18, wherein, the uplink license includes k, N_SFWith in i at least One, and i indicate the index of each subframe in the multiple subframe, be 0,1 ..., (N_SF- 1) one in.

23. operating method according to claim 18, wherein, the uplink permits to include：It is included in described The starting position of the physical uplink shared channel PUSCH in each subframe in multiple subframes or it is included in institute State the starting position of the physical uplink shared channel PUSCH in the first subframe in multiple subframes.

24. operating method according to claim 23, wherein, the starting position is included in multiple lists in subframe Single-carrier frequency division multiple access SC-FDMA symbols #0, single-carrier frequency division multiple access SC- in carrier wave frequency division multiple access SC-FDMA symbols Specific time or single-carrier frequency division multiple access SC-FDMA symbols #1 in FDMA symbols #0.

25. operating method according to claim 18, wherein, the uplink license is included in the multiple subframe The end position of the end position of each subframe or the last one subframe in the multiple subframe.

26. operating method according to claim 25, wherein, the end position is included in multiple lists in subframe The last one single-carrier frequency division multiple access SC-FDMA symbols in carrier wave frequency division multiple access SC-FDMA symbols are either described last Single-carrier frequency division multiple access SC-FDMA symbols before one single-carrier frequency division multiple access SC-FDMA symbol.

27. operating method according to claim 18, wherein, the uplink license, which is included in, sends the multiple son The type of channel access process that will be performed before frame transmission by the terminal.

28. operating method according to claim 27, wherein, when the type indicates Class1, when channel status is true It is set to and is in idle condition up to being selected in competition window when keeping out of the way the corresponding period, is received from the terminal described more A subframe.

29. operating method according to claim 28, wherein, the competition is changeably set according to channel access priority Window.

30. operating method according to claim 27, wherein, when the type indicates type 2, when channel status is true It is set to when being in idle condition up to the preconfigured period, the multiple subframe is received from the terminal.

31. operating method according to claim 18, wherein, the uplink license includes public field and independent word Section, the public field includes the information for being provided commonly for the multiple subframe, and each in the independent field is individually Field is included for the different information of each subframe in the multiple subframe.

32. operating method according to claim 18, wherein, the uplink license is included for the multiple subframe In the new data indicator NDI of each subframe and redundancy versions RV.

33. operating method according to claim 18, wherein, the uplink license is included in the multiple subframe The hybrid automatic repeat-request HARQ process numbers of first subframe, and according to the hybrid automatic repeat-request of first subframe The increase of HARQ process numbers and subframe numbers is at least one surplus in addition to first subframe in the multiple subframe to determine At least one hybrid automatic repeat-request HARQ process numbers of minor frame.

34. operating method according to claim 18, wherein, the uplink license includes instruction and sends spy wherein Survey the detection reference signal SRS indexes of the subframe numbers of the subframe of reference signal SRS.