CN102820953B

CN102820953B - Method for sending and receiving control signaling selected by E-TFC (Enhanced-Transport Format Combination) and related device

Info

Publication number: CN102820953B
Application number: CN201210286718.2A
Authority: CN
Inventors: 铁晓磊; 杨毅; 周涵; 花梦
Original assignee: Huawei Technologies Co Ltd
Current assignee: Huawei Technologies Co Ltd
Priority date: 2012-07-13
Filing date: 2012-08-13
Publication date: 2015-05-06
Anticipated expiration: 2032-08-13
Also published as: CN102820953A

Abstract

The embodiment of the invention discloses a method for sending and receiving a control signaling selected by an E-TFC (Enhanced-Transport Format Combination) and a related device, which are used for improving the feedback accuracy of SR (Signal to Noise Ratio) and solving the problem caused when a base station feedbacks IO (Interference Offset) to user equipment. The method comprises the following steps: the base station acquires the control signaling selected by the E-TFC, wherein the control signaling comprises double-current channel quality ratio SR and/or interference offset IO; the base station feedbacks the control signaling to the user equipment by at least six symbols of at least two continuous subframes of a target channel, wherein the control signaling occupies at least six bits in total, if the control signaling comprises the SR, the SR occupies at least four bits, the spreading factor of the target channel is 256, one system frame of the target channel comprises five subframes, each subframe comprises three time slots and each time slot comprises ten symbols.

Description

The sending, receiving method of the control signal that E-TFC selects and relevant apparatus

Technical field

The present invention relates to communication technical field, particularly relate to sending, receiving method and the relevant apparatus of the control signal that a kind of E-TFC selects.

Background technology

Third generation partner program (3GPP, The 3rd Generation Partnership Project) plan at universal mobile telecommunications system (UMTS, Universal Mobile Telecommunications System) R11 version High Speed Uplink Packet access (HSUPA, High Speed Uplink Packet Access) middle introducing multiple-input, multiple-output (MIMO, Multiple Input Multiple Output) technology.

At up multiple-input, multiple-output (UL MIMO, UpLink Multiple Input Multiple Output) will following precoding emitting structural be adopted under pattern: subscriber equipment (UE, User Equipment) in same Transmission Time Interval (TTI, Transmission Time Interval), be called as single-stream transmission to base-station transmission data block; UE is called as stream transmission at same TTI to base-station transmission two data blocks, and two data streams in stream transmission are called as main flow and secondary flow respectively.Main flow is at enhancing dedicated channel Dedicated Physical Data Channel (E-DPDCH, Enhanced Dedicated Channel Dedicated Physical DataChannel) send, adopt main precoding vectors to carry out precoding, and carry out power control by inner ring or external circule power control; Secondary flow sends on auxiliary enhancing dedicated channel Dedicated Physical Data Channel (S-E-DPDCH, Secondary E-DPDCH) channel, adopts auxiliary precoding vectors to carry out precoding.

In ULMIMO, first subscriber equipment will carry out enhancing dedicated channel transport format combination (E-TFC before base-station transmission data flow, E-DCH Transport Format Combination) select, base station is that the E-TFC of control UE selects, base station usually needs to issue and carry out E-TFC and selects relevant scheduling authorization value (SG, Scheduling Grant), the biased (IO of interference, Interference Offset), double-current channel quality ratio (SR, Signal to Noise Ratio Ratio), order instruction (RI, Rank Indicator).

In prior art, base station is by transfer pre-coding instruction (TPI, Transmitted PrecodingIndicator), SR and RI is placed on same fractional transmission precoding indicating channel (F-TPICH, FractionalTransmitted Precoding Indicatior Channel) on issue, and SG is placed on enhancing dedicated channel absolute grant channel (E-AGCH by base station, E-DCH Absolute Grant Channel) on issue, please refer to the SR shown in Fig. 1, TPI and RI takies the frame structure schematic diagram of 1 subframe of F-TPICH, the subframe of 12 milliseconds (ms) there are 3 time slots (be time slot 1 respectively, time slot 2, time slot 3), TPI (the i.e. TPI1 of 2 bits, TPI2) time slot 1 is usually taken, symbol 3 in time slot 2, the RI of 1 bit takies the symbol 3 of time slot 3, SR (the i.e. SR1 of 3 bits, SR2, SR3) symbol 6 in 3 time slots is taken respectively.

The present inventor is realizing finding in process of the present invention, the SR that in prior art, base station is issued by 1 subframe of F-TPICH can only feed back at most 3 bits, the precision of feedback is lower, the scene that in particular cases required precision is higher cannot be met, and base station needs the control signal carrying out E-TFC selection that issues also to include IO except SR and RI usually, but the scheme how base station issues IO not relevant realizes, how to issue the problem that IO also becomes industry discussion in this case.

Summary of the invention

Embodiments provide sending, receiving method and the relevant apparatus of the control signal that a kind of E-TFC selects, for improving the feedback accuracy of SR and solving the problem of base station to subscriber equipment feedback IO.

For solving the problems of the technologies described above, the embodiment of the present invention provides following technical scheme:

First aspect, the sending method of the control signal that the embodiment of the present invention provides a kind of E-TFC to select, comprising:

Base station obtains the control signal that E-TFC selects, and described control signal comprises: double-current channel quality is biased IO than SR and/or interference;

At least 6 symbols of described control signal by least two continuous print subframes of destination channel feed back to subscriber equipment by base station, wherein, described control signal at least takies 6 bits altogether, if described control signal comprises described SR, described SR at least takies 4 bits, and the spreading factor of described destination channel is 256, and 1 system-frame of described destination channel comprises 5 subframes, each subframe comprises 3 time slots, and each time slot comprises 10 symbols.

Second aspect, the sending method of the control signal that the embodiment of the present invention also provides another kind of E-TFC to select, comprising:

1 subframe of described control signal by destination channel is fed back to subscriber equipment by base station, wherein, described control signal takies 6 bits altogether, if described control signal comprises described SR, described SR at least takies 4 bits, the spreading factor of described destination channel is 256,1 system-frame of described destination channel comprises 5 subframes, each subframe comprises 3 time slots, each time slot comprises 10 symbols, each symbols carry 2 bit information, each subframe uses 60 bits of encoded to represent described control signal.

The third aspect, the sending method of the control signal that the embodiment of the present invention also provides another kind of E-TFC to select, comprising:

Base station obtains the control signal that E-TFC selects, and described control signal comprises: the scheduling authorization value SG of main flow, the SG of secondary flow and the biased IO of interference;

Base station issues the scheduling authorization value SG of the main flow of 4 bits to subscriber equipment by enhancing dedicated channel absolute grant channel E-AGCH, described base station issues the SG of the secondary flow of 4 bits to subscriber equipment by auxiliary enhancing dedicated channel absolute grant channel S-E-AGCH;

Biased for interference IO is fed back to subscriber equipment by 1 subframe of described E-AGCH and 1 subframe of described S-E-AGCH by described base station, and 1 subframe of described E-AGCH and 1 subframe of described S-E-AGCH have identical System Frame Number and subframe numbers.

Fourth aspect, the method for reseptance of the control signal that the embodiment of the present invention also provides a kind of E-TFC to select, comprising:

Subscriber equipment receives the control signal of base station feedback by least 6 symbols of at least two continuous print subframes of destination channel, described control signal comprises: double-current channel quality is biased IO than SR and/or interference, wherein, described control signal at least takies 6 bits altogether, if described control signal comprises described SR, described SR at least takies 4 bits, the spreading factor of described destination channel is 256,1 system-frame of described destination channel comprises 5 subframes, each subframe comprises 3 time slots, and each time slot comprises 10 symbols;

Described subscriber equipment carries out revising transport block length when E-TFC selects at major-minor stream according to described SR and/or described IO.

5th aspect, the method for reseptance of the control signal that the embodiment of the present invention also provides another kind of E-TFC to select, comprising:

Subscriber equipment receives the control signal of base station feedback by least 6 symbols of at least two continuous print subframes of destination channel, wherein, described control signal takies 6 bits altogether, if described control signal comprises described SR, described SR at least takies 4 bits, the spreading factor of described destination channel is 256,1 system-frame of described destination channel comprises 5 subframes, each subframe comprises 3 time slots, each time slot comprises 10 symbols, each symbols carry 2 bit information, each subframe uses 60 bits of encoded to represent described control signal;

6th aspect, the sending method of the control signal that the embodiment of the present invention also provides another kind of E-TFC to select, comprising:

Base station obtains the control signal that E-TFC selects, and described control signal comprises: order instruction RI and single current scheduling authorization information;

1 subframe of described control signal by destination channel is fed back to subscriber equipment by base station, wherein, the spreading factor of described destination channel is 256,1 system-frame of described destination channel comprises 5 subframes, each subframe comprises 3 time slots, each time slot comprises 10 symbols, each symbols carry 2 bit information, and described single double fluid instruction and described scheduling authorization information are carried in 1 subframe of described destination channel after coding.

7th aspect, the embodiment of the present invention additionally provides a kind of base station, comprising:

Acquiring unit, for obtaining the control signal that E-TFC selects, described control signal comprises: double-current channel quality is biased IO than SR and/or interference;

Feedback unit, for at least 6 symbols of described control signal by least two continuous print subframes of destination channel are fed back to subscriber equipment, wherein, described control signal at least takies 6 bits altogether, if described control signal comprises described SR, described SR at least takies 4 bits, the spreading factor of described destination channel is 256,1 system-frame of described destination channel comprises 5 subframes, and each subframe comprises 3 time slots, and each time slot comprises 10 symbols.

Eighth aspect, the embodiment of the present invention additionally provides another kind of base station, comprising:

Feedback unit, for 1 subframe of described control signal by destination channel is fed back to subscriber equipment, wherein, described control signal takies 6 bits altogether, if described control signal comprises described SR, described SR at least takies 4 bits, the spreading factor of described destination channel is 256,1 system-frame of described destination channel comprises 5 subframes, each subframe comprises 3 time slots, each time slot comprises 10 symbols, each symbols carry 2 bit information, and each subframe uses 60 bits of encoded to represent described control signal.

9th aspect, the embodiment of the present invention additionally provides another kind of base station, comprising:

Acquiring unit, for obtaining the control signal that E-TFC selects, described control signal comprises: the scheduling authorization value SG of main flow, the SG of secondary flow and the biased IO of interference;

First feedback unit, for being issued the scheduling authorization value SG of the main flow of 4 bits to subscriber equipment by enhancing dedicated channel absolute grant channel E-AGCH, issued the SG of the secondary flow of described 4 bits to subscriber equipment by auxiliary enhancing dedicated channel absolute grant channel S-E-AGCH;

Second feedback unit, for being fed back to subscriber equipment by 1 subframe of described E-AGCH and 1 subframe of described S-E-AGCH by biased for interference IO, 1 subframe of described E-AGCH and 1 subframe of described S-E-AGCH have identical subframe numbering.

Tenth aspect, the embodiment of the present invention additionally provides a kind of subscriber equipment, comprising:

Receiving element, at least 6 symbols at least two continuous print subframes by destination channel receive the control signal of base station feedback, described control signal comprises: double-current channel quality is biased IO than SR and/or interference, wherein, described control signal at least takies 6 bits altogether, if described control signal comprises described SR, described SR at least takies 4 bits, the spreading factor of described destination channel is 256,1 system-frame of described destination channel comprises 5 subframes, each subframe comprises 3 time slots, and each time slot comprises 10 symbols;

Amending unit, for carrying out revising transport block length when E-TFC selects at major-minor stream according to described SR and/or described IO.

11 aspect, the embodiment of the present invention additionally provides another kind of subscriber equipment, comprising:

Receiving element, at least 6 symbols at least two continuous print subframes by destination channel receive the control signal of base station feedback, wherein, described control signal takies 6 bits altogether, if described control signal comprises described SR, described SR at least takies 4 bits, the spreading factor of described destination channel is 256,1 system-frame of described destination channel comprises 5 subframes, each subframe comprises 3 time slots, each time slot comprises 10 symbols, each symbols carry 2 bit information, and each subframe uses 60 bits of encoded to represent described control signal;

12 aspect, the embodiment of the present invention additionally provides another kind of base station, comprising:

Acquiring unit, for obtaining the control signal that E-TFC selects, described control signal comprises: order instruction RI and single current scheduling authorization information;

Feedback unit, for 1 subframe of described control signal by destination channel is fed back to subscriber equipment, wherein, the spreading factor of described destination channel is 256,1 system-frame of described destination channel comprises 5 subframes, and each subframe comprises 3 time slots, and each time slot comprises 10 symbols, each symbols carry 2 bit information, described single double fluid instruction and described scheduling authorization information are carried in 1 subframe of described destination channel after coding.

As can be seen from the above technical solutions, the embodiment of the present invention has the following advantages:

In one embodiment of this invention, at least 6 symbols of control signal by least two the continuous print subframes of destination channel defined in the present invention feed back to subscriber equipment by base station, wherein, SR to subscriber equipment feedback at least occupies 4 bits, the precision of feedback SR can be improved, solve base station issues problem from IO to subscriber equipment simultaneously.

In another embodiment of the invention, 1 subframe of control signal by the destination channel defined in the present invention is fed back to subscriber equipment by base station, and at least take 4 bits to the SR of subscriber equipment feedback, the precision of feedback SR can be improved, and solve base station issues problem from IO to subscriber equipment.

In another embodiment of the invention, the main flow SG of 4 bits has been fed back in base station to subscriber equipment by E-AGCH, fed back the secondary flow SG of 4 bits to subscriber equipment by S-E-AGCH, make subscriber equipment can obtain double-current channel quality higher compared to existing technology by the secondary flow SG of main flow SG and 4 bit of 4 bits, the precision to subscriber equipment feedback SR can be improved, and feed back IO by 1 subframe of E-AGCH and 1 subframe of S-E-AGCH to subscriber equipment, solve base station issues problem from IO to subscriber equipment.

In another embodiment of the invention, 1 subframe of control signal by the destination channel defined in the present invention is fed back to subscriber equipment by base station, control signal comprises order instruction and single current scheduling authorization information, solves base station and uses the destination channel defined in the present invention to issue the problem of single current scheduling authorization information to subscriber equipment.

Accompanying drawing explanation

In order to be illustrated more clearly in the technical scheme in the embodiment of the present invention, below the accompanying drawing used required in describing embodiment is briefly described, apparently, accompanying drawing in the following describes is only some embodiments of the present invention, to those skilled in the art, other accompanying drawing can also be obtained according to these accompanying drawings.

Fig. 1 is the frame structure schematic diagram that SR, TPI and RI of the prior art take 1 subframe of F-TPICH;

Fig. 2 is the schematic diagram of the sending method of the control signal of a kind of E-TFC selection that the embodiment of the present invention provides;

Fig. 3 is the schematic diagram of the sending method of the control signal of the another kind of E-TFC selection that the embodiment of the present invention provides;

Fig. 4 is a kind of frame structure schematic diagram that SR, TPI and RI that the embodiment of the present invention provides take two continuous print subframes of F-TPICH;

Fig. 5 is a kind of frame structure schematic diagram that SR and IO that the embodiment of the present invention provides takies two continuous print subframes of destination channel;

Fig. 6 is the schematic diagram of the sending method of the control signal of the another kind of E-TFC selection that the embodiment of the present invention provides;

Fig. 7 is a kind of frame structure schematic diagram that SR and IO that the embodiment of the present invention provides takies 1 subframe of destination channel;

Fig. 8 is the schematic diagram of the sending method of the control signal of the another kind of E-TFC selection that the embodiment of the present invention provides;

Fig. 9 is the schematic diagram of the sending method of the control signal of the another kind of E-TFC selection that the embodiment of the present invention provides;

Figure 10 is a kind of frame structure schematic diagram that AG and RI that the embodiment of the present invention provides takies 1 subframe of destination channel;

Figure 11 is a kind of frame structure schematic diagram that AG, Scope and RI that the embodiment of the present invention provides take 1 subframe of destination channel;

The structural representation of a kind of base station that Figure 12 provides for the embodiment of the present invention;

The structural representation of the feedback unit included by the base station that Figure 13 provides for the embodiment of the present invention;

The structural representation of the another kind of base station that Figure 14 provides for the embodiment of the present invention;

The structural representation of a kind of subscriber equipment that Figure 15 provides for the embodiment of the present invention;

The structural representation of the another kind of base station that Figure 16 provides for the embodiment of the present invention.

Embodiment

For making goal of the invention of the present invention, feature, advantage can be more obvious and understandable, below in conjunction with the accompanying drawing in the embodiment of the present invention, technical scheme in the embodiment of the present invention is clearly and completely described, obviously, the embodiments described below are only the present invention's part embodiments, and not all embodiments.Based on the embodiment in the present invention, the every other embodiment that those skilled in the art obtains, all belongs to the scope of protection of the invention.

The sending method of the control signal that a kind of E-TFC that the embodiment of the present invention provides selects, as shown in Figure 2, comprising:

201, base station obtains the control signal that E-TFC selects, and wherein, control signal comprises: double-current channel quality ratio (SR, Signal to Noise Ratio Ratio) and/or interference biased (IO, InterferenceOffset).

In embodiments of the present invention, the control signal that base station obtains E-TFC selection can comprise following three kinds of modes: base station obtains SR, and base station obtains IO, and base station obtains SR and IO, and the control signal that is base station obtains at least comprises the one of SR and IO.

In UL-MIMO, because main flow is different with the characteristic of channel of secondary flow process, need to use different parameter scheduling.Base station uses the channel quality of inner-loop power control adjustment main flow, on this basis, double-current channel quality can be used to select than for the E-TFC realized for secondary flow, base station obtains double-current channel quality ratio, concrete, above-mentioned double-current channel quality ratio can be estimated in the following way and obtains: base station is according to one of the optimum chosen group of orthogonal precoding and the uplink channel estimation that obtains according to the major-minor pilot tone that UE reports, and according to the double-current transmitting power that absolute grant value is estimated, the Signal to Interference plus Noise Ratio (SINR) of (such as after equilibrium treatment) after drawing the process in main flow and secondary flow, suppose that the Signal to Interference plus Noise Ratio after main flow process is SINR1, Signal to Interference plus Noise Ratio after secondary flow process is SINR2, then double-current channel quality ratio SR can get with following formula: SR=SINR2/SINR1.And adopt the hypothesis of equal transmit power based on UE side mainstream data channel E-DPDCH and secondary flow data channel S-E-DPDCH when double fluid, the main flow scheduling authorization value SGp that UE can issue according to base station and SR calculates the equivalent scheduling authorization value SGs in secondary flow, thus realizes selecting to adjust to the E-TFC of secondary flow.Such as, calculate according to formula S Gs=SR*SGp, wherein, the scheduling authorization value of secondary flow that what SGs represented is.Decibel (dB) form that SR also can be defined as SINR2/SINR1 ratio or the side-play amount be defined as in SGp quantification form, at this moment computing formula is specially SGs=SGp-SR.Certainly, the embodiment of the present invention also can be obtained by other evaluation method and representation and issue the channel quality ratio information of above-mentioned double fluid, such as, reception Signal to Interference plus Noise Ratio before base station can directly use equilibrium treatment in major-minor pilot tone, to estimate double-current channel quality ratio, adopts main flow E-TFCI to be biased and represents; Or, double fluid channel quality ratio can be the transmission power offset amount of secondary flow relative to main flow, and secondary flow and main flow adopt equal-wattage transmission data, but when E-TFC selects, secondary flow should deduct this power offset on main flow through-put power basis, to adjust transmission block size.Concrete restriction is not done to the representation of double-current channel quality ratio herein.

In UL MIMO, two data flow in double fluid use identical code channel set, disturb so can produce between stream, and do not exist between stream under single stream case and disturb.Therefore when the main flow in single current and double fluid adopt identical transmitting power, experience identical channel and receiver end noise identical when, in double fluid, the Signal to Interference plus Noise Ratio of main flow is less than the Signal to Interference plus Noise Ratio of single current.Disturb to tackle between stream, base station need to UE to issue between stream E-TFC that interference biased IO, UE carry out main flow under double-stream mode select time, disturb the difference in channel quality of generation between the stream needing to consider that base station side issues.Between above-mentioned stream, interference can be estimated in the following way and obtains: base station is according to one of the optimum chosen group of orthogonal precoding and the uplink channel estimation of major-minor pilot tone acquisition that reports according to UE, and according to the transmitting power P1 of main flow on the double fluid that absolute grant value is estimated, the Signal to Interference plus Noise Ratio (SINR) of (after equilibrium treatment) after drawing main flow process, suppose that the Signal to Interference plus Noise Ratio after main flow process is SINR1, when base station estimation simultaneously adopts power P 1 to carry out single current transmitting, the Signal to Interference plus Noise Ratio SINRs of (after equilibrium treatment) after the single current process obtained, then IO can be defined as SINR1/SINRs or its dB form.Certainly, it is biased that the embodiment of the present invention also can obtain interference between above-mentioned stream by other evaluation method, such as, base station can be that user device configuration many groups is gathered with reference to E-TFC, and equipment for indicating user uses a certain group of reference E-TFC set to select for E-TFC as disturbing between stream to be biased when stream transmission; Or, main flow that between stream, interference is biased when can also be stream transmission is used for scheduling authorization value that E-TFC selects relative to relative to the side-play amount of scheduling authorization value being used for E-TFC selection during single-stream transmission, main flow is when E-TFC selects, the basis of the scheduling authorization value that should issue in base station deducts this power offset, to adjust transmission block size.Be not construed as limiting herein.

202, at least 6 symbols of control signal by least two continuous print subframes of destination channel feed back to subscriber equipment by base station, wherein, control signal at least takies 6 bits altogether, if control signal comprises SR, then SR at least takies 4 bits, and the spreading factor of destination channel is 256, and 1 system-frame of destination channel comprises 5 subframes, each subframe comprises 3 time slots, and each time slot comprises 10 symbols.

In inventive embodiments, the base station destination channel taken that sends control signaling meets following feature: 1 system-frame of destination channel includes 5 subframes, each system-frame is the length of 10ms, each subframe includes 3 time slots, each time slot includes 10 symbols, and the spreading factor (SF, Spreading Factor) of destination channel is 256, that is, the number of chips that 1 symbol of destination channel that the embodiment of the present invention provides comprises after spreading is 256.

In this embodiment provided by the invention, at least 6 symbols of control signal by least two the continuous print subframes of destination channel defined in the present invention feed back to subscriber equipment by base station, wherein, SR to subscriber equipment feedback at least occupies 4 bits, the precision of feedback SR can be improved, solve base station issues problem from IO to subscriber equipment simultaneously.

In embodiments of the present invention, at least 6 symbols of control signal by least two continuous print subframes of destination channel feed back to subscriber equipment by base station, refer to shown in Fig. 3, specifically can comprise:

301, base station judge order instruction RI represent be single current instruction or double fluid instruction.

In embodiments of the present invention, order instruction (RI, Rank Indicator) be also referred to as the instruction of the highest order, RI represent base station to subscriber equipment issue be single current instruction or double fluid instruction, RI includes the maximum order of base station to user device transmissions, in actual applications, specifically can represent that single current indicates with RI=1, represent double fluid instruction with RI=2.

It should be noted that, in embodiments of the present invention, what the control signal that E-TFC selects mainly comprised is SR, IO wherein at least one, certainly can also comprise RI and SG etc., not limit herein.

In embodiments of the present invention, what base station judged that RI represents is single current instruction or double fluid instruction, and then determines that how this is to subscriber equipment feedback SR and IO, when RI represents double fluid instruction, performs step 302, when RI represents that single current indicate, and execution step 303.

If what 302 RI represented is double fluid instruction, SR is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of destination channel by base station.

In embodiments of the present invention, double fluid channel quality is selected than for the E-TFC realized for secondary flow, base station feedback double fluid channel quality ratio is to UE, and adopt the hypothesis of equal transmit power based on UE side mainstream data channel E-DPDCH and secondary flow data channel S-E-DPDCH when double fluid, the SR that UE can issue according to base station calculates (such as to the equivalent scheduling grants in secondary flow, calculate according to formula S Gsecondary=SR*SGprimary, wherein, the scheduling authorization value of main flow that what SGprimary represented is, the scheduling authorization value of secondary flow that what SGsecondary represented is), thus realize selecting to adjust to the E-TFC of secondary flow.

In embodiments of the present invention, when RI represent be double fluid instruction, base station uses at least 6 symbols of at least two continuous print subframes of destination channel to the SR of subscriber equipment feedback at least 6 bits, and when RI represent be single current instruction time, this destination channel is used to transmission disturbance and is biased IO, and specifically biased to interference description refers to step 303.Concrete, in the embodiment of the present invention, at least two continuous print subframe feedback SR that base station can use destination channel to be F-TPICH, are specifically as follows: the SR of 6 bits is fed back to subscriber equipment by 6 symbols of two continuous print subframes of F-TPICH by base station; Or the SR of 9 bits is fed back to subscriber equipment by 9 symbols of three continuous print subframes of F-TPICH by base station.Can find out, in the embodiment of the present invention, more continuous print subframe can be used for carrying SR when the precision needing to feed back SR is higher, instead of 1 subframe feedback SR can only be used as prior art, make the precision feeding back SR lower.

It should be noted that, F-TPICH channel is generally used for transmission transfer pre-coding instruction (TPI, Transmitted Precoding Indicator), F-TPICH is a spreading factor is the common signal channel of 256, take subframe as base unit, each subframe comprises 3 time slots, each time slot can carry 10 symbols, as shown in Figure 1, the TPI of two bits can be carried in 1 subframe, TPI is carried in the symbol of two time slots of 1 subframe of F-TPICH respectively, and there is identical symbol be biased, then do not use at present at the same symbol of the 3rd time slot, then in the embodiment of the present invention, the RI of 1 bit can be fed back to subscriber equipment by 1 symbol of 1 subframe of F-TPICH by base station.

In embodiments of the present invention, base station can use the idle characters in the subframe of F-TPICH to feed back SR to subscriber equipment, such as, the SR of 6 bits is fed back to subscriber equipment by 6 symbols of two continuous print subframes of F-TPICH by base station, as shown in Figure 4, for the SR that the embodiment of the present invention provides, TPI and RI takies the frame structure schematic diagram of two continuous print subframes of F-TPICH, two subframes are had in Fig. 4, be respectively the first subframe and the second subframe, each subframe is 2ms, each subframe there are 3 time slots: time slot 1, time slot 2, time slot 3, in each subframe, TPI (the i.e. TPI1 of 2 bits, TPI2) time slot 1 is taken, symbol 3 in time slot 2, the RI of 1 bit takies the symbol 3 of time slot 3, SR (the i.e. SR1 of 6 bits, SR2, SR3, SR4, SR5, SR6) symbol 6 of three time slots of two subframes is taken respectively, namely SR1 takies the symbol 6 of the time slot 1 of the first subframe, SR2 takies the symbol 6 of the time slot 2 of the first subframe, SR3 takies the symbol 6 of the time slot 3 of the first subframe, SR4 takies the symbol 6 of the time slot 1 of the second subframe, SR5 takies the symbol 6 of the time slot 2 of the second subframe, SR6 takies the symbol 6 of the time slot 3 of the second subframe, certain SR also can take other symbol, and be not only symbol 6, as long as the idle characters of the time slot of subframe, as symbol 7, symbol 8 etc.Again such as, the SR of 9 bits is fed back to subscriber equipment by 9 symbols of three continuous print subframes of F-TPICH by base station, and diagram and Fig. 4 of its frame structure are similar, repeat no more herein.It should be noted that, four, five continuous print subframes also can be used to feed back SR to subscriber equipment, then the subframe used is more, and the precision can feeding back SR is higher.

If what 303 RI represented is single current instruction, biased for interference IO is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of destination channel by base station.

In embodiments of the present invention, if what RI represented is single current instruction, then for the channel position provided in step 302, just may be used for subscriber equipment feedback IO, that is, at least 6 symbols of at least two continuous print subframes of destination channel, when RI represents double fluid instruction, base station is used for transmitting SR, and when RI represents that single current indicates, base station is used for transmitting IO.

For base station how to subscriber equipment feedback IO, in prior art, there is no relevant implementation.In embodiments of the present invention, IO is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of destination channel by base station, concrete, IO can be fed back to subscriber equipment by 6 symbols of two continuous print subframes of channel by base station, or, IO repeats to send to subscriber equipment by 3 respective symbols of two continuous print subframes of destination channel by base station, is next described respectively.

Such as, as RI=1, what RI represented is single current instruction, IO can be fed back to subscriber equipment by 6 symbols of two continuous print subframes of destination channel by base station, then 6 symbols of two continuous print subframes of destination channel can feed back the IO of 6 bits, namely feed back 64 kinds of IO, the IO that UE may not need precision so high in actual applications controls, another kind of implementation is, 3 respective symbols of two of destination channel continuous print subframes are used for sending identical IO by base station respectively, namely time diversity process is done to IO, identical IO is fed back in two continuous print subframes, then can feed back the IO of 3 bits, the IO of two 3 bits carries out repeating to send, IO is fed back in reliability from base station to UE can be improved.

Because IO only could be used when having and disturbing between stream, and disturb and only just can exist when double fluid between stream, namely as RI=2, IO could be used, in embodiments of the present invention, biased for interference IO is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of destination channel by base station, specifically can comprise:

A1, base station pre-configured transmission IO need the pattern adopted, the time span in the discontinuous transmission indicating base station to arrange in this pattern (DTX, Discontinuous Transmission) cycle and the transmission timing offset of IO within the DTX cycle;

A2, the pattern adopted according to transmission IO needs, base station feeds back IO by least 6 symbols of at least two continuous print subframes of destination channel to subscriber equipment.

For steps A 1, solution is IO is not total transmitting, but have and do not send IO when the DTX cycle, IO is sent during transmission timing offset only within the DTX cycle, that is, the pattern that base station pre-configured transmission IO adopts, in this pattern, indicate base station to send time span and the transmission timing offset of IO within the DTX cycle in DTX cycle, if the time span that base station sends the DTX cycle is 4ms, transmission timing offset within the DTX cycle is 1ms, then base station often sends 3 DTX, then sends 1 IO, and base station sends DTX and sends IO hockets.The subframe that base station only specifies in pattern sends IO, and all the other moment send DTX, then UE needs to receive pattern arrangement in advance, and only receive IO in fixing subframe, save the received power of UE.

Relative to the sending method of the control signal that the E-TFC realized based on base station side selects herein, corresponding to user equipment side, additionally provide the method for reseptance of the control signal that E-TFC selects in the embodiment of the present invention, comprising:

Subscriber equipment receives the control signal of base station feedback by least 6 symbols of at least two continuous print subframes of destination channel, this control signal comprises: double-current channel quality is biased IO than SR and/or interference, wherein, control signal at least takies 6 bits altogether, if control signal comprises SR, SR at least takies 4 bits, the spreading factor of destination channel is 256,1 system-frame of destination channel comprises 5 subframes, and each subframe comprises 3 time slots, and each time slot comprises 10 symbols;

Subscriber equipment carries out revising transport block length when E-TFCI selects at major-minor stream according to SR and/or IO.

It should be noted that, in embodiments of the present invention, relative to herein based on steps A 1, A2 that base station side realizes, corresponding to user equipment side, subscriber equipment receives the control signal of base station feedback by least 6 symbols of at least two continuous print subframes of destination channel, comprising:

Subscriber equipment receives the pattern of the transmission IO employing of feeding back in advance base station, indicates time span and the transmission timing offset of IO within the DTX cycle in base station DTX cycle in this pattern;

Subscriber equipment is according to the pattern sending IO employing, IO is received at least 6 symbols of at least two continuous print subframes of destination channel, wherein, the spreading factor of this destination channel is 256,1 system-frame of this destination channel comprises 5 subframes, each subframe comprises 3 time slots, and each time slot comprises 10 symbols.

Subscriber equipment have received the pattern of the transmission IO employing that base station pre-sets, then subscriber equipment is when carrying out reception IO by destination channel, just can according to the transmission timing offset of the IO indicated in this pattern in DTX, and do not need subscriber equipment demodulation destination channel constantly, improve the efficiency receiving IO.

It should be noted that, the IO of 6 bits is fed back to subscriber equipment by 6 symbols of two continuous print subframes of F-TPICH by base station, Fig. 4 can be used herein be described, namely the position sending SR is in the diagram used for sending IO1, IO2, IO3, IO4, IO5, IO6 respectively, no longer repeats by diagram herein.Subscriber equipment is carried out revising transport block length when E-TFC selects at major-minor stream according to SR and/or IO, specifically can consult the implementation of prior art, repeat no more herein.

In embodiment provided by the invention, base station at least takies 6 bits by least 6 symbols of at least two continuous print subframes of F-TPICH to the SR that subscriber equipment feeds back, and can improve the precision of feedback SR; When RI represent be single current instruction time, IO is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of F-TPICH by base station, solves base station issues problem from IO to subscriber equipment.

In the embodiment of the present invention, if control signal comprises SR and IO, at least 6 symbols of control signal by least two continuous print subframes of destination channel feed back to subscriber equipment by base station, specifically can comprise:

SR and IO is fed back to subscriber equipment by 6 symbols of two continuous print subframes of destination channel by B1, base station;

Or SR and IO is fed back to subscriber equipment by 9 symbols of three continuous print subframes of destination channel by B2, base station.

For implementation B1, base station uses 6 symbols of two continuous print subframes of target BS jointly to subscriber equipment feedback SR and IO, such as, for needing the mode issuing at a slow speed IO, according to the required precision of IO also specific implementation, specifically can be able to comprise as under type:

If C1 IO takies X kind value state, 0 to 63-X in the index represented by two continuous print subframes of base station use destination channel altogether 64-X kind value state representation SR feeds back to subscriber equipment, 64-X to 63 in the index represented by two continuous print subframes of base station use destination channel altogether X kind value state representation IO feeds back to subscriber equipment, and X is natural number; Or,

If C2 IO takies X kind value state, base station uses the index represented by two continuous print subframes of destination channel to be that the common X kind value state representation IO of 0 to X-1 feeds back to subscriber equipment, base station uses the index represented by two continuous print subframes of destination channel to feed back to subscriber equipment for X to 63 is total to 64-X kind value state representation SR, and X is natural number.

It should be noted that, "-" that occur in " 63-X ", " 64-X ", " X-1 " represents the meaning of minus sign, namely be 63 deduct X, 64 and deduct the implication that X, X deduct 1 respectively, and "-" that occur between similar numerical value in the embodiment of the present invention in subsequent process also should be interpreted as identical implication.

For implementation C1, two continuous print subframes of destination channel have 0 to 63 indexes, if X gets 4, then base station can use the index of two of destination channel continuous print subframes to be that 0 to 59 expression SR feeds back to subscriber equipment, base station uses the index of two continuous print subframes of destination channel to be that 60 to 63 expression IO feed back to subscriber equipment, if X gets 8, then base station can use the index of two of destination channel continuous print subframes to be that 0 to 55 expression SR feeds back to subscriber equipment, base station uses the index of two continuous print subframes of destination channel to be that 56 to 63 expression IO feed back to subscriber equipment, mode C2 is similar, repeat no more herein.

For implementation B2, the mode choosing corresponding index respectively according to the bit number shared by IO in C1, C2 can be adopted to carry out, and difference is: three continuous print subframes of destination channel have 0 to 127 indexes.

The status number had according to IO chooses the mode of corresponding index respectively, when being switched to RI=2 from RI=1 on two TTI, destination channel once just can not feed back to UE IO and SR simultaneously simultaneously, then the method that the embodiment of the present invention provides can also comprise as under type:

D1, when base station determine for user device configuration double fluid instruction time, IO is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of destination channel by base station.

Further, implementation D1 can also be: if D2 base station determines at preset time instant to be dispatching user facility stream transmission, IO, before preset time instant arrives, is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of destination channel by base station.

For implementation D1, base station is after decision is for UE scheduling stream transmission, 2 TTI are first used to issue IO (that now feed back at least two continuous print subframes of destination channel is TPI, RI and IO), corresponding SR is issued again after being switched to double fluid, wherein, single double-current decision-making does to UE the time delay that stream transmission has 2 TTI, and UE will ceaselessly detect simultaneously.

For implementation D2, base station has larger dispatching flexibility, as draw according to cell load and UE upstream data gauge be sometime UE dispatch stream transmission, base station also first can issue the IO information (that now feed back at least two continuous print subframes of F-TPICH is TPI, RI and IO) of 2 TTI in advance, issues SR again when being switched to stream transmission.

For implementation B1, base station uses 6 symbols of two continuous print subframes of destination channel to subscriber equipment feedback SR and IO, such as, for needing the mode issuing IO fast, according to the required precision of IO also specific implementation, specifically can be able to comprise as under type:

If IO takies Y bit, base station uses Y bit of two continuous print subframes of destination channel to represent that IO feeds back to subscriber equipment, and base station uses 6-Y bit of two continuous print subframes of destination channel to represent that SR feeds back to subscriber equipment, and wherein, Y is natural number.Such as, as shown in Figure 5, SR and IO provided for the embodiment of the present invention takies a kind of frame structure schematic diagram of two continuous print subframes of destination channel, suppose that Y value is 2, two subframes are had in Fig. 5, be respectively the first subframe and the second subframe, each subframe is 2ms, each subframe there are 3 time slots: time slot 1, time slot 2, time slot 3, in each subframe, the bit number Y value that IO takies is 2, namely IO accounts for 2 bits, SR takies 4 bits, SR (the i.e. SR1 of 4 bits, SR2, SR3, SR4) symbol 6 of the first two time slot of two subframes is taken respectively, namely SR1 takies the symbol 6 of the time slot 1 of the first subframe, SR2 takies the symbol 6 of the time slot 2 of the first subframe, SR3 takies the symbol 6 of the time slot 3 of the first subframe, SR4 takies the symbol 6 of the time slot 4 of the second subframe, IO takies the symbol 6 of the 3rd time slot of two subframes respectively, namely IO1 takies the symbol 6 of the time slot 2 of the first subframe, IO2 takies the symbol 6 of the time slot 3 of the second subframe, certain SR and IO also can take other symbol, and be not only symbol 6, as long as the time slot of two of destination channel continuous print subframes, as SR and IO can also take the symbol 7 of two continuous print subframes, symbol 8 etc.

For implementation B2, base station uses 9 symbols of three continuous print subframes of destination channel jointly to subscriber equipment feedback SR and IO, such as, for needing the mode issuing IO fast, according to the required precision of IO also specific implementation, specifically can be able to comprise as under type:

If IO takies Y bit, base station uses Y bit of three continuous print subframes of destination channel to represent that IO feeds back to subscriber equipment, and base station uses 9-Y bit of three continuous print subframes of destination channel to represent that SR feeds back to subscriber equipment, and wherein, Y is natural number.Such as, when Y gets 3, the SR of 6 bits is fed back to subscriber equipment by 9 bits of three continuous print subframes of destination channel by base station, and diagram and Fig. 5 of its frame structure are similar, repeat no more herein.It should be noted that, four, five continuous print subframes also can be used to feed back SR to subscriber equipment, then the subframe used is more, can feed back more high-precision SR.

It should be noted that, in the embodiment of the present invention, the RI of 1 bit can also be fed back to subscriber equipment by 1 symbol of 1 subframe of destination channel by base station, two continuous print subframes, 1 subframe wherein of the destination channel such as shown in Fig. 5 not by 1 symbol that SR and IO takies, repeat no more herein.

In embodiments of the present invention, at least 6 symbols of control signal by least two continuous print subframes of destination channel feed back to subscriber equipment by step 202 base station jointly, specifically can comprise the steps:

Base station is that SR and IO arranges the common issue cycle, and this common issue cycle comprises the first time period for launching SR and the second time period for launching IO;

SR is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of destination channel by base station in first time period, and IO is jointly fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of destination channel by base station within the second time period.

That is, in at least two subframes of destination channel, these two kinds of property information cycle of SR and IO are issued, the common issue cycle is set, indicate within a common issue cycle and send out SR within which time period, within which, send out IO time period, specifically can issue ratio by network configuration, such as, within a common issue cycle, set SR: IO=M: 1, M is natural number, considers that SR is larger relative to the change frequency of IO, M can be set to the integer being more than or equal to 1, namely base station often sends M SR and sends 1 IO again.Accordingly, UE, according to the ratio of network configuration, periodically resolves the control information in destination channel, and upgrades SR or IO according to the information received; If the destination channel of current TTI have received the relevant information of SR, then upgrade SR and maintain previous IO, if the destination channel of current TTI have received the relevant information of IO, then upgrade IO and maintain previous SR.

Subscriber equipment receives the control signal of base station feedback by least 6 symbols of at least two continuous print subframes of destination channel, this control signal comprises: double-current channel quality is biased IO than SR and/or interference, wherein, this control signal takies 6 bits altogether, if control signal comprises SR, SR at least takies 4 bits, the spreading factor of destination channel is 256, 1 system-frame of destination channel comprises 5 subframes, each subframe comprises 3 time slots, each time slot comprises 10 symbols, each symbols carry 2 bit information, each subframe uses 60 bits of encoded to represent described control signal,

The problem of SR and IO transmitting is realized herein relative to the common issue cycle that utilizes realized based on base station side, corresponding to user equipment side, subscriber equipment receives the control signal of base station feedback by least 6 symbols of at least two continuous print subframes of destination channel, comprising:

Subscriber equipment receives common issue cycle of pre-setting of base station, and wherein, the common issue cycle comprises base station for launching the first time period of SR and base station for launching second time period of IO;

At least 6 symbols of subscriber equipment by least two continuous print subframes of destination channel in first time period receive SR, at least 6 symbols of subscriber equipment by least two continuous print subframes of destination channel within the second time period receive IO, wherein, the spreading factor of this destination channel is 256,1 system-frame of this destination channel comprises 5 subframes, each subframe comprises 3 time slots, and each time slot comprises 10 symbols.

Subscriber equipment have received the common issue cycle that base station pre-sets, then subscriber equipment is when carrying out reception IO by destination channel, just can receive SR and IO respectively according to indicating in this common issue cycle first time period and the second time period, improving the efficiency receiving SR and IO.Subscriber equipment is carried out revising transport block length when E-TFCI selects at major-minor stream according to SR and/or IO, specifically can consult the implementation of prior art, repeat no more herein.

In embodiment provided by the invention, SR and IO is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of destination channel by base station, and SR at least takies 4 bits, the precision of feedback SR can be improved, and solve base station issues problem from IO to subscriber equipment.

The sending method of the control signal that the another kind of E-TFC that next introducing the embodiment of the present invention provides selects, as shown in Figure 6, comprises the steps:

601, base station obtains the control signal that E-TFC selects, and wherein, control signal comprises: double-current channel quality is biased IO than SR and/or interference.

Wherein, the mode of base station acquisition control signal refers to the description of previous embodiment.The control signal that base station obtains E-TFC selection can comprise following three kinds of modes: base station obtains SR, and base station obtains IO, and base station obtains SR and IO, and the control signal that is base station obtains at least comprises the one of SR and IO.

602,1 subframe of control signal by destination channel is fed back to subscriber equipment by base station, wherein, control signal takies 6 bits altogether, if control signal comprises SR, SR at least takies 4 bits, the spreading factor of this destination channel is 256,1 system-frame of this destination channel comprises 5 subframes, and each subframe comprises 3 time slots, and each time slot comprises 10 symbols, each symbols carry 2 bit information, each subframe uses 60 bits of encoded to represent this control signal.

In inventive embodiments, the destination channel that base station transmission SR and IO takies meets following feature: 1 system-frame of destination channel includes 5 subframes, each system-frame is the length of 10ms, each subframe includes 3 time slots, and each time slot comprises 10 symbols, each symbols carry 2 bit information, each subframe uses 60 bits of encoded to represent SR and IO of 6 bits, as shown in Figure 7,1 subframe of destination channel is 2ms, SR1, SR2, SR3, SR4, IO1, IO2, each time slot of this destination channel carries 20 Bit datas, and 3 time slots of 1 subframe use 60 bits of encoded to illustrate SR1 altogether, SR2, SR3, SR4, IO1, IO2,6 bit informations are through cyclic redundancy check (CRC), 60 bit informations are obtained after chnnel coding and rate-matched, this 60bit information sends at 3 time slots of a subframe, each time slot sends 20bit information, in Fig. 7, SR takies 4 bits, and IO takies 2 bits, in actual applications, SR can also take 5 bits, IO takies 1 bit, and its diagram is similar with Fig. 7, repeats no more herein.

In embodiments of the present invention, destination channel described herein is specifically as follows class E-AGCH, and class E-AGCH refers to the channel having identical transformat, control information building form with E-AGCH, can be used in embodiments of the present invention transmitting SR and IO.

The sending method of the control signal that the E-TFC provided in the embodiment of the present invention selects can also comprise: the RI of 1 bit is fed back to subscriber equipment by 1 symbol of 1 subframe of part transfer pre-coding indicating channel F-TPICH by base station, namely base station still uses 1 symbol of 1 subframe of F-TPICH for the transmission of RI, specifically refer to aforementioned description, that is, if RI uses F-TPICH transmission, RI just can not take the symbol of 1 subframe of class E-AGCH, now, SR and IO is fed back to subscriber equipment by 1 subframe of destination channel by base station, specifically can comprise as under type:

1 subframe of destination channel is used for expression 64 index values, is respectively used to indicate SR and IO;

If E1 IO has X kind value state, 0 to 63-X in the index represented by 1 subframe of base station use destination channel altogether 64-X kind value state representation SR feeds back to subscriber equipment, 64-X to 63 in the index represented by 1 subframe of base station use destination channel altogether X kind value state representation IO feeds back to subscriber equipment, wherein, X is natural number; Or,

If E2 IO has X kind value state, 0 to X-1 in the index represented by 1 subframe of base station use destination channel altogether X kind value state representation IO feeds back to subscriber equipment, X to 63 in the index represented by 1 subframe of base station use destination channel altogether 64-X kind value state representation SR feeds back to subscriber equipment, wherein, X is natural number.

For implementation E1, 1 subframe of destination channel is used for expression 64 index values, be respectively 0 to 63 indexes, if X gets 4, then base station can use 1 of destination channel index represented by subframe to be that 0 to 59 expression SR feeds back to subscriber equipment, base station uses the index represented by 1 subframe of destination channel to be that 60 to 63 expression IO feed back to subscriber equipment, if X gets 8, then base station can use 1 of destination channel index represented by subframe to be that 0 to 55 expression SR feeds back to subscriber equipment, base station uses the index represented by 1 subframe of destination channel to be that 56 to 63 expression IO feed back to subscriber equipment, mode E2 is similar, repeat no more herein.

In embodiments of the present invention, base station is in order to launch or double fluid transmitting to user feedback single current, now, SR and IO is fed back to subscriber equipment by 1 subframe of destination channel by base station, specifically can comprise as under type: 1 of destination channel subframe is used for expression 64 index values by base station, wherein 63 index value equipment for indicating users use double-current emission mode, and indicate SR and IO, and remaining 1 index value is used to indicate subscriber equipment and uses single current emission mode.More specifically, can in the following way:

If F1 IO has X kind value state, base station uses any 64-X-1 in 0 to 63-X in the index represented by 1 subframe of destination channel to represent that SR feeds back to subscriber equipment, SR equipment for indicating user uses double-current emission mode, base station uses in 0 to 63-X in 1 of this destination channel index represented by subframe and is not used for representing that 1 index of SR represents is that single current is launched to subscriber equipment feedback, base station use destination channel 1 subframe index for 64-X to 63 represent IO feed back to subscriber equipment, X is natural number; Or,

If F2 IO has X kind value state, 0 to X-1 in the index represented by 1 subframe of base station use destination channel is total to value state representation IO in X and feeds back to subscriber equipment, and IO equipment for indicating user uses double-current emission mode; In the index represented by 1 subframe of base station use destination channel is that in X to 63,63-X kind value state representation SR feeds back to subscriber equipment arbitrarily, and SR equipment for indicating user uses double-current emission mode; Not being used in X to 63 in the index that base station uses 1 subframe of destination channel to represent representing that 1 index of SR represents is single current emission mode to subscriber equipment feedback, and X is natural number.

For mode F1, with aforementioned implementation E1 unlike, in F1, 1 index is had to be used for representing that single current is launched in 1 of destination channel 0 to 63 indexes represented by subframe, such as, when IO has 4 kinds of value states, base station can be used for index 0 to the index 58 in index in 0 to 59 represented by the subframe of 1 of destination channel representing that SR is to user feedback, index of reference 59 represents that single current is launched, base station index of reference 60 to 603 represents IO, because only just need to send SR and IO when double fluid reflection, represent that subscriber equipment have received SR when to be received the data on index 0 to 58 by destination channel when subscriber equipment, what represent when to be have received the data on index 59 by destination channel when subscriber equipment that base station feeds back to subscriber equipment is that single current is launched.For mode F2, with aforementioned implementation E2 unlike, in F2,1 index is had to be used for representing that single current is launched in 1 subframe, 0 to 63 indexes of destination channel, it should be noted that, in actual applications, specifically which index for represent to subscriber equipment feedback be single current reflection can dispose flexibly, as long as have 0 to 63 indexes from 1 subframe of destination channel and take out any one index, specific implementation does not limit herein.

It should be noted that, 1 subframe of control signal by destination channel is fed back to subscriber equipment by base station, specifically can comprise:

If IO takies Y bit, base station uses Y bit of 1 subframe of destination channel to represent that IO feeds back to subscriber equipment, and base station uses other 6-Y bit of 1 subframe of destination channel to represent that SR feeds back to subscriber equipment, and Y is natural number.

Further, in the present embodiment, if described control signal comprises SR and IO, particularly, in described control signal, SR is 5 bits, and IO is 1 bit, wherein, IO is index value, is used to indicate between stream that described subscriber equipment uses described base station to issue and disturbs offset information, disturbs offset information to be between described stream, described base station by system broadcasts or RRC transmitting signaling downwards, one during many groups are biased with reference to a group in E-TFC set or multiple authorization value.

For needing the mode issuing IO fast, base station uses 6 symbols of 1 subframe of destination channel to subscriber equipment feedback SR and IO, can according to the required precision of IO also specific implementation.

In embodiment provided by the invention, SR and IO is fed back to subscriber equipment by 6 symbols of 1 subframe of destination channel by base station, and SR at least takies 4 bits, can improve the precision of feedback SR, and solve base station issues problem from IO to subscriber equipment.

The sending method of the control signal that the another kind of E-TFC that next introducing the embodiment of the present invention provides selects, refers to shown in Fig. 8, comprising:

801, base station obtains the control signal that E-TFC selects, and wherein, control signal comprises: the scheduling authorization value SG of main flow, the SG of secondary flow and the biased IO of interference.

Wherein, the mode of base station acquisition control signal refers to the description of previous embodiment, and difference is, in embodiment provided herein, the control signal that base station obtains includes the SG of main flow, SG and IO of secondary flow.

802, base station is by strengthening dedicated channel absolute grant channel (E-AGCH, E-DCH AbsoluteGrant Channel) the scheduling authorization value (SG of the main flow of 4 bits is issued to subscriber equipment, SchedulingGrant), base station strengthens by auxiliary dedicated channel absolute grant channel (S-E-AGCH, SecondaryE-DCH Absolute Grant Channel) issues SG from the secondary flow of 4 bits to subscriber equipment;

803, biased for interference IO is fed back to subscriber equipment by 1 subframe of E-AGCH and 1 subframe of S-E-AGCH by base station, and 1 subframe of E-AGCH and 1 subframe of S-E-AGCH have identical System Frame Number subframe numbers.

It should be noted that, in embodiments of the present invention, step 802 and step 803 can perform simultaneously, also can first perform step 802 and perform step 803 again, can also first perform step 803 and perform step 802 again, specifically not limit herein.

In embodiments of the present invention, in UL-MIMO stream transmission, base station carries the SG of main flow and the SG of secondary flow of two streams respectively by E-AGCH and S-E-AGCH.The SG of the main flow wherein E-AGCH channel carried for adjusting the transmitting power of main flow, and selects for the E-TFC of main flow simultaneously.The SG of the secondary flow that S-E-AGCH channel carries is for determining the transmission block size of secondary flow, and under non-power limited situation, the transmitting power of secondary flow is identical with main flow, is namely all determined by the SG of main flow.

The use two-way E-AGCH dispatching method provided according to the embodiment of the present invention, UE can determine the RI of the uplink that base station is specified by blind check S-E-AGCH: if detect S-E-AGCH, and show that base station allows UE to use stream transmission, what RI represented is exactly stream transmission; Otherwise UE can only use single-stream transmission, what RI can only represent is single-stream transmission, doing so avoids the expense that base station initiatively issues RI.

It should be noted that, scheduling authorization value SG is for the most high transmit power of control UE, the transmitting power that SG illustrates data channel E-DPDCH and S-E-DPDCH on the major-minor stream of UE is biased relative to the maximum power of main flow DPCCH channel, therefore SG directly affects base station upper base to make an uproar lifting (RoT, Rise over Thermal) amount, the schedule information that the uplink interference of to be base station be control UE issues.

It should be noted that, in embodiments of the present invention, the E-TFC that the SG of main flow and the SG of secondary flow is respectively used to major-minor stream selects, and does not also need to issue extra SR.

In embodiments of the present invention, 1 subframe of E-AGCH carries the SG of main flow, and 1 subframe of S-E-AGCH carries the SG of secondary flow, so for the idle bit of E-AGCH and the idle bit of S-E-AGCH, just may be used for transmission disturbance and is biased IO.

1 subframe for E-AGCH can carry the SG of the main flow of 4 bits, and 1 of E-AGCH subframe has 6 bits, wherein also to there is 1 bit for beared information territory, then 1 subframe of E-AGCH is also had to the free time of 1 bit, same 1 subframe for S-E-AGCH can carry the SG of the secondary flow of 4 bits, and 1 of S-E-AGCH subframe has 6 bits, because secondary flow transmission block size range of choice is identical with main flow, there is the free time of this 1 bit equally.Again because secondary flow is identical with the SG action scope of main flow, therefore the information field of E-AGCH is used just can to indicate the SG action scope of secondary flow, be exactly the symbol that the information field of secondary flow is idle, namely S-E-AGCH has the free time of 2 bits altogether, always E-AGCH and S-E-AGCH co-exists in the free time of 3 bits.So, concrete, biased for interference IO is fed back to subscriber equipment by the free time of the free time of 1 subframe of E-AGCH and 1 subframe of S-E-AGCH by base station, comprising: the IO of 3 bits is fed back to subscriber equipment by 2 bits of 1 bit of 1 subframe of E-AGCH and 1 subframe of S-E-AGCH by base station.

In embodiment provided by the invention, base station illustrates SR by the secondary flow SG of main flow SG and 4 bit of 4 bits, and SR at least takies 4 bits, the precision of feedback SR can be improved, and feed back IO by 1 subframe of E-AGCH and 1 subframe of S-E-AGCH to subscriber equipment, solve base station issues problem from IO to subscriber equipment.

In prior art, when base station scheduling user terminal is switched to single-stream transmission by double fluid, bill double fluid must be descended to switch instruction, therefore class E-AGCH channel must be used, the scheduling authorization value of the single-stream transmission simultaneously issued by E-AGCH letter, is used to indicate the transmitting power of single current and carries out E-TFC and select to determine transmission block size.Use prior art to carry out list double fluid to switch, base station must use two code channels to issue E-AGCH channel and class E-AGCH channel simultaneously, or use two to strengthen Radio Network Temporary Identifier (E-RNTI, Enhance Radio Network Temporary Identity) descend the instruction of bill double fluid and single current scheduling authorization value respectively, the former consumes larger code channel resource, scheduling may be caused congested, and the latter adopts time-division scheduling mode, can bring scheduler latency.

For head it off, the sending method of the control signal that the another kind of E-TFC that next introducing the embodiment of the present invention provides selects, refers to shown in Fig. 9, comprising:

901, base station obtains the control signal that E-TFC selects, and wherein, control signal comprises: order instruction RI and single current scheduling authorization information.

In embodiments of the present invention, the control signal that base station obtains comprises order instruction RI and single current scheduling authorization information, wherein RI is also referred to as the instruction of the highest order, RI represent base station to subscriber equipment issue be single current instruction or double fluid instruction, RI includes the maximum order of base station to user device transmissions, in actual applications, specifically can represent that single current indicates with RI=1, represent double fluid instruction with RI=2.

It should be noted that, if RI represent be single current instruction time, the control information that when single current scheduling authorization information is for carrying single-stream transmission, E-TFC selects, the control information that during carrying single-stream transmission, E-TFC selects is the one in following three kinds of information:

Absolute scheduling grants value (AG, the Absolute Grant) index of single current; The absolute scheduling grants value of single current is relative to the bias of double-current absolute scheduling grants value index; The deviant of the single current absolute scheduling grants value index of the relative previous time period of absolute scheduling grants value of single current.

That is, when RI represent be single current instruction time, wherein, single current scheduling authorization information have following three kinds may:

1) absolute scheduling grants value (AG value) index, during single-stream transmission;

2) AG, during single-stream transmission is relative to a side-play amount of double-current AG index value;

3) AG, during single-stream transmission is relative to a side-play amount of a upper moment single current AG index value.

It should be noted that, single current scheduling authorization information can also comprise scheduling authorization value action scope (Scope) instruction of 1 bit, wherein, the instruction of scheduling authorization value action scope is for characterizing single current scheduling authorization information function in the process of current hybrid automatic repeat-request (HARQ, Hybrid Automatic Repeat Request) or single current scheduling authorization information function in the process of all HARQ.

If base station needs by the HARQ process respectively through-put power of dispatch terminal in each process and transmission block size, base station can also comprise the scheduling authorization value action scope instruction of 1 bit in above-mentioned single current schedule information.Above-mentioned scheduling authorization value action scope instruction is used to indicate user terminal, and the above-mentioned single current scheduling authorization information be currently received only acts on current HARQ process, or acts on all HARQ processes.

It should be noted that, if single current scheduling authorization information does not comprise the instruction of scheduling authorization value action scope, the action scope of so described single current schedule information is identical with the action scope of the scheduling authorization information that previous time period base station issues.The scheduling authorization information that previous time period base station issues can be the single current absolute scheduling grants value of base station transmission when upper once scheduling user's set carries out single-stream transmission, or the double-current absolute scheduling grants value of transmission when the last scheduling user's set in base station carries out stream transmission.

It should be noted that, if RI represent be double fluid instruction time, the control information that when single current scheduling authorization information is for carrying stream transmission, E-TFC selects, wherein, the control information that during carrying stream transmission, E-TFC selects is at least one in following information:

The absolute scheduling grants value index of secondary flow; The absolute scheduling grants value of secondary flow is relative to the bias of main flow absolute scheduling grants value index; Major-minor stream received signal to noise ratio difference; The E-TFCI of secondary flow is relative to the bias of main flow E-TFCI; The biased IO of double fluid interference.

902,1 subframe of control signal by destination channel is fed back to subscriber equipment by base station, wherein, the spreading factor of destination channel is 256,1 system-frame of destination channel comprises 5 subframes, each subframe comprises 3 time slots, each time slot comprises 10 symbols, each symbols carry 2 bit information, and order instruction and single current scheduling authorization information are carried in 1 subframe of destination channel after coding.

In embodiments of the present invention, when base station scheduling user terminal is switched to single current by double fluid, the destination channel defined in the present invention can be used to send single current scheduling authorization information, this destination channel has following feature: 1 system-frame of destination channel includes 5 subframes, each system-frame is the length of 10ms, each subframe includes 3 time slots, each time slot comprises 10 symbols, each symbols carry 2 bit information, each subframe uses 60 bits of encoded to represent order instruction and the single current scheduling authorization information of 6 bits, as shown in Figure 10,1 subframe of destination channel is 2ms, AG1, AG2, AG3, AG4, AG5, RI, each time slot of this destination channel carries 20 Bit datas, and 3 time slots of 1 subframe use 60 bits of encoded to illustrate AG1 altogether, AG2, AG3, AG4, AG5, RI, 6 bit informations are through cyclic redundancy check (CRC), 60 bit informations are obtained after chnnel coding and rate-matched, this 60bit information sends at 3 time slots of a subframe, each time slot sends 20bit information, in Figure 10, AG takies 5 bits, IO takies 1 bit, in actual applications, SR can also take 4 bits, IO takies 1 bit, single current scheduling authorization information can also comprise scheduling authorization value action scope (Scope) instruction of 1 bit, refer to shown in Figure 11,3 time slots of 1 subframe use 60 bits of encoded to illustrate AG1 altogether, AG2, AG3, AG4, Scope, RI, its diagram is similar with Figure 10, repeats no more herein.

It should be noted that, for the step 902 that the embodiment of the present invention provides, can comprise: 1 subframe of the destination channel that base station uses the present invention to define is used for carrying 64 index values, the control information that when wherein a part of index value is used to indicate single-stream transmission and carries single-stream transmission, E-TFC selects, the control information that when another part index value is used to indicate stream transmission and carries single-stream transmission, E-TFC selects.Concrete, can comprise the steps:

If single current scheduling authorization information has X kind state, the control information that when base station uses 0 to X-1 in the index represented by 1 subframe of destination channel to be total to X kind state representation single-stream transmission and carries single-stream transmission, E-TFC selects is fed back to subscriber equipment, the control information that when base station uses the X to 63 in the index represented by 1 subframe of destination channel to be total to 64-X kind value state representation stream transmission and carries stream transmission, E-TFC selects is fed back to subscriber equipment, wherein, X is natural number; Or,

If single current scheduling authorization information has X kind state, the control information that when base station uses the 64-X to 63 in the index represented by 1 subframe of destination channel to be total to X kind state representation single-stream transmission and carries single-stream transmission, E-TFC selects is fed back to subscriber equipment, the control information that when base station uses the X to 0 in the index represented by 1 subframe of destination channel to be total to 63-X kind state representation stream transmission and carries stream transmission, E-TFC selects is fed back to subscriber equipment, wherein, X is natural number.

In embodiment provided by the invention, the control signal that base station gets includes RI and single current scheduling authorization information, control signal is fed back to subscriber equipment by the destination channel then by defining in the present invention, method provided by the invention can remove the dependence to E-AGCH channel, namely adopt destination channel to issue order instruction simultaneously and single current scheduling authorization information just passable, the code channel expense of scheduling can be saved.

Sending method, the method for reseptance of the control signal that the E-TFC that above embodiment describes the embodiment of the present invention to be provided selects, next introduce corresponding device: base station, refers to shown in Figure 12, and base station 1200, comprising:

Acquiring unit 1201, for obtaining the control signal that E-TFC selects, wherein, control signal comprises: double-current channel quality is biased IO than SR and/or interference;

Feedback unit 1202, for at least 6 symbols of control signal by least two continuous print subframes of destination channel are fed back to subscriber equipment, wherein, control signal at least takies 6 bits altogether, if control signal comprises SR, SR at least takies 4 bits, the spreading factor of destination channel is 256,1 system-frame of destination channel comprises 5 subframes, and each subframe comprises 3 time slots, and each time slot comprises 10 symbols.

For feedback unit 1202, as a kind of implementation wherein, feedback unit 1202 specifically can comprise as lower unit, refers to shown in Figure 13:

Judgment sub-unit 12021, for judge order instruction RI represent be single current instruction or double fluid instruction;

First feedback subelement 12022, for represent as RI be double fluid indicate time, SR is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of destination channel;

Second feedback subelement 12023, for represent as RI be single current indicate time, IO is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of destination channel.

It should be noted that, for the first feedback subelement, as a kind of implementation wherein, first feedback subelement, specifically for the SR of 6 bits is fed back to subscriber equipment by 6 symbols of two continuous print subframes of destination channel, or, the SR of 9 bits is fed back to subscriber equipment by 9 symbols of three continuous print subframes of destination channel.

It should be noted that, for the second feedback subelement, as a kind of implementation wherein, the second feedback subelement, specifically for feeding back IO to subscriber equipment by 6 symbols of two continuous print subframes of destination channel; Or, IO is repeated to send to subscriber equipment by 3 respective symbols of two continuous print subframes of destination channel.

It should be noted that, for the second feedback subelement, as a kind of implementation wherein, the second feedback subelement, comprises (not shown in Figure 12):

Configuration module, needs the pattern adopted, the time span in the DTX cycle indicating base station to arrange in this pattern and the IO transmission timing offset within the DTX cycle for pre-configured transmission IO;

Feedback module, for according to the pattern sending IO employing, feeds back IO by least 6 symbols of at least two continuous print subframes of destination channel to subscriber equipment.

It should be noted that, for feedback unit 1201, as a kind of implementation wherein, feedback unit 1201 is also for feeding back the RI of 1 bit to subscriber equipment by 1 symbol of 1 subframe of destination channel.

It should be noted that, for feedback unit 1201, as a kind of implementation wherein, if control signal comprises SR and IO, feedback unit, specifically for jointly feeding back SR and IO to subscriber equipment by 6 symbols of two continuous print subframes of destination channel; Or, SR and IO is fed back to subscriber equipment jointly by 9 symbols of three continuous print subframes of destination channel.

Concrete, if IO has X kind value state, feedback unit, be total to 64-X kind value state representation SR specifically for using 0 to 63-X in the index represented by two continuous print subframes of destination channel to feed back to subscriber equipment, use the 64-X to 63 in the index represented by two continuous print subframes of destination channel to be total to X kind value state representation IO to feed back to subscriber equipment, X is natural number; Or,

Feedback unit, be total to X kind value state representation IO specifically for using 0 to X-1 in the index represented by two continuous print subframes of destination channel to feed back to subscriber equipment, use the X to 63 in the index represented by two continuous print subframes of destination channel to be total to 64-X kind value state representation SR to feed back to subscriber equipment, X is natural number.

It should be noted that, for feedback unit, as another kind of implementation wherein, feedback unit, if take Y bit specifically for IO, use Y bit of two continuous print subframes of destination channel to represent that IO feeds back to subscriber equipment, use 6-Y of two continuous print subframes of destination channel symbol bit to represent that SR feeds back to subscriber equipment, Y is natural number.

It should be noted that, for feedback unit, as another kind of implementation wherein, feedback unit, comprises (not shown in Figure 12):

Configuration subelement, for arranging the common issue cycle for SR and IO, this common issue cycle comprises the first time period for launching SR and the second time period for launching IO;

3rd feedback subelement, for SR being fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of destination channel in first time period, within the second time period, IO is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of destination channel.

It should be noted that, the content such as information interaction, implementation between each module/unit of said apparatus, due to the inventive method embodiment based on same design, its technique effect brought is identical with the inventive method embodiment, particular content see describing in the embodiment of the method shown in previous embodiment of the present invention, can repeat no more herein.

In embodiment provided by the invention, at least 6 symbols of at least two continuous print subframes of the destination channel that control signal is defined by the present invention by feedback unit feed back to subscriber equipment, and SR at least takies 4 bits, the precision of feedback SR can be improved, and solve base station issues problem from IO to subscriber equipment.

Above embodiment describes a kind of base station that the embodiment of the present invention provides, next the another kind of base station that the embodiment of the present invention provides is introduced, legend and above-mentioned Figure 12 similar, just included acquiring unit is different with the content of feedback unit, no longer illustrates herein.Wherein, base station comprises:

Acquiring unit, for obtaining the control signal that E-TFC selects, wherein, control signal comprises: double-current channel quality is biased IO than SR and/or interference;

Feedback unit, for 1 subframe of control signal by destination channel being fed back to subscriber equipment, wherein, control signal takies 6 bits altogether, if control signal comprises SR, SR at least takies 4 bits, and the spreading factor of destination channel is 256, and 1 system-frame of destination channel comprises 5 subframes, each subframe comprises 3 time slots, each time slot comprises 10 symbols, each symbols carry 2 bit information, and each subframe uses 60 bits of encoded to represent control signal.

It should be noted that, for feedback unit, as a kind of implementation wherein, 1 subframe of destination channel is used for expression 64 index values, is respectively used to indicate SR and IO;

If IO takies X kind value state,

Feedback unit, be total to 64-X kind value state representation SR specifically for using 0 to 63-X in the index represented by 1 subframe of destination channel to feed back to subscriber equipment, use the 64-X to 63 in the index represented by 1 subframe of destination channel to be total to X kind value state representation IO to feed back to subscriber equipment, X is natural number; Or,

Feedback unit, be total to X kind value state representation IO specifically for using 0 to X-1 in the index represented by 1 subframe of destination channel to feed back to subscriber equipment, use the X to 63 in the index represented by 1 subframe of destination channel to be total to 64-X kind value state representation SR to feed back to subscriber equipment, X is natural number.

In embodiments of the present invention, base station is in order to launch or double fluid transmitting to user feedback single current, feedback unit, specifically for 1 of destination channel subframe being used for expression 64 index values, wherein 63 index value equipment for indicating users use double-current emission mode, and indicating SR and IO, remaining 1 index value is used to indicate subscriber equipment and uses single current emission mode.

Concrete, if IO has X kind value state, feedback unit, specifically for using any 64-X-1 kind value state representation SR in 0 to 63-X in the index represented by 1 subframe of destination channel to feed back to subscriber equipment, SR equipment for indicating user uses double-current emission mode; Using in 0 to 63-X in the index represented by 1 subframe of destination channel and not being used for representing that 1 index of SR represents is single current emission mode to subscriber equipment feedback, use the 64-X to 63 in the index represented by 1 subframe of destination channel to be total to X kind value state representation IO to feed back to subscriber equipment, IO equipment for indicating user uses double-current emission mode, and X is natural number; Or,

If IO has X kind value state, feedback unit, be total to value state representation IO in X specifically for using 0 to X-1 in the index represented by 1 subframe of destination channel and feed back to subscriber equipment, IO equipment for indicating user uses double-current emission mode; In the index represented by 1 subframe of use destination channel is that in X to 63,63-X kind value state representation SR feeds back to subscriber equipment arbitrarily, and SR equipment for indicating user uses double-current emission mode; Not being used in X to 63 in the index using 1 subframe of destination channel to represent representing that 1 index of SR represents is single current emission mode to subscriber equipment feedback, and X is natural number.

It should be noted that, for feedback unit, as another kind of implementation wherein, feedback unit, Y the bit specifically for 1 subframe using destination channel represents that IO feeds back to subscriber equipment, use other 6-Y bit of 1 subframe of destination channel to represent that SR feeds back to subscriber equipment, Y is natural number.

Further, if described control signal comprises described SR and described IO, particularly, in described control signal, described SR is 5 bits, described IO is 1 bit, and wherein, described IO is index value, be used to indicate between stream that described subscriber equipment uses described base station to issue and disturb offset information, disturb offset information to be between described stream, described base station by system broadcasts or RRC transmitting signaling downwards, one during many groups are biased with reference to a group in E-TFC set or multiple authorization value.

In embodiment provided by the invention, 1 subframe of the destination channel that control signal is defined by the present invention by feedback unit is fed back to subscriber equipment, and SR at least takies 4 bits, the precision of feedback SR can be improved, and solve base station issues problem from IO to subscriber equipment.

Above embodiment describes a kind of base station that the embodiment of the present invention provides, and next introduces the another kind of base station that the embodiment of the present invention provides, and as shown in figure 14, base station 1400, comprising:

Acquiring unit 1401, for obtaining the control signal that E-TFC selects, wherein, control signal comprises: the scheduling authorization value SG of main flow, the SG of secondary flow and the biased IO of interference;

First feedback unit 1402, for being issued the scheduling authorization value SG of the main flow of 4 bits to subscriber equipment by enhancing dedicated channel absolute grant channel E-AGCH, issued the SG of the secondary flow of 4 bits to subscriber equipment by auxiliary enhancing dedicated channel absolute grant channel S-E-AGCH, wherein, double-current quality channel difference SR is the SG of SG divided by secondary flow of main flow;

Second feedback unit 1403, for being fed back to subscriber equipment by 1 subframe of E-AGCH and 1 subframe of S-E-AGCH by biased for interference IO, 1 subframe of E-AGCH and 1 subframe of S-E-AGCH have identical System Frame Number subframe numbers.

It should be noted that, for the second feedback unit, as a kind of implementation wherein, the second feedback unit, specifically for feeding back the IO of 3 bits to subscriber equipment by 1 subframe of E-AGCH and 1 subframe of S-E-AGCH.

In embodiment provided by the invention, the main flow SG of 4 bits has been fed back in base station to subscriber equipment by E-AGCH, fed back the secondary flow SG of 4 bits to subscriber equipment by S-E-AGCH, make subscriber equipment can know double-current channel quality higher compared to existing technology by the secondary flow SG of main flow SG and 4 bit of 4 bits, the precision of feedback SR can be improved, and feed back IO by 1 subframe of E-AGCH and 1 subframe of S-E-AGCH to subscriber equipment, solve base station issues problem from IO to subscriber equipment.

Next, the embodiment of the present invention provides a kind of subscriber equipment, and as shown in figure 15, subscriber equipment 1500, comprising:

Receiving element 1501, at least 6 symbols at least two continuous print subframes by destination channel receive the control signal of base station feedback, described control signal comprises: double-current channel quality is biased IO than SR and/or interference, wherein, described control signal at least takies 6 bits altogether, if described control signal comprises described SR, described SR at least takies 4 bits, the spreading factor of described destination channel is 256,1 system-frame of described destination channel comprises 5 subframes, each subframe comprises 3 time slots, and each time slot comprises 10 symbols;

Amending unit 1502, for carrying out revising transport block length when E-TFCI selects at major-minor stream according to described SR and/or described IO.

Wherein, for receiving element 1501, be that receiving element specifically can comprise following structure (not shown in Figure 15) as attainable mode:

First receives subelement, for receiving the pattern of the biased IO employing of the transmission interference of feeding back in advance base station, the time span in the DTX cycle indicating base station to arrange in pattern and the IO transmission timing offset within the DTX cycle;

Second receives subelement, for needing the pattern of employing according to sending IO, IO is received at least 6 symbols of at least two continuous print subframes of destination channel, wherein, the spreading factor of destination channel is 256,1 system-frame of destination channel comprises 5 subframes, and each subframe comprises 3 time slots, and each time slot comprises 10 symbols.

In embodiments of the present invention, receiving element have received the control signal of base station feedback by the destination channel defined in the present invention, and amending unit can carry out revising transport block length when E-TFCI selects according to this control signal.Concrete, first receives the pattern that subelement have received the transmission IO employing that base station pre-sets, then second receive subelement when carrying out reception IO by destination channel, just can according to the transmission timing offset of the IO indicated in this pattern in DTX, and do not need subscriber equipment demodulation destination channel constantly, improve the efficiency receiving IO.

Above embodiment describes a kind of subscriber equipment that the embodiment of the present invention provides, next the another kind of subscriber equipment that the embodiment of the present invention provides is introduced, legend and above-mentioned Figure 15 similar, the first just included receiving element is different with the content of the second receiving element, no longer illustrates herein.Wherein, subscriber equipment, comprising:

Amending unit, for carrying out revising transport block length when E-TFCI selects at major-minor stream according to described SR and/or described IO.

Wherein, for receiving element, as attainable mode be, receiving element specifically can comprise following structure:

First receives subelement, and for receiving the common issue cycle that base station pre-sets, the common issue cycle comprises base station for launching double-current channel quality than the first time period of SR and base station for launching second time period of the biased IO of interference;

Second receives subelement, SR is received at least 6 symbols by least two continuous print subframes of destination channel in first time period, at least 6 symbols of subscriber equipment by least two continuous print subframes of destination channel within the second time period receive IO, wherein, the spreading factor of destination channel is 256,1 system-frame of destination channel comprises 5 subframes, and each subframe comprises 3 time slots, and each time slot comprises 10 symbols.

Receiving element have received the control signal of base station feedback by the destination channel defined in the present invention, and amending unit can carry out revising transport block length when E-TFCI selects according to this control signal.Concrete, first reception subelement have received the common issue cycle that base station pre-sets, then second receive subelement when carrying out reception IO by destination channel, just can receive SR and IO respectively according to indicating in this common issue cycle first time period and the second time period, improving the efficiency receiving SR and IO.

The switching of list double fluid is carried out in order to solve prior art, base station must use two code channels to issue E-AGCH channel and class E-AGCH channel simultaneously, or use two E-RNTI to descend the instruction of bill double fluid and single current scheduling authorization value respectively, the former consumes larger code channel resource, and scheduling may be caused congested, and the latter adopts time-division scheduling mode, scheduler latency can be brought, the embodiment of the present invention additionally provides a kind of base station, refers to shown in Figure 16, and base station 1600 comprises:

Acquiring unit 1601, for obtaining the control signal that E-TFC selects, wherein, control signal comprises: order instruction RI and single current scheduling authorization information;

Feedback unit 1602, for 1 subframe of control signal by destination channel is fed back to subscriber equipment, wherein, the spreading factor of destination channel is 256,1 system-frame of destination channel comprises 5 subframes, and each subframe comprises 3 time slots, and each time slot comprises 10 symbols, each symbols carry 2 bit information, order instruction and single current scheduling authorization information are carried in 1 subframe of described destination channel after coding.

It should be noted that, for the feedback unit that the embodiment of the present invention provides, feedback unit specifically may be used for using 1 subframe of destination channel to be used for carrying 64 index values, the control information that when wherein a part of index value is used to indicate single-stream transmission and carries single-stream transmission, E-TFC selects, the control information that when another part index value is used to indicate stream transmission and carries single-stream transmission, E-TFC selects.

Concrete, if single current scheduling authorization information has X kind state, feedback unit, the control information that when being total to X kind state representation single-stream transmission specifically for using 0 to X-1 in the index represented by 1 subframe of destination channel and carrying single-stream transmission, E-TFC selects is fed back to subscriber equipment, the control information that when base station uses the X to 63 in the index represented by 1 subframe of destination channel to be total to 64-X kind value state representation stream transmission and carries stream transmission, E-TFC selects is fed back to subscriber equipment, wherein, X is natural number; Or,

If single current scheduling authorization information has X kind state, feedback unit, the control information that when being total to X kind state representation single-stream transmission specifically for using the 64-X to 63 in the index represented by 1 subframe of destination channel and carrying single-stream transmission, E-TFC selects is fed back to subscriber equipment, the control information that when base station uses the X to 0 in the index represented by 1 subframe of destination channel to be total to 63-X kind state representation stream transmission and carries stream transmission, E-TFC selects is fed back to subscriber equipment, wherein, X is natural number.

One of ordinary skill in the art will appreciate that all or part of step realized in above-described embodiment method is that the hardware that can carry out instruction relevant by program completes, described program can be stored in a kind of computer-readable recording medium, the above-mentioned storage medium mentioned can be read-only memory, disk or CD etc.

Above the sending, receiving method of the control signal that a kind of E-TFC provided by the present invention selects and relevant apparatus are described in detail, for one of ordinary skill in the art, according to the thought of the embodiment of the present invention, all will change in specific embodiments and applications, in sum, this description should not be construed as limitation of the present invention.

Claims

1. strengthen a sending method for the control signal that dedicated channel transport format combination E-TFC selects, it is characterized in that, comprising:

2. method according to claim 1, is characterized in that, at least 6 symbols of described control signal by least two continuous print subframes of destination channel feed back to subscriber equipment by described base station, comprising:

Base station judge order instruction RI represent be single current instruction or double fluid instruction;

If what described RI represented is double fluid instruction, described SR is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of destination channel by described base station;

If what described RI represented is single current instruction, described IO is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of described destination channel by described base station.

3. method according to claim 2, is characterized in that, described SR is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of destination channel by described base station, comprising:

The SR of 6 bits is fed back to subscriber equipment by 6 symbols of two continuous print subframes of described destination channel by described base station;

Or the SR of 9 bits is fed back to subscriber equipment by 9 symbols of three continuous print subframes of described destination channel by described base station.

4. method according to claim 2, is characterized in that, described IO is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of described destination channel by described base station, comprising:

Described IO is fed back to subscriber equipment by 6 symbols of two continuous print subframes of described destination channel by described base station;

Or described IO repeats to send to subscriber equipment by 3 respective symbols of two continuous print subframes of described destination channel by described base station.

5. method according to claim 2, is characterized in that, described IO is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of described destination channel by described base station, comprising:

The described IO of the pre-configured transmission in described base station needs the pattern adopted, the time span in the discontinuous transmitting DTX cycle indicating described base station to arrange in described pattern and the transmission timing offset of described IO within the DTX cycle;

According to the pattern sending described IO employing, described base station feeds back described IO by least 6 symbols of at least two continuous print subframes of described destination channel to subscriber equipment.

6. method according to claim 1, is characterized in that, described method also comprises:

The RI of 1 bit is fed back to subscriber equipment by 1 symbol of 1 subframe of described destination channel by described base station.

7. method according to claim 1, it is characterized in that, if described control signal specifically comprises described SR and described IO, at least 6 symbols of described control signal by least two continuous print subframes of destination channel feed back to subscriber equipment by described base station, comprising:

Described SR and described IO is fed back to subscriber equipment by 6 symbols of two continuous print subframes of described destination channel by described base station;

Or described SR and described IO is fed back to subscriber equipment by 9 symbols of three continuous print subframes of described destination channel by described base station.

8. method according to claim 7, is characterized in that, described SR and described IO is fed back to subscriber equipment by 6 symbols of two continuous print subframes of described destination channel by described base station, comprising:

If described IO has X kind value state, described base station uses SR described in the common 64-X kind value state representation of 0 to 63-X in two of described destination channel indexes represented by continuous print subframe to feed back to subscriber equipment, described base station uses IO described in the common X kind value state representation of the 64-X to 63 in two of described destination channel indexes represented by continuous print subframe to feed back to subscriber equipment, and described X is natural number; Or,

If described IO has X kind value state, described base station uses IO described in the common X kind value state representation of 0 to X-1 in two of described destination channel indexes represented by continuous print subframe to feed back to subscriber equipment, described base station uses SR described in the common 64-X kind value state representation of the X to 63 in two of described destination channel indexes represented by continuous print subframe to feed back to subscriber equipment, and described X is natural number.

9. method according to claim 7, is characterized in that, described SR and described IO is fed back to subscriber equipment by 6 symbols of two continuous print subframes of described destination channel by described base station, comprising:

If described IO takies Y bit, described base station uses Y bit of two of described destination channel continuous print subframes to represent that described IO feeds back to subscriber equipment, described base station uses other 6-Y bit of two of described destination channel continuous print subframes to represent that described SR feeds back to subscriber equipment, and described Y is natural number.

10. method according to claim 1, is characterized in that, at least 6 symbols of described control signal by least two continuous print subframes of destination channel feed back to subscriber equipment by described base station, comprising:

Described base station is that described SR and described IO arrange the common issue cycle, and the described common issue cycle comprises the first time period for launching described SR and the second time period for launching described IO;

Described SR is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of described destination channel by described base station in described first time period, and described IO is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of described destination channel by described base station within described second time period.

The sending method of the control signal of 11. 1 kinds of E-TFC selections, is characterized in that, comprising:

12. methods according to claim 11, is characterized in that, 1 subframe of described control signal by described destination channel is fed back to subscriber equipment by described base station, comprising:

1 subframe of described destination channel is used for expression 64 index values, is respectively used to indicate described SR and described IO;

If described IO has X kind value state, described base station uses SR described in the common 64-X kind value state representation of 0 to 63-X in 1 of described destination channel index represented by subframe to feed back to subscriber equipment, described base station uses IO described in the common X kind value state representation of the 64-X to 63 in 1 of described destination channel index represented by subframe to feed back to subscriber equipment, and described X is natural number; Or,

If described IO has X kind value state, described base station uses IO described in the common X kind value state representation of 0 to X-1 in 1 of described destination channel index represented by subframe to feed back to subscriber equipment, described base station uses SR described in the common 64-X kind value state representation of the X to 63 in 1 of described destination channel index represented by subframe to feed back to subscriber equipment, and described X is natural number.

13. methods according to claim 11, is characterized in that, 1 subframe of described control signal by described destination channel is fed back to subscriber equipment by described base station, comprising:

1 of described destination channel subframe is used for expression 64 index values by described base station, wherein 63 index value equipment for indicating users use double-current emission mode, and indicating described SR and described IO, remaining 1 index value is used to indicate subscriber equipment and uses single current emission mode.

14. methods according to claim 13, it is characterized in that, 1 of described destination channel subframe is used for expression 64 index values by described base station, wherein 63 index value equipment for indicating users use double-current emission mode, and indicate described SR and described IO, remaining 1 index value is used to indicate subscriber equipment and uses single current emission mode, specifically comprises:

If described IO has X kind value state, described base station uses SR described in any 64-X-1 kind value state representation in 0 to 63-X in 1 of described destination channel index represented by subframe to feed back to subscriber equipment, and described SR equipment for indicating user uses double-current emission mode; Described base station use in 0 to 63-X in 1 of described destination channel index represented by subframe be not used for representing 1 index of described SR represent to subscriber equipment feedback be single current emission mode, described base station uses IO described in the common X kind value state representation of the 64-X to 63 in 1 of described destination channel index represented by subframe to feed back to subscriber equipment, described IO equipment for indicating user uses double-current emission mode, and described X is natural number; Or,

If described IO has X kind value state, described base station uses IO described in value state representation in the common X of 0 to X-1 in 1 of described destination channel index represented by subframe to feed back to subscriber equipment, and described IO equipment for indicating user uses double-current emission mode; Described base station uses feeding back to subscriber equipment for SR described in 63-X kind value state representation any in X to 63 in 1 of described destination channel index represented by subframe, and described SR equipment for indicating user uses double-current emission mode; Described base station use in the X to 63 in 1 of described destination channel index that subframe represents be not used for representing 1 index of described SR represent to subscriber equipment feedback be single current emission mode, described X is natural number.

15. methods according to claim 11, is characterized in that, 1 subframe of described control signal by destination channel is fed back to subscriber equipment by described base station, comprising:

If described IO takies Y bit, described base station uses Y bit of 1 of described destination channel subframe to represent that described IO feeds back to subscriber equipment, described base station uses other 6-Y bit of 1 of described destination channel subframe to represent that described SR feeds back to subscriber equipment, and described Y is natural number.

16. according to the method for claim 11 or 15, it is characterized in that, in described control signal, described SR is 5 bits, and described IO is 1 bit, wherein, described IO is index value, is used to indicate between stream that described subscriber equipment uses described base station to issue and disturbs offset information, disturbs offset information to be between described stream, described base station by system broadcasts or RRC transmitting signaling downwards, one during many groups are biased with reference to a group in E-TFC set or multiple authorization value.

The sending method of the control signal of 17. 1 kinds of E-TFC selections, is characterized in that, comprising:

18. methods according to claim 17, is characterized in that, biased for interference IO is fed back to subscriber equipment by 1 subframe of described E-AGCH and 1 subframe of described S-E-AGCH by described base station, comprising:

The described IO of 3 bits is fed back to subscriber equipment by 2 bits of 1 bit of 1 subframe of E-AGCH and 1 subframe of described S-E-AGCH by described base station.

The method of reseptance of the control signal of 19. 1 kinds of E-TFC selections, is characterized in that, comprising:

20. methods according to claim 19, is characterized in that, described control signal is specially described IO, and described subscriber equipment receives the control signal of base station feedback by least 6 symbols of at least two continuous print subframes of destination channel, comprising:

Subscriber equipment receives the pattern that the described IO of the transmission of feeding back in advance described base station needs to adopt, the time span in the discontinuous transmitting DTX cycle indicating described base station to arrange in described pattern and the transmission timing offset of described IO within the DTX cycle;

Described subscriber equipment needs the pattern of employing according to sending described IO, receive described IO at least 6 symbols of at least two continuous print subframes of described destination channel.

The method of reseptance of the control signal of 21. 1 kinds of E-TFC selections, is characterized in that, comprising:

Subscriber equipment receives the control signal of base station feedback by least 6 symbols of 1 subframe of destination channel, wherein, described control signal takies 6 bits altogether, if described control signal comprises SR, described SR at least takies 4 bits, the spreading factor of described destination channel is 256,1 system-frame of described destination channel comprises 5 subframes, each subframe comprises 3 time slots, each time slot comprises 10 symbols, each symbols carry 2 bit information, each subframe uses 60 bits of encoded to represent described control signal;

Described subscriber equipment carries out revising transport block length when E-TFC-selects at major-minor stream according to described SR and/or IO.

22. methods according to claim 21, is characterized in that, described control signal is specially described SR and described IO, and described subscriber equipment receives the control signal of base station feedback by least 6 symbols of at least two continuous print subframes of destination channel, comprising:

Subscriber equipment receives common issue cycle of pre-setting of base station, and the described common issue cycle comprises described base station for launching double-current channel quality than the first time period of SR and described base station for launching second time period of the biased IO of interference;

At least 6 symbols of at least two the continuous print subframes of described subscriber equipment by described destination channel in described first time period receive described SR, at least 6 symbols of at least two the continuous print subframes of described subscriber equipment by described destination channel within described second time period receive described IO, wherein, the spreading factor of described destination channel is 256,1 system-frame of described destination channel comprises 5 subframes, each subframe comprises 3 time slots, and each time slot comprises 10 symbols.

The sending method of the control signal of 23. 1 kinds of E-TFC selections, is characterized in that, comprising:

1 subframe of described control signal by destination channel is fed back to subscriber equipment by base station, wherein, the spreading factor of described destination channel is 256,1 system-frame of described destination channel comprises 5 subframes, each subframe comprises 3 time slots, each time slot comprises 10 symbols, each symbols carry 2 bit information, and described order instruction and described single current scheduling authorization information are carried in 1 subframe of described destination channel after coding.

24. methods according to claim 23, is characterized in that,

During single current instruction that what described RI represented is, the control information that when described single current scheduling authorization information is for carrying single-stream transmission, E-TFC selects, the control information that during described carrying single-stream transmission, E-TFC selects is the one in following three kinds of information:

The absolute scheduling grants value index of single current; The absolute scheduling grants value of single current is relative to the bias of double-current absolute scheduling grants value index; The deviant of the single current absolute scheduling grants value index of the relative previous time period of absolute scheduling grants value of single current.

25. methods according to claim 24, is characterized in that,

The action scope of described single current scheduling authorization information and described base station are identical in the action scope of the scheduling authorization information that previous time period sends, and described base station is the one in following two kinds of information in the scheduling authorization information that previous time period sends:

The single current absolute scheduling grants value of transmission when the front schedule said user's equipment in described base station carries out single-stream transmission; Or the double-current absolute scheduling grants value of the front schedule said user's equipment in described base station transmission when carrying out stream transmission.

26. methods according to claim 24, is characterized in that,

Described single current scheduling authorization information also comprises the scheduling authorization value action scope instruction of 1 bit, and the instruction of described scheduling authorization value action scope is for characterizing described single current scheduling authorization information function in the process of current hybrid automatic repeat-request HARQ or described single current scheduling authorization information function in the process of all HARQ.

27. methods according to claim 23, is characterized in that,

During double fluid instruction that what described RI represented is, the control information that when described single current scheduling authorization information is for carrying stream transmission, E-TFC selects, the control information that during described carrying stream transmission, E-TFC selects is at least one in following information:

The absolute scheduling grants value index of secondary flow; The absolute scheduling grants value of secondary flow is relative to the bias of main flow absolute scheduling grants value index; Major-minor stream received signal to noise ratio difference; The enhancing dedicated channel transport format combination of secondary flow indicates E-TFCI relative to the bias of main flow E-TFCI; The biased IO of double fluid interference.

28. methods according to claim 23, is characterized in that, 1 subframe of described control signal by destination channel is fed back to subscriber equipment by described base station, comprises,

Described base station uses 1 of described destination channel subframe to be used for carrying 64 index values, the control information that when wherein a part of index value is used to indicate single-stream transmission and described carrying single-stream transmission, E-TFC selects, the control information that when another part index value is used to indicate stream transmission and described carrying single-stream transmission, E-TFC selects.

29. methods according to claim 28, it is characterized in that, described base station uses 1 of described destination channel subframe to be used for carrying 64 index values, the control information that when wherein a part of index value is used to indicate single-stream transmission and described carrying single-stream transmission, E-TFC selects, the control information that when another part index value is used to indicate stream transmission and described carrying single-stream transmission, E-TFC selects, comprising:

If described single current scheduling authorization information has X kind state, the control information that when base station uses 0 to X-1 in the index represented by 1 subframe of destination channel to be total to X kind state representation single-stream transmission and carries single-stream transmission, E-TFC selects is fed back to subscriber equipment, the control information that when base station uses the X to 63 in the index represented by 1 subframe of destination channel to be total to 64-X kind value state representation stream transmission and carries stream transmission, E-TFC selects is fed back to subscriber equipment, wherein, X is natural number; Or,

If described single current scheduling authorization information has X kind state, the control information that when base station uses the 64-X to 63 in the index represented by 1 subframe of destination channel to be total to X kind state representation single-stream transmission and carries single-stream transmission, E-TFC selects is fed back to subscriber equipment, the control information that when base station uses the X to 0 in the index represented by 1 subframe of destination channel to be total to 63-X kind state representation stream transmission and carries stream transmission, E-TFC selects is fed back to subscriber equipment, wherein, X is natural number.

30. 1 kinds of base stations, is characterized in that, comprising:

31. base stations according to claim 30, is characterized in that, described feedback unit comprises:

Judgment sub-unit, for judge order instruction RI represent be single current instruction or double fluid instruction;

First feedback subelement, for represent as described RI be double fluid indicate time, described SR is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of destination channel;

Second feedback subelement, for represent as described RI be single current indicate time, described IO is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of described destination channel.

32. base stations according to claim 31, it is characterized in that, described first feedback subelement, specifically for the SR of 6 bits is fed back to subscriber equipment by 6 symbols of two continuous print subframes of described destination channel, or, the SR of 9 bits is fed back to subscriber equipment by 9 symbols of three continuous print subframes of described destination channel.

33. base stations according to claim 31, is characterized in that, described second feedback subelement, specifically for feeding back described IO to subscriber equipment by 6 symbols of two continuous print subframes of described destination channel; Or, described IO is repeated to send to subscriber equipment by 3 respective symbols of two continuous print subframes of described destination channel.

34. base stations according to claim 31, is characterized in that, described second feedback subelement comprises:

Configuration module, needs the pattern adopted, the time span in the discontinuous transmitting DTX cycle indicating described base station to arrange in described pattern and the transmission timing offset of described IO within the DTX cycle for the described IO of pre-configured transmission;

Feedback module, for according to the pattern sending described IO employing, feeds back described IO by least 6 symbols of at least two continuous print subframes of described destination channel to subscriber equipment.

35. base stations according to claim 30, is characterized in that, described feedback unit, also for being fed back to subscriber equipment by 1 symbol of 1 subframe of described destination channel by the RI of 1 bit.

36. base stations according to claim 30, it is characterized in that, if described control signal specifically comprises described SR and described IO, described feedback unit, specifically for described SR and described IO is fed back to subscriber equipment by 6 symbols of two continuous print subframes of described destination channel; Or, described SR and described IO is fed back to subscriber equipment by 9 symbols of three continuous print subframes of described destination channel.

37. base stations according to claim 36, is characterized in that, if described IO has X kind value state,

Described feedback unit, be total to SR described in 64-X kind value state representation specifically for using 0 to 63-X in the index represented by two of described destination channel continuous print subframes to feed back to subscriber equipment, use the 64-X to 63 in two of described destination channel indexes represented by continuous print subframe to be total to IO described in X kind value state representation to feed back to subscriber equipment, described X is natural number;

Or,

Described feedback unit, be total to IO described in X kind value state representation specifically for using 0 to X-1 in the index represented by two of described destination channel continuous print subframes to feed back to subscriber equipment, use the X to 63 in two of described destination channel indexes represented by continuous print subframe to be total to SR described in 64-X kind value state representation to feed back to subscriber equipment, described X is natural number.

38. base stations according to claim 36, it is characterized in that, described feedback unit, if take Y bit specifically for described IO, Y bit of two of described destination channel continuous print subframes is used to represent that described IO feeds back to subscriber equipment, use other 6-Y bit of two of described destination channel continuous print subframes to represent that described SR feeds back to subscriber equipment, described Y is natural number.

39. base stations according to claim 30, is characterized in that, described feedback unit, comprising:

Configuration subelement, for arranging the common issue cycle for described SR and described IO, the described common issue cycle comprises the first time period for launching described SR and the second time period for launching described IO;

3rd feedback subelement, for described SR being fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of described destination channel in described first time period, within described second time period, described IO is fed back to subscriber equipment by least 6 symbols of at least two continuous print subframes of described destination channel.

40. 1 kinds of base stations, is characterized in that, comprising:

41. base stations according to claim 40, is characterized in that, 1 subframe of described destination channel is used for expression 64 index values, is respectively used to indicate described SR and described IO;

If described IO takies X kind value state,

Described feedback unit, be total to SR described in 64-X kind value state representation specifically for using 0 to 63-X in the index represented by 1 of described destination channel subframe to feed back to subscriber equipment, use the 64-X to 63 in 1 of described destination channel index represented by subframe to be total to IO described in X kind value state representation to feed back to subscriber equipment, described X is natural number; Or,

Described feedback unit, be total to IO described in X kind value state representation specifically for using 0 to X-1 in the index represented by 1 of described destination channel subframe to feed back to subscriber equipment, use the X to 63 in 1 of described destination channel index represented by subframe to be total to SR described in 64-X kind value state representation to feed back to subscriber equipment, described X is natural number.

42. base stations according to claim 40, it is characterized in that, described feedback unit, specifically for 1 of described destination channel subframe being used for expression 64 index values, wherein 63 index value equipment for indicating users use double-current emission mode, and indicating described SR and described IO, remaining 1 index value is used to indicate subscriber equipment and uses single current emission mode.

43. base stations according to claim 42, it is characterized in that, if described IO has X kind value state, described feedback unit, specifically for using SR described in any 64-X-1 kind value state representation in 0 to 63-X in the index represented by 1 of described destination channel subframe to feed back to subscriber equipment, described SR equipment for indicating user uses double-current emission mode; Use in 0 to 63-X in 1 of described destination channel index represented by subframe be not used for representing 1 index of described SR represent to subscriber equipment feedback be single current emission mode, use the 64-X to 63 in 1 of described destination channel index represented by subframe to be total to IO described in X kind value state representation to feed back to subscriber equipment, described IO equipment for indicating user uses double-current emission mode, and described X is natural number; Or,

If described IO has X kind value state, described feedback unit, be total to IO described in value state representation in X specifically for using 0 to X-1 in the index represented by 1 of described destination channel subframe to feed back to subscriber equipment, described IO equipment for indicating user uses double-current emission mode; Use feeding back to subscriber equipment for SR described in 63-X kind value state representation any in X to 63 in 1 of described destination channel index represented by subframe, described SR equipment for indicating user uses double-current emission mode; Use in the X to 63 in 1 of described destination channel index that subframe represents be not used for representing 1 index of described SR represent to subscriber equipment feedback be single current emission mode, described X is natural number.

44. base stations according to claim 40, it is characterized in that, if described IO takies Y bit, specifically for using Y bit of 1 of described destination channel subframe, described feedback unit represents that described IO feeds back to subscriber equipment, use 6-Y bit of 1 of described destination channel subframe to represent that described SR feeds back to subscriber equipment, described Y is natural number.

45. base stations according to claim 40 or 44, it is characterized in that, in described control signal, described SR is 5 bits, and described IO is 1 bit, wherein, described IO is index value, is used to indicate between stream that described subscriber equipment uses described base station to issue and disturbs offset information, disturbs offset information to be between described stream, described base station by system broadcasts or RRC transmitting signaling downwards, one during many groups are biased with reference to a group in E-TFC set or multiple authorization value.

46. 1 kinds of base stations, is characterized in that, comprising:

47. base stations according to claim 46, is characterized in that, described second feedback unit, specifically for being fed back to subscriber equipment by 2 symbols of 1 symbol of 1 subframe of E-AGCH and 1 subframe of described S-E-AGCH by the described IO of 3 bits.

48. 1 kinds of subscriber equipmenies, is characterized in that, comprising:

49. subscriber equipmenies according to claim 48, is characterized in that, described receiving element comprises:

First receives subelement, for receiving the pattern that the biased IO of transmission interference fed back in advance described base station needs to adopt, the time span in the discontinuous transmitting DTX cycle indicating described base station to arrange in described pattern and the transmission timing offset of described IO within the DTX cycle;

Second receives subelement, for needing the pattern of employing according to sending described IO, described IO is received at least 6 symbols of at least two continuous print subframes of described destination channel, wherein, the spreading factor of described destination channel is 256,1 system-frame of described destination channel comprises 5 subframes, and each subframe comprises 3 time slots, and each time slot comprises 10 symbols.

50. 1 kinds of subscriber equipmenies, is characterized in that, comprising:

Receiving element, at least 6 symbols for 1 subframe by destination channel receive the control signal of base station feedback, wherein, described control signal takies 6 bits altogether, if described control signal comprises SR, described SR at least takies 4 bits, the spreading factor of described destination channel is 256,1 system-frame of described destination channel comprises 5 subframes, each subframe comprises 3 time slots, each time slot comprises 10 symbols, each symbols carry 2 bit information, and each subframe uses 60 bits of encoded to represent described control signal;

Amending unit, for carrying out revising transport block length when E-TFCI selects at major-minor stream according to described SR and/or IO.

51. subscriber equipmenies according to claim 50, is characterized in that, described receiving element comprises:

First receives subelement, and for receiving the common issue cycle that base station pre-sets, the described common issue cycle comprises described base station for launching double-current channel quality than the first time period of SR and described base station for launching second time period of the biased IO of interference;

Second receives subelement, at least 6 symbols at least two continuous print subframes by described destination channel in described first time period receive described SR, at least 6 symbols of at least two the continuous print subframes of described subscriber equipment by described destination channel within described second time period receive described IO, wherein, the spreading factor of described destination channel is 256,1 system-frame of described destination channel comprises 5 subframes, and each subframe comprises 3 time slots, and each time slot comprises 10 symbols.

52. 1 kinds of base stations, is characterized in that, comprising:

Feedback unit, for 1 subframe of described control signal by destination channel is fed back to subscriber equipment, wherein, the spreading factor of described destination channel is 256,1 system-frame of described destination channel comprises 5 subframes, and each subframe comprises 3 time slots, and each time slot comprises 10 symbols, each symbols carry 2 bit information, described order instruction and described single current scheduling authorization information are carried in 1 subframe of described destination channel after coding.

53. base stations according to claim 52, it is characterized in that, described feedback unit, carrying 64 index values are used for specifically for using 1 of described destination channel subframe, the control information that when wherein a part of index value is used to indicate single-stream transmission and described carrying single-stream transmission, E-TFC selects, the control information that when another part index value is used to indicate stream transmission and described carrying single-stream transmission, E-TFC selects.

54. base stations according to claim 53, it is characterized in that, if described single current scheduling authorization information has X kind state, described feedback unit, the control information that when being total to X kind state representation single-stream transmission specifically for using 0 to X-1 in the index represented by 1 subframe of destination channel and carrying single-stream transmission, E-TFC selects is fed back to subscriber equipment, the control information that when base station uses the X to 63 in the index represented by 1 subframe of destination channel to be total to 64-X kind value state representation stream transmission and carries stream transmission, E-TFC selects is fed back to subscriber equipment, wherein, X is natural number, or,

If described single current scheduling authorization information has X kind state, described feedback unit, the control information that when being total to X kind state representation single-stream transmission specifically for using the 64-X to 63 in the index represented by 1 subframe of destination channel and carrying single-stream transmission, E-TFC selects is fed back to subscriber equipment, the control information that when base station uses the X to 0 in the index represented by 1 subframe of destination channel to be total to 63-X kind state representation stream transmission and carries stream transmission, E-TFC selects is fed back to subscriber equipment, wherein, X is natural number.