CN103312447A - Transmission method and device for demodulation reference signal of physical uplink control channel - Google Patents

Transmission method and device for demodulation reference signal of physical uplink control channel Download PDF

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CN103312447A
CN103312447A CN2012100715151A CN201210071515A CN103312447A CN 103312447 A CN103312447 A CN 103312447A CN 2012100715151 A CN2012100715151 A CN 2012100715151A CN 201210071515 A CN201210071515 A CN 201210071515A CN 103312447 A CN103312447 A CN 103312447A
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proprietary
cell
saltus step
subscriber equipment
user
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CN103312447B (en
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弓宇宏
孙云锋
仲丽媛
王瑜新
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ZTE Corp
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    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04BTRANSMISSION
    • H04B7/00Radio transmission systems, i.e. using radiation field
    • H04B7/02Diversity systems; Multi-antenna system, i.e. transmission or reception using multiple antennas
    • H04B7/022Site diversity; Macro-diversity
    • H04B7/024Co-operative use of antennas of several sites, e.g. in co-ordinated multipoint or co-operative multiple-input multiple-output [MIMO] systems
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04LTRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L1/00Arrangements for detecting or preventing errors in the information received
    • H04L1/12Arrangements for detecting or preventing errors in the information received by using return channel
    • H04L1/16Arrangements for detecting or preventing errors in the information received by using return channel in which the return channel carries supervisory signals, e.g. repetition request signals
    • H04L1/1607Details of the supervisory signal
    • H04L1/1671Details of the supervisory signal the supervisory signal being transmitted together with control information
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04LTRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L27/00Modulated-carrier systems
    • H04L27/26Systems using multi-frequency codes
    • H04L27/2601Multicarrier modulation systems
    • H04L27/2602Signal structure
    • H04L27/261Details of reference signals
    • H04L27/2613Structure of the reference signals
    • HELECTRICITY
    • H04ELECTRIC COMMUNICATION TECHNIQUE
    • H04LTRANSMISSION OF DIGITAL INFORMATION, e.g. TELEGRAPHIC COMMUNICATION
    • H04L27/00Modulated-carrier systems
    • H04L27/26Systems using multi-frequency codes
    • H04L27/2601Multicarrier modulation systems
    • H04L27/2602Signal structure
    • H04L27/261Details of reference signals
    • H04L27/2613Structure of the reference signals
    • H04L27/26136Pilot sequence conveying additional information

Abstract

The invention discloses a transmission method and a transmission device for a demodulation reference signal of a physical uplink control channel. The method comprises the following steps that user equipment (UE) receives UE-specific signaling configuration information from a base station; the UE determines the demodulation reference signal of the physical uplink control channel of the UE according to the UE-specific signaling configuration information; and the UE transmits the demodulation reference signal of the physical uplink control channel. According to the method and the device, the problems that inter-cell interference exists due to the fact that the demodulation reference signal of the physical uplink control channel of the UE can only be determined according to cell-specific signaling configuration information and that an OCC (orthogonal cover code) cannot be accurately decoded in the prior art can be solved, and the effects of improving the orthogonality of inter-cell physical uplink control channels, increasing the resource utilization rate of a CoMP (coordinated multiple point) system, reducing the inter-cell interference in the CoMP system and favorably improving the performance and the resource effectiveness of the CoMP system are further achieved.

Description

The sending method of Physical Uplink Control Channel demodulated reference signal and device
Technical field
The present invention relates to the communications field, in particular to a kind of sending method and device of Physical Uplink Control Channel demodulated reference signal.
Background technology
Third generation partner program (The 3rd Generation Partnership Project, referred to as 3GPP) Long Term Evolution (Long Term Evolution, referred to as LTE) in the system, adopt the mode of base station centralized dispatching to control subscriber equipment (UserEquipment, referred to as UE) the transmission of Physical Uplink Control Channel (Physical Uplink Control Channel is referred to as PUCCH).
Stipulate in the LTE system, when not having upstream data to send, Physical Uplink Control Channel sends at fixing running time-frequency resource.Please refer to Fig. 1, as shown in Figure 1, a Physical Uplink Control Channel accounts for a Resource Block (Resource Block accounts for 12 subcarriers) at frequency domain, continue two time slots in time domain, a subframe (1ms) namely, the difference of the Cyclic Prefix that uses according to current subframe, it symbolic number that comprises is also different.In addition, Physical Uplink Control Channel can carry out frequency hopping at two time slots, to obtain the frequency diversity gain.Usually, in the residential quarter Physical Uplink Control Channel of each subscriber equipment by code divide carry out multiplexing.Because UE number that can be multiplexing on Resource Block is limited, when the number of the UE that needs to send simultaneously Physical Uplink Control Channel in the residential quarter surpasses the multiplexing user's number of Resource Block institute energy, can open up again a Resource Block, namely divide the multiplexing of Physical Uplink Control Channel that the mode that adds frequency division realizes each UE in the residential quarter by code.
In current LTE system, Physical Uplink Control Channel can be supported multiple upstream control signaling, comprise correct/error response message (ACKnowledgement/Non-ACKnowlegement, referred to as ACK/NACK), channel condition information (ChannelState Information, referred to as CSI, comprise CQI (Channel Quality Indicator, referred to as CQI), precoding matrix indicators (Precoding Matrix Indicator, referred to as PMI) and order designator (Rank Indicator, referred to as RI)), dispatch request (Scheduling Request, referred to as SR), and their combinations of sending simultaneously, wherein ACK/NACK and SR adopt control channel form 1 to send, and control channel form 1a/1b is used for sending the ACK/NACK response message of 1 bit/2 bits; Control channel form 2 is used for sending CSI and send simultaneously CSI and ACK/NACK when Cyclic Prefix (Cyclic Prefix is referred to as CP) frame structure; Control channel form 2a/2b is used for sending simultaneously the ACK response message of CSI and 1 bit/2 bits under regular circulation prefix (Normalcyclic prefix is referred to as Normal CP) frame structure.The LTE-A system is the evolution system of future generation of LTE system, has introduced control channel form 3 in the LTE-A R10 stage, and control channel form 3 is mainly used in sending CSI.
In the LTE system, Physical Uplink Control Channel adopts the single antenna port transmission.A system-frame (frame) comprises 10 subframes (subframe), and each subframe comprises 2 time slots (slot).Figure 1A is the reference signal position view according to PUCCH form 1/1a/1b under the regular circulation prefix of correlation technique, shown in Figure 1A, for the Physical Uplink Control Channel form 1/1a/1b under the regular circulation prefix, each time slot is comprised of 4 control signal symbols and 3 demodulated reference signals; Figure 1B is the reference signal position view according to PUCCH form 2/2a/2b/3 under the regular circulation prefix of correlation technique, as shown in Figure 1B, for the Physical Uplink Control Channel form 2/2a/2b/3 under the regular circulation prefix, each time slot is comprised of 5 control characters and 2 demodulated reference signals.Fig. 2 A is extended cyclic prefix (the Extended cyclic prefix according to correlation technique, referred to as Extended CP) the reference signal position view of lower PUCCH form 1/1a/1b, shown in Fig. 2 A, for the Physical Uplink Control Channel form 1/1a/1b under the extended cyclic prefix, each time slot is comprised of 4 control signal symbols and 2 demodulated reference signals; Fig. 2 B is the reference signal position view according to PUCCH form 2/3 under the extended cyclic prefix of correlation technique, shown in Fig. 2 B, for the Physical Uplink Control Channel 2/3 under the extended cyclic prefix, each time slot is comprised of 5 control signal symbols and 1 demodulated reference signal.
In the LTE-A system, Physical Uplink Control Channel can adopt the single antenna port transmission, also can adopt many antenna port transmission.Adopt orthogonal space resource transmission diversity (Spatial Orthogonal-Resource Transmit Diversity is referred to as SORTD) technology to improve the multiaerial system performance of Physical Uplink Control Channel.
The demodulated reference signal of PUCCH (Demodulation Reference Signal, referred to as DMRS) consisted of by sequence on the frequency domain, this sequence is a cyclic shift (Cyclic Shift of reference signal basic sequence, referred to as CS), be quadrature between the different cyclic shifts of same reference signal basic sequence.
Between the demodulated reference signal of the Physical Uplink Control Channel of same residential quarter different user, carry out orthogonalization by different demodulated reference signal cyclic shifts (CS) and/or quadrature mask (Orthogonal Cover Code is referred to as OCC).PUCCH form 1/1a/1b has adopted the OCC code to carry out quadrature, and its length is 3 under the regular circulation prefix, acts on 3 reference signals in the same time slot, and its length is 2 under the extended cyclic prefix, acts on 2 reference symbols of same time slot.
For randomize inter-cell interference, the reference signal sequence of demodulated reference signal configures according to the base station, can realize timeslot-based sequence set saltus step (Group hopping).
At present, among the R10 each residential quarter is determined that the method for its employed basic sequence or sequence set is as follows:
U=(f Gh(n s)+f Ss) mod30, wherein, f Gh(n s) expression sequence set saltus step pattern (hopping pattern), f SsExpression sequence index (sequence index) has been stipulated altogether 17 kinds of sequence set hopping pattern and 30 kinds of sequence index information among the LTE.
Figure BDA0000144359040000021
The unlatching of sequence set saltus step function or be closed in is controlled by residential quarter proprietary (cell-specific) high-level signaling (Group-hopping-enabled) among the R10.If network side does not send the Group-hopping-enabled signaling to the residential quarter, then for all users: f in this residential quarter Gh(n s)=0; If the oriented residential quarter of network side sends signaling, then for all users in this residential quarter:
Figure BDA0000144359040000022
Wherein, n sExpression time slot index, c (8n s+ i) representing pseudo random sequence, its initialization value is:
Figure BDA0000144359040000023
Wherein,
Figure BDA0000144359040000024
The expression Cell Identity CI, its attribute is that the residential quarter is proprietary.
Simultaneously, also having defined proprietary (ue-specific) high-level signaling (Disable-sequence-group-hopping) of user among the R10 has used those specific users of OCC technology to close its sequence set saltus step function with realization for the upper DMRS of PUCCH.
For PUCCH, sequence index is:
Figure BDA0000144359040000031
In order further to realize the presence of intercell interference randomization, adopted the CS hopping technology of the proprietary symbol-based in residential quarter among the R10.All PUCCH forms adopt identical cyclic shift pattern
n cs cell ( n s , l ) = Σ i = 0 7 c ( 8 N symb UL · n s + 8 l + i ) · 2 i , Wherein,
Figure BDA0000144359040000034
Represent the up number of symbols in each time slot, n sExpression time slot index, l represents notation index in each time slot, and c (i) represents pseudo random sequence, and the initialization value of this pseudo random sequence generator is:
Figure BDA0000144359040000035
Each radio frames of this initialization value is upgraded once.
Residential quarter with different districts identification number, the root sequence of use is different, is non-orthogonal between the different root sequences, also has different correlations between the different cyclic shifts of different root sequences, therefore, the orthogonality of minizone PUCCH can't guarantee.
In the LTE-A system, in order to improve the transmission rate of cell edge, 3GPP releases coordinated multipoint transmission (CoordinatedMulti-Point Transmission and Reception, referred to as CoMP) technology, it mainly is the message transmission rate that improves edge customer by the cooperation of minizone, although the CoMP technology has been improved the throughput of edge customer, also new challenge has been proposed prior art simultaneously.
The LTE-A R11 stage has proposed four kinds of scenes for the CoMP technology, is respectively: CoMP scene 1, (intra-site) cell cooperative in the isomorphism website; CoMP scene 2, (inter-site) cell cooperative between the isomorphism website; CoMP scene 3, heterogeneous network and macrocell use different cell IDs with all interior Microcells of its coverage; CoMP scene 4, heterogeneous network and macrocell use identical cell ID with the interior Microcell of its coverage.
The introducing of CoMP technology has proposed new challenge to minizone PUCCH quadrature, and new reception technique (for example, uniting reception) in new CoMP scene or the CoMP system is so that may there be following problem in existing PUCCH technology in the CoMP system:
Please refer to Fig. 3, Fig. 3 is according to PUCCH disturbed condition schematic diagram in the heterogeneous network scene of correlation technique, in the heterogeneous network scene of CoMP or when the PUCCH in the CoMP system need to adopt the associating reception technique, can have following PUCCH interference problem:
1, the macrocell user produces than strong jamming, especially in CoMP scene 3 near the Microcell that is positioned at this user;
2, owing to having the asymmetric situation of up-downgoing node in the heterogeneous network, the user who is in user and its up access node in Microcell extended area (Cell Range Extension is referred to as the CRE) scope causes the phase mutual interference;
3, unite and receive down, understand the phase mutual interference between the user of CoMP user and its place cooperative node;
4, use the user of OCC quadrature for the minizone, because their CS saltus step pattern may be inconsistent, cause OCC to be correctly decoded.
The problem that the existing problems of above presence of intercell interference and OCC can't be correctly decoded has had a strong impact on the performance of performance and the CoMP technical advantage of CoMP system.
Problem for the existing problems of disturbing between the correlation technique small area and OCC can't be correctly decoded not yet proposes effective solution at present.
Summary of the invention
The invention provides a kind of sending method and device of Physical Uplink Control Channel demodulated reference signal, to address the above problem at least.
According to an aspect of the present invention, provide a kind of sending method of Physical Uplink Control Channel demodulated reference signal, having comprised:
Subscriber equipment receives the proprietary signal deployment information of user that the base station sends; Subscriber equipment is determined the Physical Uplink Control Channel demodulated reference signal of subscriber equipment according to the proprietary signal deployment information of user; Subscriber equipment sends the Physical Uplink Control Channel demodulated reference signal.
Preferably, the proprietary signal deployment information of user comprise following one of at least: the proprietary proprietary proprietary proprietary biasing of sequence displacement pattern, the proprietary cyclically shifted sequences saltus step mode signaling of user of the biasing of sequence set pattern, user of the biasing of sequence set numbering, user of cell ID biasing, user of Cell Identity CI, user that the user is proprietary, and the proprietary cyclic shift saltus step of user enables signaling.
Preferably, the Physical Uplink Control Channel demodulated reference signal comprise following one of at least: sequence set numbering, sequence set saltus step pattern, sequence displacement pattern, cyclically shifted sequences saltus step pattern, and the indication information of whether closing cyclically shifted sequences saltus step function.
Preferably, subscriber equipment is determined sequence set saltus step pattern in the following manner: subscriber equipment uses one of following formula to determine the initialization condition of the pseudo random sequence generator of sequence set saltus step pattern
Figure BDA0000144359040000041
Figure BDA0000144359040000042
Figure BDA0000144359040000044
Figure BDA0000144359040000045
Figure BDA0000144359040000046
Figure BDA0000144359040000047
Figure BDA0000144359040000048
Figure BDA0000144359040000051
Figure BDA0000144359040000052
Wherein,
Figure BDA0000144359040000053
The Cell Identity CI that obtains for subscriber equipment,
Figure BDA0000144359040000054
Figure BDA0000144359040000055
Be the proprietary Cell Identity CI of user,
Figure BDA0000144359040000056
Be the proprietary cell ID biasing of user,
Figure BDA0000144359040000058
Δ N GhBe the proprietary sequence set pattern biasing of user, Δ N Gh∈ 0,1 ..., 16}; Subscriber equipment is according to the initialization condition of the pseudo random sequence generator of sequence set saltus step pattern
Figure BDA0000144359040000059
Obtain sequence set saltus step pattern.
Preferably, subscriber equipment is determined sequence displacement pattern in the following manner: subscriber equipment uses one of following formula to determine sequence displacement pattern f Ss:
f ss = N vID cell mod 30 ,
f ss = ( ( N ID cell + ΔN ID cell ) mod 504 ) mod 30 ,
f ss = ( N ID cell mod 30 + Δ ss ′ ) mod 30 ,
f ss = ( ( N vID cell + ΔN ID cell ) mod 504 ) mod 30 , And
f ss = ( N vID cell mod 30 + Δ ss ′ ) mod 30 ,
Wherein, Δ SsBe the proprietary sequence displacement pattern biasing in residential quarter that subscriber equipment obtains, Δ Ss∈ 0,1 ..., and 29}, Δ ' SsBe the proprietary sequence displacement pattern biasing of user, Δ ' Ss∈ 0,1 ..., 29},
Figure BDA00001443590400000515
Be Cell Identity CI,
Figure BDA00001443590400000516
Figure BDA00001443590400000517
Be the proprietary Cell Identity CI of user,
Figure BDA00001443590400000518
Figure BDA00001443590400000519
Be the proprietary cell ID biasing of user, ΔN ID cell ∈ { 0,1 . . . , 503 } .
Preferably, subscriber equipment is determined the sequence group number in the following manner: subscriber equipment uses following formula to determine sequence set numbering u:u=((f Gh(n s)+f ' Ss) the mod30+ Δ u) mod30, wherein, f Gh(n s) be the sequence set saltus step pattern that sequence set saltus step pattern or subscriber equipment are determined according to the proprietary signal deployment information in the residential quarter that obtains from the base station, f ' SsBe sequence displacement pattern or the subscriber equipment sequence displacement pattern definite according to the proprietary signal deployment information in the residential quarter that obtains from the base station, Δ uBe the proprietary sequence set numbering biasing of user, and Δ u∈ 0,1 ..., 29}.
Preferably, subscriber equipment is determined cyclically shifted sequences saltus step pattern in the following manner: subscriber equipment uses one of following formula to determine the initialization condition of the pseudo random sequence generator of cyclically shifted sequences saltus step pattern
Figure BDA00001443590400000521
c init 2 = N vID cell ,
c init 2 = N ID cell + ΔN ID cell ,
c init 2 = ( N ID cell + ΔN ID cell ) mod 504 ,
c init 2 = N vID cell + ΔN ID cell , And
c init 2 = ( N vID cell + ΔN ID cell ) mod 504 ,
Wherein,
Figure BDA0000144359040000065
The Cell Identity CI that obtains for subscriber equipment,
Figure BDA0000144359040000066
Figure BDA0000144359040000067
Be the proprietary Cell Identity CI of user,
Figure BDA0000144359040000068
Figure BDA0000144359040000069
Be the proprietary cell ID biasing of user,
Figure BDA00001443590400000610
Subscriber equipment is according to the initialization condition of the pseudo random sequence generator of cyclically shifted sequences saltus step pattern
Figure BDA00001443590400000611
Obtain cyclically shifted sequences saltus step pattern.
Preferably, subscriber equipment is determined cyclically shifted sequences saltus step pattern in the following manner: subscriber equipment uses following formula to determine cyclically shifted sequences saltus step pattern:
Figure BDA00001443590400000612
Wherein,
Figure BDA00001443590400000613
Be cyclically shifted sequences saltus step pattern,
Figure BDA00001443590400000614
Be the up symbolic number in each time slot, n sBe the time slot index, c () is the initialization condition of the pseudo random sequence generator of cyclically shifted sequences saltus step pattern
Figure BDA00001443590400000615
Or subscriber equipment is according to the initial condition of the pseudo random sequence generator of the definite cyclically shifted sequences saltus step pattern of the proprietary signal deployment information in the residential quarter that obtains from the base station.
Preferably, subscriber equipment determines whether to cut out the indication information of cyclically shifted sequences saltus step function in the following manner: subscriber equipment enables the indication information that signaling determines whether to close cyclically shifted sequences saltus step function according to the proprietary cyclically shifted sequences saltus step of user.
Preferably, the proprietary cyclically shifted sequences saltus step of user enables signaling and does not enable signaling (Disable-sequence-group-hopping) for the proprietary sequence of user/sequence set saltus step.
Preferably, the proprietary signal deployment information of user of subscriber equipment reception base station transmission comprises: subscriber equipment receives the proprietary signal deployment information of user that the base station sends by high-level signaling or physical layer signaling.
Preferably, when subscriber equipment receives the proprietary signal deployment information of user that the base station sends by physical layer signaling, the initialization condition of the pseudo random sequence generator of sequence set saltus step pattern
Figure BDA00001443590400000616
Each subframe is upgraded once.
Preferably, when subscriber equipment receives the proprietary signal deployment information of user that the base station sends by physical layer signaling, the initialization condition of the pseudo random sequence generator of cyclically shifted sequences saltus step pattern
Figure BDA00001443590400000617
Each subframe is upgraded once.
According to a further aspect in the invention, provide a kind of dispensing device of Physical Uplink Control Channel demodulated reference signal, having comprised: the first receiver module is used for receiving the proprietary signal deployment information of user that the base station sends; The first determination module is for the Physical Uplink Control Channel demodulated reference signal of determining subscriber equipment according to the proprietary signal deployment information of user; The first sending module is used for subscriber equipment and sends the Physical Uplink Control Channel demodulated reference signal.
Preferably, the proprietary signal deployment information of user comprise following one of at least: the proprietary proprietary proprietary proprietary biasing of sequence displacement pattern, the proprietary cyclically shifted sequences saltus step mode signaling of user of the biasing of sequence set pattern, user of the biasing of sequence set numbering, user of cell ID biasing, user of Cell Identity CI, user that the user is proprietary, and the proprietary cyclic shift saltus step of user enables signaling.
Preferably, the Physical Uplink Control Channel demodulated reference signal comprise following one of at least: sequence set numbering, sequence set saltus step pattern, sequence displacement pattern, cyclically shifted sequences saltus step pattern, and the indication information of whether closing cyclically shifted sequences saltus step function.
Preferably, the first determination module comprises: the first determining unit is used for determining in the following manner sequence set saltus step pattern: use one of following formula to determine the initialization condition of the pseudo random sequence generator of sequence set saltus step pattern
Figure BDA0000144359040000071
Figure BDA0000144359040000072
Figure BDA0000144359040000073
Figure BDA0000144359040000074
Figure BDA0000144359040000075
Figure BDA0000144359040000078
Figure BDA0000144359040000079
And
Figure BDA00001443590400000710
Wherein,
Figure BDA00001443590400000711
The Cell Identity CI that obtains for subscriber equipment,
Figure BDA00001443590400000712
Figure BDA00001443590400000713
Be the proprietary Cell Identity CI of user,
Figure BDA00001443590400000714
Figure BDA00001443590400000715
Be the proprietary cell ID biasing of user,
Figure BDA00001443590400000716
Δ N GhBe the proprietary sequence set pattern biasing of user, Δ N Gh∈ 0,1 ..., 16}; Initialization condition according to the pseudo random sequence generator of sequence set saltus step pattern
Figure BDA00001443590400000717
Obtain sequence set saltus step pattern.
Preferably, the first determination module comprises: the second determining unit is used for determining in the following manner sequence displacement pattern: use one of following formula to determine sequence displacement pattern f Ss:
f ss = N vID cell mod 30 ,
f ss = ( ( N ID cell + ΔN ID cell ) mod 504 ) mod 30 ,
f ss = ( N ID cell mod 30 + Δ ss ′ ) mod 30 ,
f ss = ( ( N vID cell + ΔN ID cell ) mod 504 ) mod 30 , And
f ss = ( N vID cell mod 30 + Δ ss ′ ) mod 30 ,
Wherein, Δ SsBe the proprietary sequence displacement pattern biasing in residential quarter that subscriber equipment obtains, Δ Ss∈ 0,1 ..., and 29}, Δ ' SsBe the proprietary sequence displacement pattern biasing of user, Δ ' Ss∈ 0,1 ..., 29},
Figure BDA0000144359040000086
Be Cell Identity CI,
Figure BDA0000144359040000088
Be the proprietary Cell Identity CI of user,
Figure BDA0000144359040000089
Figure BDA00001443590400000810
Be the proprietary cell ID biasing of user, ΔN ID cell ∈ { 0,1 . . . , 503 } .
Preferably, the first determination module comprises: the 3rd determining unit is used for determining in the following manner the sequence group number: use following formula to determine sequence set numbering u:u=((f Gh(n s)+f ' Ss) the mod30+ Δ u) mod30, wherein, f Gh(n s) be the sequence set saltus step pattern that sequence set saltus step pattern or subscriber equipment are determined according to the proprietary signal deployment information in the residential quarter that obtains from the base station, f ' SsBe sequence displacement pattern or the subscriber equipment sequence displacement pattern definite according to the proprietary signal deployment information in the residential quarter that obtains from the base station, Δ uBe the proprietary sequence set numbering biasing of user, and Δ u∈ 0,1 ..., 29}.
Preferably, the first determination module comprises: the 4th determining unit is used for determining in the following manner cyclically shifted sequences saltus step pattern: use one of following formula to determine the initialization condition of the pseudo random sequence generator of cyclically shifted sequences saltus step pattern
Figure BDA00001443590400000812
c init 2 = N vID cell ,
c init 2 = N ID cell + ΔN ID cell ,
c init 2 = ( N ID cell + ΔN ID cell ) mod 504 ,
c init 2 = N vID cell + ΔN ID cell , And
c init 2 = ( N vID cell + ΔN ID cell ) mod 504 ,
Wherein,
Figure BDA00001443590400000818
The Cell Identity CI that obtains for subscriber equipment,
Figure BDA00001443590400000820
Be the proprietary Cell Identity CI of user,
Figure BDA00001443590400000821
Figure BDA00001443590400000822
Be the proprietary cell ID biasing of user,
Figure BDA00001443590400000823
Initialization condition according to the pseudo random sequence generator of cyclically shifted sequences saltus step pattern Obtain cyclically shifted sequences saltus step pattern.
Preferably, the first determination module comprises: the 5th determining unit is used for determining in the following manner cyclically shifted sequences saltus step pattern: use following formula to determine cyclically shifted sequences saltus step pattern: Wherein,
Figure BDA0000144359040000092
Be cyclically shifted sequences saltus step pattern,
Figure BDA0000144359040000093
Be the up symbolic number in each time slot, n sBe the time slot index, c () is the initialization condition of the pseudo random sequence generator of cyclically shifted sequences saltus step pattern Or subscriber equipment is according to the initial condition of the pseudo random sequence generator of the definite cyclically shifted sequences saltus step pattern of the proprietary signal deployment information in the residential quarter that obtains from the base station.
Preferably, the first determination module comprises: the 6th determining unit is used for enabling the indication information that signaling determines whether to close cyclically shifted sequences saltus step function according to the proprietary cyclically shifted sequences saltus step of user.
According to a further aspect of the invention, provide a kind of sending method of Physical Uplink Control Channel demodulated reference signal, having comprised: the proprietary cyclic shift saltus step in residential quarter that subscriber equipment receives the base station transmission enables signaling; Subscriber equipment enables signaling according to the proprietary cyclic shift saltus step in residential quarter and determines the indication information of whether cutting out cyclically shifted sequences saltus step function in the Physical Uplink Control Channel demodulated reference signal of subscriber equipment; Subscriber equipment sends the Physical Uplink Control Channel demodulated reference signal that comprises indication information.
Preferably, to enable signaling be one of following to the proprietary cyclic shift saltus step in residential quarter: the proprietary group hopping in residential quarter enables signaling (Group-hopping-enabled), the proprietary sequence jump in residential quarter enables signaling (Sequence-hopping-enabled).
According to a further aspect of the invention, provide a kind of dispensing device of Physical Uplink Control Channel demodulated reference signal, having comprised: the second receiver module, the proprietary cyclic shift saltus step in residential quarter that is used for the transmission of reception base station enables signaling; The second determination module is used for enabling the indication information of whether closing cyclically shifted sequences saltus step function that signaling is determined the Physical Uplink Control Channel demodulated reference signal of subscriber equipment according to the proprietary cyclic shift saltus step in residential quarter; The second sending module is used for sending the Physical Uplink Control Channel demodulated reference signal that comprises indication information.
Preferably, to enable signaling be one of following to the proprietary cyclic shift saltus step in residential quarter: the proprietary group hopping in residential quarter enables signaling (Group-hopping-enabled), the proprietary sequence jump in residential quarter enables signaling (Sequence-hopping-enabled).
By the present invention, the proprietary signal deployment information of the user that employing sends the base station is as the Main Basis content of the Physical Uplink Control Channel demodulated reference signal of definite subscriber equipment, the mode that Physical Uplink Control Channel demodulated reference signal after will determining again sends, solved and of the prior artly can only determine the problem that the problem that has presence of intercell interference that the Physical Uplink Control Channel demodulated reference signal of subscriber equipment causes and OCC can't be correctly decoded according to the proprietary signal deployment information in residential quarter, and then reached the orthogonality that improves the minizone Physical Uplink Control Channel, resource utilization in the CoMP system, reduce the presence of intercell interference in the CoMP system, and help to improve the effect of CoMP systematic function and resource availability.
Description of drawings
Accompanying drawing described herein is used to provide a further understanding of the present invention, consists of the application's a part, and illustrative examples of the present invention and explanation thereof are used for explaining the present invention, do not consist of improper restriction of the present invention.In the accompanying drawings:
Figure 1A is the reference signal position view according to PUCCH form 1/1a/1b under the regular circulation prefix of correlation technique;
Figure 1B is the reference signal position view according to PUCCH form 2/2a/2b/3 under the regular circulation prefix of correlation technique;
Fig. 2 A is the reference signal position view according to PUCCH form 1/1a/1b under the extended cyclic prefix of correlation technique;
Fig. 2 B is the reference signal position view according to PUCCH form 2/3 under the extended cyclic prefix of correlation technique;
Fig. 3 is according to PUCCH disturbed condition schematic diagram in the heterogeneous network scene of correlation technique;
Fig. 4 is the sending method according to the Physical Uplink Control Channel demodulated reference signal of the embodiment of the invention one;
Fig. 5 is the sending method according to the Physical Uplink Control Channel demodulated reference signal of the embodiment of the invention two;
Fig. 6 is the dispensing device according to the Physical Uplink Control Channel demodulated reference signal of the embodiment of the invention one;
Fig. 7 is the dispensing device according to the Physical Uplink Control Channel demodulated reference signal of the preferred embodiment of the present invention one;
Fig. 8 is the dispensing device according to the Physical Uplink Control Channel demodulated reference signal of the embodiment of the invention two.
Embodiment
Hereinafter also describe in conjunction with the embodiments the present invention in detail with reference to accompanying drawing.Need to prove, in the situation that do not conflict, embodiment and the feature among the embodiment among the application can make up mutually.
Fig. 4 is the sending method according to the Physical Uplink Control Channel demodulated reference signal of the embodiment of the invention one, and as shown in Figure 4, the method mainly may further comprise the steps (step S402-step S406):
Step S402, subscriber equipment receives the proprietary signal deployment information of user that the base station sends;
Step S404, subscriber equipment determine the Physical Uplink Control Channel demodulated reference signal of subscriber equipment according to the proprietary signal deployment information of user;
Step S406, subscriber equipment sends the Physical Uplink Control Channel demodulated reference signal.
In embodiments of the present invention, for step S402, subscriber equipment can receive the proprietary signal deployment information of user that the base station sends by high-level signaling or physical layer signaling.
Wherein, the proprietary signal deployment information of user comprise following one of at least: the proprietary proprietary proprietary proprietary biasing of sequence displacement pattern, the proprietary cyclically shifted sequences saltus step mode signaling of user of the biasing of sequence set pattern, user of the biasing of sequence set numbering, user of cell ID biasing, user of Cell Identity CI, user that the user is proprietary, and the proprietary cyclic shift saltus step of user enables signaling.
In step S404, the Physical Uplink Control Channel demodulated reference signal comprise following one of at least: sequence set numbering, sequence set saltus step pattern, sequence displacement pattern, cyclically shifted sequences saltus step pattern, and the indication information of whether closing cyclically shifted sequences saltus step function.
In a preferred embodiment of the present invention, subscriber equipment can be determined sequence set saltus step pattern in the following manner: subscriber equipment uses one of following formula to determine the initialization condition of the pseudo random sequence generator of sequence set saltus step pattern
Figure BDA0000144359040000111
Figure BDA0000144359040000112
Figure BDA0000144359040000113
Figure BDA0000144359040000114
Figure BDA0000144359040000115
Figure BDA0000144359040000116
And
Figure BDA0000144359040000117
Wherein,
Figure BDA0000144359040000118
The Cell Identity CI that obtains for subscriber equipment,
Figure BDA0000144359040000119
Figure BDA00001443590400001110
Be the proprietary Cell Identity CI of user,
Figure BDA00001443590400001112
Be the proprietary cell ID biasing of user,
Figure BDA00001443590400001113
Δ N GhBe the proprietary sequence set pattern biasing of user, Δ N Gh∈ 0,1 ..., 16}; Subscriber equipment is according to the initialization condition of the pseudo random sequence generator of sequence set saltus step pattern
Figure BDA00001443590400001114
Obtain sequence set saltus step pattern.By this preferred implementation, can obtain the sequence set saltus step pattern in the Physical Uplink Control Channel demodulated reference signal.
In a preferred embodiment of the present invention, subscriber equipment is determined sequence displacement pattern in the following manner: subscriber equipment uses one of following formula to determine sequence displacement pattern f Ss:
f ss = N vID cell mod 30 ,
f ss = ( ( N ID cell + ΔN ID cell ) mod 504 ) mod 30 ,
f ss = ( N ID cell mod 30 + Δ ss ′ ) mod 30 ,
f ss = ( ( N vID cell + ΔN ID cell ) mod 504 ) mod 30 , And
f ss = ( N vID cell mod 30 + Δ ss ′ ) mod 30 ,
Wherein, Δ SsBe the proprietary sequence displacement pattern biasing in residential quarter that subscriber equipment obtains, Δ Ss∈ 0,1 ..., and 29}, Δ ' SsBe the proprietary sequence displacement pattern biasing of user, Δ ' Ss∈ 0,1 ..., 29},
Figure BDA00001443590400001120
Be Cell Identity CI,
Figure BDA00001443590400001121
Figure BDA00001443590400001122
Be the proprietary Cell Identity CI of user,
Figure BDA0000144359040000121
Be the proprietary cell ID biasing of user,
Figure BDA0000144359040000123
By this preferred implementation, can obtain the sequence displacement pattern f in the Physical Uplink Control Channel demodulated reference signal Ss
In a preferred embodiment of the present invention, subscriber equipment can be determined the sequence group number in the following manner: subscriber equipment uses following formula to determine sequence set numbering u:u=((f Gh(n s)+f ' Ss) the mod30+ Δ u) mod30, wherein, f Gh(n s) be the sequence set saltus step pattern that sequence set saltus step pattern or subscriber equipment are determined according to the proprietary signal deployment information in the residential quarter that obtains from the base station, f ' SsBe sequence displacement pattern or the subscriber equipment sequence displacement pattern definite according to the proprietary signal deployment information in the residential quarter that obtains from the base station, Δ uBe the proprietary sequence set numbering biasing of user, and Δ u∈ 0,1 ..., 29}.By this preferred implementation, can obtain the sequence group number in the Physical Uplink Control Channel demodulated reference signal.
In a preferred embodiment of the present invention, subscriber equipment can be determined cyclically shifted sequences saltus step pattern in the following manner: subscriber equipment uses one of following formula to determine the initialization condition of the pseudo random sequence generator of cyclically shifted sequences saltus step pattern
Figure BDA0000144359040000124
c init 2 = N vID cell ,
c init 2 = N ID cell + ΔN ID cell ,
c init 2 = ( N ID cell + ΔN ID cell ) mod 504 ,
c init 2 = N vID cell + ΔN ID cell , And
c init 2 = ( N vID cell + ΔN ID cell ) mod 504 ,
Wherein,
Figure BDA00001443590400001210
The Cell Identity CI that obtains for subscriber equipment,
Figure BDA00001443590400001211
Figure BDA00001443590400001212
Be the proprietary Cell Identity CI of user,
Figure BDA00001443590400001213
Figure BDA00001443590400001214
Be the proprietary cell ID biasing of user,
Figure BDA00001443590400001215
Subscriber equipment is according to the initialization condition of the pseudo random sequence generator of cyclically shifted sequences saltus step pattern
Figure BDA00001443590400001216
Obtain cyclically shifted sequences saltus step pattern.By this preferred implementation, can obtain the cyclically shifted sequences saltus step pattern in the Physical Uplink Control Channel demodulated reference signal.
In a preferred embodiment of the present invention, subscriber equipment can be determined cyclically shifted sequences saltus step pattern in the following manner: subscriber equipment uses following formula to determine the cyclically shifted sequences pattern:
Figure BDA00001443590400001217
Wherein,
Figure BDA00001443590400001218
Be cyclically shifted sequences saltus step pattern,
Figure BDA00001443590400001219
Be the up symbolic number in each time slot, n sBe the time slot index, c () is the initialization condition of the pseudo random sequence generator of cyclically shifted sequences saltus step pattern
Figure BDA00001443590400001220
Or subscriber equipment is according to the initial condition of the pseudo random sequence generator of the definite cyclically shifted sequences saltus step pattern of the proprietary signal deployment information in the residential quarter that obtains from the base station.By this preferred implementation, can obtain the cyclically shifted sequences saltus step pattern in the Physical Uplink Control Channel demodulated reference signal.
In a preferred embodiment of the present invention, subscriber equipment can determine whether to cut out the indication information of cyclically shifted sequences saltus step function in the following manner: subscriber equipment enables the indication information that signaling determines whether to close cyclically shifted sequences saltus step function according to the proprietary cyclically shifted sequences saltus step of user.By this preferred implementation, can obtain the indication information of whether closing cyclically shifted sequences saltus step function in the Physical Uplink Control Channel demodulated reference signal.
In actual applications, the proprietary cyclically shifted sequences saltus step of user enables signaling and does not enable signaling (Disable-sequence-group-hopping) for the proprietary sequence of user/sequence set saltus step.
In a preferred embodiment of the present invention, when subscriber equipment receives the proprietary signal deployment information of user that the base station sends by physical layer signaling, the initialization condition of the pseudo random sequence generator of sequence set saltus step pattern
Figure BDA0000144359040000131
Each subframe is upgraded once.
In a preferred embodiment of the present invention, when subscriber equipment receives the proprietary signal deployment information of user that the base station sends by physical layer signaling, the initialization condition of the pseudo random sequence generator of cyclically shifted sequences saltus step pattern
Figure BDA0000144359040000132
Each subframe is upgraded once.
Fig. 5 is the sending method according to the Physical Uplink Control Channel demodulated reference signal of the embodiment of the invention two, and as shown in Figure 5, the method mainly may further comprise the steps (step S502-step S506):
The proprietary cyclic shift saltus step in residential quarter that step S502, subscriber equipment receive the base station transmission enables signaling;
Step S504, subscriber equipment enable signaling according to the proprietary cyclic shift saltus step in residential quarter and determine the indication information of whether closing cyclically shifted sequences saltus step function in the Physical Uplink Control Channel demodulated reference signal of subscriber equipment;
Step S506, subscriber equipment sends the Physical Uplink Control Channel demodulated reference signal that comprises indication information.
In a preferred embodiment of the present invention, to enable signaling be one of following to the proprietary cyclic shift saltus step in residential quarter: the proprietary group hopping in residential quarter enables signaling (Group-hopping-enabled), the proprietary sequence jump in residential quarter enables signaling (Sequence-hopping-enabled).
Sending method by the Physical Uplink Control Channel demodulated reference signal, can determine according to the proprietary signal deployment information conduct of the user that the base station sends the Main Basis content of the Physical Uplink Control Channel demodulated reference signal of subscriber equipment, Physical Uplink Control Channel demodulated reference signal after will determining again sends, and of the prior artly can only determine the problem that the problem that has presence of intercell interference that the Physical Uplink Control Channel demodulated reference signal of subscriber equipment causes and OCC can't be correctly decoded according to the proprietary signal deployment information in residential quarter thereby solved.
Be described in detail below in conjunction with the sending method of specific embodiment to above-mentioned Physical Uplink Control Channel demodulated reference signal.
Embodiment 1
Subscriber equipment receives the signal deployment information for the Physical Uplink Control Channel demodulated reference signal of determining this subscriber equipment that the base station sends, and comprising: the cell number biasing that the user is proprietary.
Subscriber equipment uses following formula to determine sequence set numbering the u:u=((f of Physical Uplink Control Channel demodulated reference signal Gh(n s)+f ' Ss) the mod30+ Δ u) mod30, wherein, f Gh(n s) be sequence set saltus step pattern, f ' SsSequence displacement pattern, Δ uThe proprietary sequence set numbering biasing of user, and Δ u∈ 0,1 ..., 29}.
Subscriber equipment can receive the proprietary signal deployment information of user for the Physical Uplink Control Channel demodulated reference signal of determining this subscriber equipment that the base station sends by high-level signaling or physical layer signaling.
Embodiment 2
Subscriber equipment receives the signal deployment information for the Physical Uplink Control Channel demodulated reference signal of determining this subscriber equipment that the base station sends, and comprising: the proprietary cell ID biasing of Cell Identity CI, user that the user is proprietary.
Subscriber equipment uses one of following formula to determine the initialization condition of pseudo random sequence generator of the sequence set saltus step pattern of Physical Uplink Control Channel demodulated reference signal
Figure BDA0000144359040000141
Figure BDA0000144359040000142
Figure BDA0000144359040000143
Figure BDA0000144359040000144
Figure BDA0000144359040000145
Figure BDA0000144359040000147
Figure BDA0000144359040000148
Figure BDA0000144359040000149
And
Figure BDA00001443590400001410
Wherein,
Figure BDA00001443590400001411
Be Cell Identity CI,
Figure BDA00001443590400001412
Figure BDA00001443590400001413
The specific Cell Identity CI of user,
Figure BDA00001443590400001415
The specific cell ID biasing of user,
Figure BDA00001443590400001416
Δ N GhThe specific sequence set pattern biasing of user, Δ N Gh∈ 0,1 ..., 16}; At this moment, subscriber equipment just can be further according to the initialization condition of the pseudo random sequence generator of sequence set saltus step pattern
Figure BDA00001443590400001417
Obtain sequence set saltus step pattern.
In actual applications, subscriber equipment can receive the proprietary signal deployment information of user for the Physical Uplink Control Channel demodulated reference signal of determining this subscriber equipment that the base station sends by high-level signaling or physical layer signaling.
When subscriber equipment is determined the proprietary signal deployment information of the user of Physical Uplink Control Channel demodulated reference signal of this subscriber equipment by physical layer signaling being used for of receiving that the base station sends, the initialization condition of the pseudo random sequence generator of the sequence set saltus step pattern of Physical Uplink Control Channel demodulated reference signal
Figure BDA0000144359040000151
Each subframe is upgraded once.
Embodiment 3
Subscriber equipment receives the signal deployment information for the Physical Uplink Control Channel demodulated reference signal of determining this subscriber equipment that the base station sends, and comprising: the specific Cell Identity CI of user, the specific cell ID biasing of user, the biasing of the specific sequence displacement of user pattern.
Subscriber equipment uses one of following formula to determine the sequence displacement pattern of Physical Uplink Control Channel demodulated reference signal:
f ss = N vID cell mod 30 ,
f ss = ( ( N ID cell + ΔN ID cell ) mod 504 ) mod 30 ,
f ss = ( N ID cell mod 30 + Δ ss ′ ) mod 30 ,
f ss = ( ( N vID cell + ΔN ID cell ) mod 504 ) mod 30 ,
f ss = ( N vID cell mod 30 + Δ ss ′ ) mod 30 ,
Wherein, f SsThe sequence displacement pattern of Physical Uplink Control Channel (PUCCH), Δ SsThe proprietary sequence displacement pattern biasing in residential quarter, Δ Ss∈ 0,1 ..., 29}; Δ ' SsBe the proprietary sequence displacement pattern biasing of user, Δ ' Ss∈ 0,1 ..., 29};
Figure BDA0000144359040000157
Be Cell Identity CI,
Figure BDA0000144359040000158
Figure BDA0000144359040000159
Be the specific Cell Identity CI of user,
Figure BDA00001443590400001510
Figure BDA00001443590400001511
Be the specific cell ID biasing of user,
Figure BDA00001443590400001512
Embodiment 4
Subscriber equipment receives the signal deployment information for the Physical Uplink Control Channel demodulated reference signal of determining this subscriber equipment that the base station sends, and comprising: the specific Cell Identity CI of user, the specific cell ID biasing of user.
Subscriber equipment uses one of following formula to determine the initialization condition of pseudo random sequence generator of the cyclically shifted sequences saltus step pattern of Physical Uplink Control Channel demodulated reference signal
c init 2 = N vID cell ,
c init 2 = N ID cell + ΔN ID cell ,
c init 2 = ( N ID cell + ΔN ID cell ) mod 504 ,
c init 2 = N vID cell + ΔN ID cell ,
Figure BDA0000144359040000161
Wherein,
Figure BDA0000144359040000162
Be Cell Identity CI,
Figure BDA0000144359040000163
Figure BDA0000144359040000164
Be the specific Cell Identity CI of user,
Figure BDA0000144359040000165
Figure BDA0000144359040000166
Be the specific cell ID biasing of user,
Figure BDA0000144359040000167
At this moment, subscriber equipment just can be further according to the initialization condition of the pseudo random sequence generator of cyclically shifted sequences saltus step pattern Obtain cyclically shifted sequences saltus step pattern.
In actual applications, subscriber equipment can receive the proprietary signal deployment information of user for the Physical Uplink Control Channel demodulated reference signal of determining this subscriber equipment that the base station sends by high-level signaling or physical layer signaling.
When subscriber equipment by physical layer signaling receive that the base station sends be used for subscriber equipment and determine the proprietary signal deployment information of the user of Physical Uplink Control Channel demodulated reference signal the time, the initialization condition of the pseudo random sequence generator of the cyclically shifted sequences saltus step pattern of Physical Uplink Control Channel demodulated reference signal
Figure BDA0000144359040000169
Each subframe is upgraded once.
Embodiment 5
Subscriber equipment receives the signal deployment information for the Physical Uplink Control Channel demodulated reference signal of determining this subscriber equipment that the base station sends, and comprising: subscriber equipment uses following formula to determine the cyclically shifted sequences saltus step pattern of Physical Uplink Control Channel demodulated reference signal:
Figure BDA00001443590400001610
Wherein,
Figure BDA00001443590400001611
Be cyclically shifted sequences saltus step pattern,
Figure BDA00001443590400001612
Be the up symbolic number in each time slot, n sBe the time slot index, c () is the initialization condition of the pseudo random sequence generator of cyclically shifted sequences saltus step pattern
Figure BDA00001443590400001613
Or subscriber equipment is according to the initial condition of the pseudo random sequence generator of the definite cyclically shifted sequences saltus step pattern of the proprietary signal deployment information in the residential quarter that obtains from the base station.
Embodiment 6
Subscriber equipment receives that the base station sends is used for determining comprising the signal deployment information of the Physical Uplink Control Channel demodulated reference signal of this subscriber equipment: and the user is specific/and the specific cyclic shift saltus step in residential quarter enables signaling.
Subscriber equipment can determine the indication information of whether cutting out cyclically shifted sequences saltus step function corresponding to the active user by signal deployment information (user specific/the specific cyclic shift saltus step in residential quarter enable signaling), in actual applications, subscriber equipment can be by receiving the definite indication information of whether cutting out cyclically shifted sequences saltus step function corresponding to the active user of the specific high-level signaling of user (Disable-sequence-group-hopping).
In actual applications, subscriber equipment can also be by the definite indication information of whether cutting out cyclically shifted sequences saltus step function corresponding to the active user of the specific Sequence-hopping-enabled high-level signaling of the specific Group-hopping-enabled high-level signaling in the residential quarter that receives or residential quarter.
Need to prove, Disable-sequence-group-hopping high-level signaling, Group-hopping-enabled high-level signaling, Sequence-hopping-enabled high-level signaling are the existing signaling in the present agreement, are used for the unlatching of the saltus step of joint instructions sequence set and cyclically shifted sequences saltus step function or close.
Embodiment 7
Subscriber equipment receives the signal deployment information for the Physical Uplink Control Channel demodulated reference signal of determining this subscriber equipment that the base station sends, comprise: the Cell Identity CI that the user is proprietary, and/or the proprietary cell ID biasing of user, and/or the proprietary sequence set numbering biasing of user, and/or the proprietary sequence set pattern biasing of user, and/or the proprietary sequence displacement pattern of user, and/or the proprietary cyclically shifted sequences saltus step mode signaling of user, and/or the user proprietary/the proprietary cyclic shift saltus step in residential quarter enables signaling.
Subscriber equipment uses one of following formula to determine sequence set numbering the u:u=((f of Physical Uplink Control Channel demodulated reference signal Gh(n s)+f ' Ss) the mod30+ Δ u) mod30, perhaps, with of the prior art: u=(f Gh(n s)+f Ss) the mod30 realization: wherein, f Gh(n s) be sequence set saltus step pattern, f ' Ss, f SsSequence displacement pattern, Δ uThe proprietary sequence set numbering biasing of user, and Δ u∈ 0,1 ..., 29}.
Subscriber equipment uses one of following formula to determine the initialization condition of pseudo random sequence generator of the sequence set saltus step pattern of Physical Uplink Control Channel demodulated reference signal
Figure BDA0000144359040000172
Figure BDA0000144359040000174
Figure BDA0000144359040000175
Figure BDA0000144359040000176
Figure BDA0000144359040000177
Figure BDA0000144359040000178
Figure BDA0000144359040000179
Figure BDA00001443590400001710
And
Figure BDA00001443590400001711
(computing formula of the prior art);
Subscriber equipment uses one of following formula to determine the sequence displacement pattern f of Physical Uplink Control Channel demodulated reference signal Ss:
f ss = N vID cell mod 30 ,
f ss = ( ( N ID cell + ΔN ID cell ) mod 504 ) mod 30 ,
f ss = ( N ID cell mod 30 + Δ ss ′ ) mod 30 ,
f ss = ( ( N vID cell + ΔN ID cell ) mod 504 ) mod 30 ,
f ss = ( N vID cell mod 30 + Δ ss ′ ) mod 30 , And
f ss = N ID cell mod 30 , (computing formula of the prior art);
Subscriber equipment uses one of following formula to determine the initialization condition of pseudo random sequence generator of the cyclically shifted sequences saltus step pattern of Physical Uplink Control Channel demodulated reference signal
Figure BDA0000144359040000187
c init 2 = N vID cell ,
c init 2 = N ID cell + ΔN ID cell ,
c init 2 = ( N ID cell + ΔN ID cell ) mod 504 ,
c init 2 = N vID cell + ΔN ID cell ,
c init 2 = ( N vID cell + ΔN ID cell ) mod 504 , And
c init 2 = N ID cell (computing formula of the prior art);
Wherein, f SsThe sequence displacement pattern of Physical Uplink Control Channel (PUCCH), Δ SsThe proprietary sequence displacement pattern biasing in residential quarter, Δ Ss∈ 0,1 ..., 29}; Δ ' SsBe the proprietary sequence displacement pattern biasing of user, Δ ' Ss∈ 0,1 ..., 29};
Figure BDA00001443590400001814
Be Cell Identity CI,
Figure BDA00001443590400001815
Figure BDA00001443590400001816
Be the specific Cell Identity CI of user,
Figure BDA00001443590400001817
Figure BDA00001443590400001818
Be the specific cell ID biasing of user,
Figure BDA00001443590400001819
Subscriber equipment uses one of following formula to determine the cyclically shifted sequences saltus step pattern of Physical Uplink Control Channel demodulated reference signal:
n cs cell ( n s ) = Σ i = 0 7 c ( 8 N symb UL · n s + i ) · 2 i ,
n cs cell ( n s , l ) = Σ i = 0 7 c ( 8 N symb UL · n s + 8 l + i ) · 2 i (computing formula of the prior art);
Wherein,
Figure BDA00001443590400001822
Be the cyclically shifted sequences pattern,
Figure BDA00001443590400001823
Be the up symbolic number in each time slot, n sBe the time slot index, c () is the initialization condition of the pseudo random sequence generator of cyclically shifted sequences saltus step pattern
Figure BDA00001443590400001824
Or subscriber equipment is determined (that is, according to computing formula of the prior art according to the proprietary signal deployment information in the residential quarter that obtains from the base station
Figure BDA0000144359040000191
Determine) the initial condition of pseudo random sequence generator of cyclically shifted sequences
Figure BDA0000144359040000192
Subscriber equipment is by the definite indication information of whether cutting out cyclically shifted sequences saltus step function corresponding to the active user of signal deployment information, preferably, subscriber equipment can be by receiving the definite indication information of whether cutting out cyclically shifted sequences saltus step function corresponding to the active user of the specific high-level signaling of user (Disable-sequence-group-hopping).
Subscriber equipment is by receiving the definite indication information of whether cutting out cyclically shifted sequences saltus step function corresponding to the active user of the specific Group-hopping-enabled high-level signaling in residential quarter or the specific Sequence-hopping-enabled high-level signaling in residential quarter.
Need to prove, Disable-sequence-group-hopping high-level signaling, Group-hopping-enabled high-level signaling, Sequence-hopping-enabled high-level signaling are the existing signaling in the present agreement, are used for the unlatching of the saltus step of joint instructions sequence set and cyclically shifted sequences saltus step function or close.
Subscriber equipment can receive the proprietary signal deployment information of user for the Physical Uplink Control Channel demodulated reference signal of determining this subscriber equipment that the base station sends by high-level signaling or physical layer signaling.
When subscriber equipment was determined the proprietary signal deployment information of the user of Physical Uplink Control Channel demodulated reference signal of this subscriber equipment by physical layer signaling being used for of receiving that the base station sends, each subframe of the initialization condition of the pseudo random sequence generator of the sequence set saltus step pattern of Physical Uplink Control Channel demodulated reference signal and/or cyclically shifted sequences saltus step pattern was upgraded once.
Adopt the sending method of above-mentioned Physical Uplink Control Channel demodulated reference signal, can determine according to the proprietary signal deployment information conduct of the user that the base station sends the Main Basis content of the Physical Uplink Control Channel demodulated reference signal of subscriber equipment, Physical Uplink Control Channel demodulated reference signal after will determining again sends, and of the prior artly can only determine the problem that the problem that has presence of intercell interference that the Physical Uplink Control Channel demodulated reference signal of subscriber equipment causes and OCC can't be correctly decoded according to the proprietary signal deployment information in residential quarter thereby solved.
Fig. 6 is the dispensing device according to the Physical Uplink Control Channel demodulated reference signal of the embodiment of the invention one, and as shown in Figure 6, this device mainly comprises: the first receiver module 10, the first determination module 20 and the first sending module 30.Wherein, the first receiver module 10 is used for receiving the proprietary signal deployment information of user that the base station sends; The first determination module 20 is connected to the first receiver module 10, is used for determining according to the proprietary signal deployment information of user the Physical Uplink Control Channel demodulated reference signal of subscriber equipment; The first sending module 30 is connected to the first determination module 20, is used for subscriber equipment and sends the Physical Uplink Control Channel demodulated reference signal.
In a preferred embodiment of the present invention, the proprietary signal deployment information of user comprise following one of at least: the proprietary proprietary proprietary proprietary biasing of sequence displacement pattern, the proprietary cyclically shifted sequences saltus step mode signaling of user of the biasing of sequence set pattern, user of the biasing of sequence set numbering, user of cell ID biasing, user of Cell Identity CI, user that the user is proprietary, and the proprietary cyclic shift saltus step of user enables signaling.
In a preferred embodiment of the present invention, the Physical Uplink Control Channel demodulated reference signal comprise following one of at least: sequence set numbering, sequence set saltus step pattern, sequence displacement pattern, cyclically shifted sequences saltus step pattern, and the indication information of whether closing cyclically shifted sequences saltus step function.
Fig. 7 is the dispensing device according to the Physical Uplink Control Channel demodulated reference signal of the preferred embodiment of the present invention one, as shown in Figure 7, the first determination module 20 in this device may further include: the first determining unit 21, the second determining unit 22, the 3rd determining unit 23, the 4th determining unit 24, the 5th determining unit 25, and the 6th determining unit 26.
Wherein, the first determining unit 21 is used for determining in the following manner sequence set saltus step pattern: use one of following formula to determine the initialization condition of the pseudo random sequence generator of sequence set saltus step pattern
Figure BDA0000144359040000201
Figure BDA0000144359040000202
Figure BDA0000144359040000203
Figure BDA0000144359040000204
Figure BDA0000144359040000205
Figure BDA0000144359040000206
Figure BDA0000144359040000207
Figure BDA0000144359040000208
Figure BDA0000144359040000209
And
Figure BDA00001443590400002010
Wherein, The Cell Identity CI that obtains for subscriber equipment,
Figure BDA00001443590400002012
Be the proprietary Cell Identity CI of user,
Figure BDA00001443590400002014
Figure BDA00001443590400002015
Be the proprietary cell ID biasing of user,
Figure BDA00001443590400002016
Δ N GhBe the proprietary sequence set pattern biasing of user, Δ N Gh∈ 0,1 ..., 16}; Initialization condition according to the pseudo random sequence generator of sequence set saltus step pattern
Figure BDA00001443590400002017
Obtain sequence set saltus step pattern.
The second determining unit 22 is used for determining in the following manner sequence displacement pattern: use one of following formula to determine sequence displacement pattern f Ss:
f ss = N vID cell mod 30 ,
f ss = ( ( N ID cell + ΔN ID cell ) mod 504 ) mod 30 ,
f ss = ( N ID cell mod 30 + Δ ss ′ ) mod 30 ,
f ss = ( ( N vID cell + ΔN ID cell ) mod 504 ) mod 30 , And
f ss = ( N vID cell mod 30 + Δ ss ′ ) mod 30 ,
Wherein, Δ SsBe the proprietary sequence displacement pattern biasing in residential quarter that subscriber equipment obtains, Δ Ss∈ 0,1 ..., and 29}, Δ ' SsBe the proprietary sequence displacement pattern biasing of user, Δ ' Ss∈ 0,1 ..., 29},
Figure BDA0000144359040000216
Be Cell Identity CI,
Figure BDA0000144359040000217
Figure BDA0000144359040000218
Be the proprietary Cell Identity CI of user,
Figure BDA0000144359040000219
Figure BDA00001443590400002110
Be the proprietary cell ID biasing of user, ΔN ID cell ∈ { 0,1 , . . . , 503 } .
The 3rd determining unit 23 is used for determining in the following manner the sequence group number: use following formula to determine sequence set numbering u:
U=((f Gh(n s)+f ' Ss) the mod30+ Δ u) mod30, wherein, f Gh(n s) be the sequence set saltus step pattern that sequence set saltus step pattern or subscriber equipment are determined according to the proprietary signal deployment information in the residential quarter that obtains from the base station, f ' SsBe sequence displacement pattern or the subscriber equipment sequence displacement pattern definite according to the proprietary signal deployment information in the residential quarter that obtains from the base station, Δ uBe the proprietary sequence set numbering biasing of user, and Δ u∈ 0,1 ..., 29}.
The 4th determining unit 24 is used for determining in the following manner cyclically shifted sequences saltus step pattern: use one of following formula to determine the initialization condition of the pseudo random sequence generator of cyclically shifted sequences saltus step pattern
Figure BDA00001443590400002112
c init 2 = N vID cell ,
c init 2 = N ID cell + ΔN ID cell ,
c init 2 = ( N ID cell + ΔN ID cell ) mod 504 ,
c init 2 = N vID cell + ΔN ID cell , And
c init 2 = ( N vID cell + ΔN ID cell ) mod 504 ,
Wherein,
Figure BDA00001443590400002118
The Cell Identity CI that obtains for subscriber equipment,
Figure BDA00001443590400002119
Figure BDA00001443590400002120
Be the proprietary Cell Identity CI of user,
Figure BDA00001443590400002121
Be the proprietary cell ID biasing of user,
Figure BDA00001443590400002123
Initialization condition according to the pseudo random sequence generator of cyclically shifted sequences saltus step pattern
Figure BDA00001443590400002124
Obtain cyclically shifted sequences saltus step pattern.
The 5th determining unit 25 is used for determining in the following manner cyclically shifted sequences saltus step pattern: use following formula to determine cyclically shifted sequences saltus step pattern:
Figure BDA00001443590400002125
Wherein, Be cyclically shifted sequences saltus step pattern,
Figure BDA0000144359040000221
Be the up symbolic number in each time slot, n sBe the time slot index, c () is the initialization condition of the pseudo random sequence generator of cyclically shifted sequences saltus step pattern
Figure BDA0000144359040000222
Or subscriber equipment is according to the initial condition of the pseudo random sequence generator of the definite cyclically shifted sequences saltus step pattern of the proprietary signal deployment information in the residential quarter that obtains from the base station.
The 6th determining unit 26 is used for enabling the indication information that signaling determines whether to close cyclically shifted sequences saltus step function according to the proprietary cyclically shifted sequences saltus step of user.
Fig. 8 is the dispensing device according to the Physical Uplink Control Channel demodulated reference signal of the embodiment of the invention two, and as shown in Figure 8, this device mainly comprises: the second receiver module 40, the second determination module 50, the second sending module 60.Wherein, the second receiver module 40, the proprietary cyclic shift saltus step in residential quarter that is used for the transmission of reception base station enables signaling; The second determination module 50, be connected to the second receiver module 40, be used for enabling the indication information of whether closing cyclically shifted sequences saltus step function that signaling is determined the Physical Uplink Control Channel demodulated reference signal of subscriber equipment according to the proprietary cyclic shift saltus step in residential quarter; The second sending module 60 is connected to the second determination module 50, is used for sending the Physical Uplink Control Channel demodulated reference signal that comprises indication information.
In a preferred embodiment of the present invention, to enable signaling be one of following to the proprietary cyclic shift saltus step in residential quarter: the proprietary group hopping in residential quarter enables signaling (Group-hopping-enabled), the proprietary sequence jump in residential quarter enables signaling (Sequence-hopping-enabled).
Adopt the dispensing device of above-mentioned Physical Uplink Control Channel demodulated reference signal, can determine according to the proprietary signal deployment information conduct of the user that the base station sends the Main Basis content of the Physical Uplink Control Channel demodulated reference signal of subscriber equipment, Physical Uplink Control Channel demodulated reference signal after will determining again sends, and of the prior artly can only determine the problem that the problem that has presence of intercell interference that the Physical Uplink Control Channel demodulated reference signal of subscriber equipment causes and OCC can't be correctly decoded according to the proprietary signal deployment information in residential quarter thereby solved.
From above description, can find out, the present invention has realized following technique effect: adopt the signal deployment information that the user of base station transmission is proprietary as the Main Basis content of the Physical Uplink Control Channel demodulated reference signal of determining subscriber equipment, the mode that Physical Uplink Control Channel demodulated reference signal after will determining again sends, solved and of the prior artly can only determine the problem that the problem that has presence of intercell interference that the Physical Uplink Control Channel demodulated reference signal of subscriber equipment causes and OCC can't be correctly decoded according to the proprietary signal deployment information in residential quarter, and then reached the orthogonality that improves the minizone Physical Uplink Control Channel, resource utilization in the CoMP system, reduce the presence of intercell interference in the CoMP system, and help to improve the effect of CoMP systematic function and resource availability.
Obviously, those skilled in the art should be understood that, above-mentioned each module of the present invention or each step can realize with general calculation element, they can concentrate on the single calculation element, perhaps be distributed on the network that a plurality of calculation elements form, alternatively, they can be realized with the executable program code of calculation element, thereby, they can be stored in the storage device and be carried out by calculation element, and in some cases, can carry out step shown or that describe with the order that is different from herein, perhaps they are made into respectively each integrated circuit modules, perhaps a plurality of modules in them or step are made into the single integrated circuit module and realize.Like this, the present invention is not restricted to any proprietary hardware and software combination.
The above is the preferred embodiments of the present invention only, is not limited to the present invention, and for a person skilled in the art, the present invention can have various modifications and variations.Within the spirit and principles in the present invention all, any modification of doing, be equal to replacement, improvement etc., all should be included within protection scope of the present invention.

Claims (26)

1. the sending method of a Physical Uplink Control Channel demodulated reference signal is characterized in that, comprising:
Subscriber equipment receives the proprietary signal deployment information of user that the base station sends;
Described subscriber equipment is determined the Physical Uplink Control Channel demodulated reference signal of described subscriber equipment according to the proprietary signal deployment information of described user;
Described subscriber equipment sends described Physical Uplink Control Channel demodulated reference signal.
2. method according to claim 1 is characterized in that, the proprietary signal deployment information of described user comprise following one of at least:
The proprietary proprietary proprietary proprietary biasing of sequence displacement pattern, the proprietary cyclically shifted sequences saltus step mode signaling of user of the biasing of sequence set pattern, user of the biasing of sequence set numbering, user of cell ID biasing, user of Cell Identity CI, user that the user is proprietary, and the proprietary cyclic shift saltus step of user enables signaling.
3. method according to claim 2 is characterized in that, described Physical Uplink Control Channel demodulated reference signal comprise following one of at least:
Sequence set numbering, sequence set saltus step pattern, sequence displacement pattern, cyclically shifted sequences saltus step pattern, and the indication information of whether closing cyclically shifted sequences saltus step function.
4. method according to claim 3 is characterized in that, described subscriber equipment is determined described sequence set saltus step pattern in the following manner:
Described subscriber equipment uses one of following formula to determine the initialization condition of the pseudo random sequence generator of described sequence set saltus step pattern
Figure FDA0000144359030000011
Figure FDA0000144359030000012
Figure FDA0000144359030000013
Figure FDA0000144359030000014
Figure FDA0000144359030000015
Figure FDA0000144359030000016
Figure FDA0000144359030000022
Figure FDA0000144359030000023
And
Wherein,
Figure FDA0000144359030000025
The Cell Identity CI that obtains for described subscriber equipment,
Figure FDA0000144359030000026
Figure FDA0000144359030000027
Be the proprietary Cell Identity CI of described user,
Figure FDA0000144359030000028
Be the proprietary cell ID biasing of described user,
Figure FDA00001443590300000210
Δ N GhBe the proprietary sequence set pattern biasing of described user, Δ N Gh∈ 0,1 ..., 16};
Described subscriber equipment is according to the initialization condition of the pseudo random sequence generator of described sequence set saltus step pattern
Figure FDA00001443590300000211
Obtain
Described sequence set saltus step pattern.
5. method according to claim 4 is characterized in that, described subscriber equipment is determined described sequence displacement pattern in the following manner:
Described subscriber equipment uses one of following formula to determine described sequence displacement pattern f Ss:
f ss = N vID cell mod 30 ,
f ss = ( ( N ID cell + ΔN ID cell ) mod 504 ) mod 30 ,
f ss = ( N ID cell mod 30 + Δ ss ′ ) mod 30 ,
f ss = ( ( N vID cell + ΔN ID cell ) mod 504 ) mod 30 , And
f ss = ( N vID cell mod 30 + Δ ss ′ ) mod 30 ,
Wherein, Δ SsBe the proprietary sequence displacement pattern biasing in residential quarter that described subscriber equipment obtains, Δ Ss∈ 0,1 ..., and 29}, Δ ' SsBe the proprietary sequence displacement pattern biasing of described user, Δ ' Ss∈ 0,1 ..., 29},
Figure FDA00001443590300000217
Be described Cell Identity CI,
Figure FDA00001443590300000218
Be the proprietary Cell Identity CI of described user,
Figure FDA00001443590300000220
Figure FDA0000144359030000031
Be the proprietary cell ID biasing of described user,
Figure FDA0000144359030000032
6. method according to claim 5 is characterized in that, described subscriber equipment is determined described sequence set numbering in the following manner:
Described subscriber equipment uses following formula to determine described sequence set numbering u:
u=((f gh(n s)+f′ ss)mod30+Δ u)mod30,
Wherein, f Gh(n s) be the sequence set saltus step pattern that described sequence set saltus step pattern or described subscriber equipment are determined according to the proprietary signal deployment information in the residential quarter that obtains from described base station, f ' SsBe described sequence displacement pattern or the described subscriber equipment sequence displacement pattern definite according to the proprietary signal deployment information in the residential quarter that obtains from described base station, Δ uBe the proprietary sequence set numbering biasing of described user, and Δ u∈ 0,1 ..., 29}.
7. method according to claim 3 is characterized in that, described subscriber equipment is determined described cyclically shifted sequences saltus step pattern in the following manner:
Described subscriber equipment uses one of following formula to determine the initialization condition of the pseudo random sequence generator of described cyclically shifted sequences saltus step pattern
c init 2 = N vID cell ,
c init 2 = N ID cell + ΔN ID cell ,
c init 2 = ( N ID cell + ΔN ID cell ) mod 504 ,
c init 2 = N vID cell + ΔN ID cell , And
c init 2 = ( N vID cell + ΔN ID cell ) mod 504 ,
Wherein,
Figure FDA0000144359030000039
The Cell Identity CI that obtains for described subscriber equipment,
Figure FDA00001443590300000310
Be the proprietary Cell Identity CI of described user,
Figure FDA00001443590300000313
Be the proprietary cell ID biasing of described user,
Figure FDA00001443590300000314
Described subscriber equipment is according to the initialization condition of the pseudo random sequence generator of described cyclically shifted sequences saltus step pattern
Figure FDA00001443590300000315
Obtain described cyclically shifted sequences saltus step pattern.
8. method according to claim 7 is characterized in that, described subscriber equipment is determined described cyclically shifted sequences saltus step pattern in the following manner:
Described subscriber equipment uses following formula to determine described cyclically shifted sequences saltus step pattern:
n cs cell ( n s ) = Σ i = 0 7 c ( 8 N symb UL · n s + i ) · 2 i , Wherein,
Figure FDA0000144359030000042
Be cyclically shifted sequences saltus step pattern,
Figure FDA0000144359030000043
Be the up symbolic number in each time slot, n sBe the time slot index, c () is the initialization condition of the pseudo random sequence generator of described cyclically shifted sequences saltus step pattern Or described subscriber equipment is according to the initial condition of the pseudo random sequence generator of the definite cyclically shifted sequences saltus step pattern of the proprietary signal deployment information in the residential quarter that obtains from described base station.
9. method according to claim 3 is characterized in that, described subscriber equipment determines whether to cut out the indication information of cyclically shifted sequences saltus step function in the following manner:
Described subscriber equipment enables the indication information that signaling determines whether to close cyclically shifted sequences saltus step function according to the proprietary cyclically shifted sequences saltus step of described user.
10. method according to claim 9 is characterized in that, the proprietary cyclically shifted sequences saltus step of described user enables signaling and do not enable signaling Disable-sequence-group-hopping for the proprietary sequence of user/sequence set saltus step.
11. each described method is characterized in that according to claim 3-10, the proprietary signal deployment information of user that subscriber equipment receives the base station transmission comprises:
Described subscriber equipment receives the proprietary signal deployment information of described user that the base station sends by high-level signaling or physical layer signaling.
12. method according to claim 11 is characterized in that,
When described subscriber equipment receives the proprietary signal deployment information of described user that the base station sends by described physical layer signaling, the initialization condition of the pseudo random sequence generator of described sequence set saltus step pattern
Figure FDA0000144359030000045
Each subframe is upgraded once.
13. method according to claim 11 is characterized in that,
When described subscriber equipment receives the proprietary signal deployment information of described user that the base station sends by described physical layer signaling, the initialization condition of the pseudo random sequence generator of described cyclically shifted sequences saltus step pattern
Figure FDA0000144359030000046
Each subframe is upgraded once.
14. the dispensing device of a Physical Uplink Control Channel demodulated reference signal is characterized in that, comprising:
The first receiver module is used for receiving the proprietary signal deployment information of user that the base station sends;
The first determination module is for the Physical Uplink Control Channel demodulated reference signal of determining described subscriber equipment according to the proprietary signal deployment information of described user;
The first sending module is used for described subscriber equipment and sends described Physical Uplink Control Channel demodulated reference signal.
15. device according to claim 14 is characterized in that, the proprietary signal deployment information of described user comprise following one of at least:
The proprietary proprietary proprietary proprietary biasing of sequence displacement pattern, the proprietary cyclically shifted sequences saltus step mode signaling of user of the biasing of sequence set pattern, user of the biasing of sequence set numbering, user of cell ID biasing, user of Cell Identity CI, user that the user is proprietary, and the proprietary cyclic shift saltus step of user enables signaling.
16. device according to claim 15 is characterized in that, described Physical Uplink Control Channel demodulated reference signal comprise following one of at least:
Sequence set numbering, sequence set saltus step pattern, sequence displacement pattern, cyclically shifted sequences saltus step pattern, and the indication information of whether closing cyclically shifted sequences saltus step function.
17. device according to claim 16 is characterized in that, the first determination module comprises:
The first determining unit is used for determining in the following manner described sequence set saltus step pattern:
Use one of following formula to determine the initialization condition of the pseudo random sequence generator of described sequence set saltus step pattern
Figure FDA0000144359030000051
Figure FDA0000144359030000052
Figure FDA0000144359030000053
Figure FDA0000144359030000054
Figure FDA0000144359030000055
Figure FDA0000144359030000056
Figure FDA0000144359030000057
Figure FDA0000144359030000059
And
Figure FDA00001443590300000510
Wherein,
Figure FDA00001443590300000511
The Cell Identity CI that obtains for described subscriber equipment,
Figure FDA00001443590300000512
Figure FDA00001443590300000513
Be the proprietary Cell Identity CI of described user,
Figure FDA0000144359030000061
Be the proprietary cell ID biasing of described user,
Figure FDA0000144359030000062
Δ Ngh is the proprietary sequence set pattern biasing of described user, Δ Ngh ∈ 0,1 ..., 16};
Initialization condition according to the pseudo random sequence generator of described sequence set saltus step pattern
Figure FDA0000144359030000063
Obtain described sequence set saltus step pattern.
18. device according to claim 17 is characterized in that, the first determination module comprises:
The second determining unit is used for determining in the following manner described sequence displacement pattern:
Use one of following formula to determine described sequence displacement pattern f Ss:
f ss = N vID cell mod 30 ,
f ss = ( ( N ID cell + ΔN ID cell ) mod 504 ) mod 30 ,
f ss = ( N ID cell mod 30 + Δ ss ′ ) mod 30 ,
f ss = ( ( N vID cell + ΔN ID cell ) mod 504 ) mod 30 , And
f ss = ( N vID cell mod 30 + Δ ss ′ ) mod 30 ,
Wherein, Δ SsBe the proprietary sequence displacement pattern biasing in residential quarter that described subscriber equipment obtains, Δ Ss∈ 0,1 ..., 29},
Δ ' SsBe the proprietary sequence displacement pattern biasing of described user, Δ ' Ss∈ 0,1 ..., 29},
Figure FDA0000144359030000069
Be described Cell Identity CI,
Figure FDA00001443590300000610
Figure FDA00001443590300000611
Be the proprietary Cell Identity CI of described user,
Figure FDA00001443590300000612
Figure FDA00001443590300000613
Be the proprietary cell ID biasing of described user,
Figure FDA00001443590300000614
19. device according to claim 18 is characterized in that, the first determination module comprises:
The 3rd determining unit is used for determining in the following manner described sequence group number:
Use following formula to determine described sequence set numbering u:
u=((f gh(n s)+f′ ss)mod30+Δ u)mod30,
Wherein, f Gh(n s) be the sequence set saltus step pattern that described sequence set saltus step pattern or described subscriber equipment are determined according to the proprietary signal deployment information in the residential quarter that obtains from described base station, f ' SsBe described sequence displacement pattern or the described subscriber equipment sequence displacement pattern definite according to the proprietary signal deployment information in the residential quarter that obtains from described base station, Δ uBe the proprietary sequence set numbering biasing of described user, and Δ u∈ 0,1 ..., 29}.
20. device according to claim 16 is characterized in that, the first determination module comprises:
The 4th determining unit is used for determining in the following manner described cyclically shifted sequences saltus step pattern:
Use one of following formula to determine the initialization condition of the pseudo random sequence generator of described cyclically shifted sequences saltus step pattern
Figure FDA0000144359030000071
c init 2 = N vID cell ,
c init 2 = N ID cell + ΔN ID cell ,
c init 2 = ( N ID cell + ΔN ID cell ) mod 504 ,
c init 2 = N vID cell + ΔN ID cell , And
c init 2 = ( N vID cell + ΔN ID cell ) mod 504 ,
Wherein,
Figure FDA0000144359030000077
The Cell Identity CI that obtains for described subscriber equipment,
Figure FDA0000144359030000078
Figure FDA0000144359030000079
Be the proprietary Cell Identity CI of described user,
Figure FDA00001443590300000710
Figure FDA00001443590300000711
Be the proprietary cell ID biasing of described user,
Figure FDA00001443590300000712
Initialization condition according to the pseudo random sequence generator of described cyclically shifted sequences saltus step pattern
Figure FDA00001443590300000713
Obtain described cyclically shifted sequences saltus step pattern.
21. device according to claim 20 is characterized in that, the first determination module comprises:
The 5th determining unit is used for determining in the following manner described cyclically shifted sequences saltus step pattern:
Use following formula to determine described cyclically shifted sequences saltus step pattern:
n cs cell ( n s ) = Σ i = 0 7 c ( 8 N symb UL · n s + i ) · 2 i , Wherein,
Figure FDA00001443590300000715
Be cyclically shifted sequences saltus step pattern,
Figure FDA00001443590300000716
Be the up symbolic number in each time slot, n sBe the time slot index, c () is the initialization condition of the pseudo random sequence generator of described cyclically shifted sequences saltus step pattern
Figure FDA00001443590300000717
Or described subscriber equipment is according to the initial condition of the pseudo random sequence generator of the definite described cyclically shifted sequences saltus step pattern of the proprietary signal deployment information in the residential quarter that obtains from described base station.
22. device according to claim 16 is characterized in that, the first determination module comprises:
The 6th determining unit is used for enabling the indication information that signaling determines whether to close cyclically shifted sequences saltus step function according to the proprietary cyclically shifted sequences saltus step of described user.
23. the sending method of a Physical Uplink Control Channel demodulated reference signal is characterized in that, comprising:
The proprietary cyclic shift saltus step in residential quarter that subscriber equipment receives the base station transmission enables signaling;
Described subscriber equipment enables signaling according to the proprietary cyclic shift saltus step in described residential quarter and determines the indication information of whether cutting out cyclically shifted sequences saltus step function in the Physical Uplink Control Channel demodulated reference signal of described subscriber equipment;
Described subscriber equipment sends the described Physical Uplink Control Channel demodulated reference signal that comprises described indication information.
24. device according to claim 23 is characterized in that, it is one of following that the proprietary cyclic shift saltus step in described residential quarter enables signaling:
The proprietary group hopping in residential quarter enables signaling Group-hopping-enabled, the proprietary sequence jump in residential quarter enables signaling Sequence-hopping-enabled.
25. the dispensing device of a Physical Uplink Control Channel demodulated reference signal is characterized in that, comprising:
The second receiver module, the proprietary cyclic shift saltus step in residential quarter that is used for the transmission of reception base station enables signaling;
The second determination module is used for enabling the indication information of whether closing cyclically shifted sequences saltus step function that signaling is determined the Physical Uplink Control Channel demodulated reference signal of described subscriber equipment according to the proprietary cyclic shift saltus step in described residential quarter;
The second sending module is used for sending the described Physical Uplink Control Channel demodulated reference signal that comprises described indication information.
26. device according to claim 25 is characterized in that, it is one of following that the proprietary cyclic shift saltus step in described residential quarter enables signaling:
The proprietary group hopping in residential quarter enables signaling Group-hopping-enabled, the proprietary sequence jump in residential quarter enables signaling Sequence-hopping-enabled.
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