CN105282837A

CN105282837A - Power control method, user equipment, base station, and power control system

Info

Publication number: CN105282837A
Application number: CN201410262075.7A
Authority: CN
Inventors: 陈宪明; 戴博; 鲁照华; 夏树强; 刘锟; 石靖; 方惠英
Original assignee: ZTE Corp
Current assignee: ZTE Corp
Priority date: 2014-06-12
Filing date: 2014-06-12
Publication date: 2016-01-27
Anticipated expiration: 2034-06-12
Also published as: WO2015188513A1; CN105282837B

Abstract

The invention discloses a power control method, user equipment, a base station, and a power control system. The method comprises the steps as follows: when the number of retransmission times of physical uplink shared channel (PUSCH) data is greater than K(PUSCH), sending the retransmitted PUSCH data at power smaller than or equal to the maximum transmitted power; and when the number of retransmission times of physical uplink control channel (PUCCH) data is greater than K(PUCCH), sending the retransmitted PUCCH data at power smaller than or equal to the maximum transmitted power, wherein K(PUSCH) and K(PUCCH) are predefined values.

Description

Poewr control method, subscriber equipment, base station and system

Technical field

The present invention relates to wireless communication technology, be specifically related to a kind of Poewr control method, subscriber equipment, base station and system.

Background technology

Machine type communication (MTC, MachineTypeCommunication) also known as machine to machine (M2M, MachineToMachine) subscriber equipment (UE, UserEquipment) or terminal are the main application forms of present stage Internet of Things.Low power consumption and low cost is that it can the important leverage of large-scale application.Current M2M technology has obtained the support of international well-known manufacturer and the accreditations of various countries mobile operator such as NEC, HP, CA, Intel, IBM, AT & T.The M2M equipment of existing market deploy is mainly based on global mobile communication (GSM, GlobalSystemofMobilecommunication) system.In recent years, because the spectrum efficiency of Long Term Evolution (LTE, LongTermEvolution) is high, more and more mobile operator selects LTE as the evolution tendency of future broadband wireless communication system.M2M data service based on LTE also will be more attractive.

But, the power control mechanism of correlation technique under MTC coverage enhancement scene, exist subscriber equipment efficiency low, be unfavorable for the problem that subscriber equipment economizes on electricity.

Summary of the invention

The embodiment of the present invention provides a kind of Poewr control method, subscriber equipment, base station and system, solves the power control mechanism of correlation technique under MTC coverage enhancement scene, exist subscriber equipment efficiency low, be unfavorable for the problem that subscriber equipment economizes on electricity.

The technical scheme of the embodiment of the present invention is achieved in that

The embodiment of the present invention provides a kind of Poewr control method, and described method comprises:

When the iterative transfer times of Physical Uplink Shared Channel (PUSCH) data is greater than K _pUSCHtime, the PUSCH data repeating to transmit are sent with the power being less than or equal to maximum transmission power;

When the iterative transfer times of Physical Uplink Control Channel (PUCCH) data is greater than K _pUCCHtime, the PUCCH data repeating to transmit is sent with the power being less than or equal to maximum transmission power;

Wherein, described K _pUSCHand K _pUCCHfor predefine value.

When the iterative transfer times of the road PUSCH data of subscriber equipment is greater than K _pUSCHtime, the power contorl parameters of the PUSCH data that what notifying user equipment was proprietary repeat transmits;

When the iterative transfer times of the road PUCCH data of subscriber equipment is greater than K _pUCCHtime, the power contorl parameters of the PUCCH data that what notifying user equipment was proprietary repeat transmits;

Wherein, described K _pUSCHand K _pUCCHfor predefine value.

The embodiment of the present invention provides a kind of subscriber equipment, and described subscriber equipment comprises:

Detecting unit and transmitter unit; Wherein,

Described detecting unit, for detecting that the iterative transfer times of PUSCH data is greater than K _pUSCHtime, trigger described transmitter unit and send the PUSCH data repeating to transmit with the power being less than or equal to maximum transmission power; Detecting that the iterative transfer times of PUCCH data is greater than K _pUCCHtime, trigger described transmitter unit and send the PUCCH data repeating to transmit with the power being less than or equal to maximum transmission power;

Wherein, described K _pUSCHand K _pUCCHfor predefine value.

The embodiment of the present invention provides a kind of base station, and described base station comprises: the second determining unit and the second transmitter unit; Wherein,

Described second determining unit, is greater than K for the iterative transfer times when subscriber equipment PUSCH data _pUSCHtime, determine the power contorl parameters repeating the PUSCH data transmitted that described subscriber equipment is proprietary; When the iterative transfer times of the PUCCH data of subscriber equipment is greater than or K _pUCCHtime, determine the power contorl parameters repeating the PUCCH data transmitted that described subscriber equipment is proprietary;

Described second transmitter unit, for being transferred to corresponding subscriber equipment by described power contorl parameters.

Wherein, described K _pUSCHand K _pUCCHfor predefine value.

The embodiment of the present invention provides a kind of power control system, and described system comprises:

Subscriber equipment, is greater than K for the iterative transfer times when PUSCH data _pUSCHtime, the PUSCH data repeating to transmit are sent with the power being less than or equal to maximum transmission power; When the iterative transfer times of PUCCH data is greater than K _pUCCHtime, the PUCCH data repeating to transmit is sent with the power being less than or equal to maximum transmission power;

Wherein, described K _pUSCHand K _pUCCHfor predefine value.

In the embodiment of the present invention, when the iterative transfer times of PUSCH data is greater than K _pUSCHtime, the PUSCH data repeating to transmit are sent with the power being less than or equal to maximum transmission power; When the iterative transfer times of PUCCH data is greater than K _pUCCHtime, the PUCCH data repeating to transmit is sent with the power being less than or equal to maximum transmission power; Avoiding problems subscriber equipment always with the problem of maximum power transmission, solve relevant power control mechanism and under MTC coverage enhancement scene, reduce subscriber equipment efficiency and be unfavorable for the problem that subscriber equipment economizes on electricity.

Accompanying drawing explanation

Fig. 1 is the realization flow schematic diagram one of Poewr control method in the embodiment of the present invention;

Fig. 2 is the realization flow schematic diagram two of Poewr control method in the embodiment of the present invention;

Fig. 3 is the functional structure chart of subscriber equipment in the embodiment of the present invention;

Fig. 4 is the functional structure chart of base station in the embodiment of the present invention;

Fig. 5 is the schematic diagram of power control system in the embodiment of the present invention.

Embodiment

In order to make object of the present invention, technical scheme and advantage clearly understand, below in conjunction with drawings and Examples, the present invention is further elaborated.Should be appreciated that specific embodiment described herein only in order to explain the present invention, be not intended to limit the present invention.

The power control mechanism of the Physical Uplink Control Channel (PUCCH, PhysicalUplinkControlChannel) of existing LTE system is as shown in following equation:

P _T,PUCCH＝min{P _MAX,P _{O_PUCCH}+PL _DL+Δ _Format+δ _PUCCH}，(1)

Wherein, P _{t, PUCCH}represent the actual emission power of PUCCH data, unit is dBm (dBm), P _mAXrepresent the transmitting power (unit is dBm, such as 23dBm) that subscriber equipment is maximum, P _{o_PUCCH}represent the expectation received power of the PUCCH data once transmitted, P _{o_PUCCH}for the nominal parameter P of the community being informed subscriber equipment by high-level signaling proprietary (Cell-specific) _{o_NOMINAL_PUCCH}, with the parameter P of subscriber equipment proprietary (UE-specific) _{o_UE_PUCCH}(unit is dBm) add and, PL _dLrepresent the descending path loss (unit is dB) that subscriber equipment is estimated, Δ _formatthe power bias (unit be dB) relevant with PUCCH format, δ _pUCCHcorrespond to the clear and definite closed loop power control command (unit is dB) of automatic network.

The power control mechanism of the Physical Uplink Shared Channel (PUSCH, PhysicalUplinkSharedChannel) of existing LTE system is as shown in following equation:

P _T,PUSCH＝min{P _MAX,P _{O_PUSCH}+α·PL _DL+10·log ₁₀(M)+Δ _MCS+δ _PUSCH}，(2)

Wherein, P _{t, PUSCH}represent the actual emission power (unit is dBm) of PUSCH data, P _mAXrepresent maximum user equipment transmitting power (unit is dBm, such as 23dBm), P _{o_PUSCH}represent the expectation received power of the PUSCH data once transmitted, P _{o_PUSCH}equal to be informed by high-level signaling the nominal parameter P of the community proprietary (Cell-specific) of subscriber equipment _{o_NOMINAL_PUSCH}with the parameter P of subscriber equipment proprietary (UE-specific) _{o_UE_PUSCH}and, α=1 represent system-wide damage compensate, α <1 expressed portion divides path loss to compensate, the path loss namely increased not by the increase full remuneration of corresponding transmitting power, PL _dLrepresent the descending path loss (unit is dB) that subscriber equipment is estimated, M represents the Resource Block quantity shared by a PUSCH transfer of data, Δ _mCSrepresent the power bias depending on the Modulation and Coding Scheme (MCS, ModulationandCodingScheme) of PUSCH data, δ _pUSCHcorrespond to the clear and definite closed loop power control command of automatic network.

In actual applications, the closed loop power control command field controlled for PUSCH or PUCCH data power comprises 2 bits or 1 bit, corresponding to 4 kinds (corresponding 2 bits) or 2 kinds of value sizes (corresponding 1 bit), and described δ _pUSCHfor the concrete value corresponding to the closed loop power control command field of PUSCH data power control, and described δ _pUCCHfor the concrete value corresponding to the closed loop power control command field of PUCCH data power control.

Because some MTC subscriber equipmenies are the basements being installed in house, or by aluminum window or the building structure of traditional thick wall the position of covering, compared with normal LTE subscriber equipment, these subscriber equipmenies can experience quite serious penetration loss on radio frequency interface, thus need the covering strengthening MT reconnaissance C subscriber equipment to realize normal transfer of data.Particularly, the uplink physical channel strengthened is needed to comprise Physical Uplink Shared Channel PUSCH and Physical Uplink Control Channel PUCCH two channels.Wherein, the method that repeats to transmit (for up, described repeat to transmit be specially PUSCH or PUCCH repeat transmit) enhancing that covers of the energy thus realize that is normally used for accumulating enough useful signal.

Due to the power control mechanism in correlation technique be only be preferably PUSCH data or PUCCH data once transmission and design, too much consider or optimize the situation that PUSCH data or PUCCH data repeat to transmit, and under MTC coverage enhancement scene, the descending path loss PL that subscriber equipment is estimated or measured _dLnormally extremely large, if so repeat still to continue to use in transmission situation correlation technique PUCCH and the PUSCH power control mechanism shown in equation (1) and (2) is provided, subscriber equipment is by being used in all subframes that PUCCH and PUSCH repeat to transmit all the time with maximum power P _mAXlaunch PUCCH and PUSCH data.Consider control overhead, the subscriber equipment being in MTC coverage enhancement pattern can not support PUCCH or PUSCH number of repetition potential arbitrarily.For PUSCH, imagine the maximum transmission power P according to subscriber equipment _mAXand the covering expected, the PUSCH number of repetition of certain MTC subscriber equipment institute actual needs is X time, but, because subscriber equipment is not supported X time, only support that the PUSCH of Y time repeats transmission, wherein, Y is all minimum values be greater than in the PUSCH iterative transfer times of X of subscriber equipment support, in this case, in order to meet covering performance demand, subscriber equipment can only be selected to perform Y PUSCH and repeat transmission; But, this by cause below Y-X time of subscriber equipment repeat transmit in unnecessary power consumption, thus reduce the efficiency of subscriber equipment, be finally unfavorable for the economize on electricity of subscriber equipment.In addition, for PUCCH repeat transmission, similar problem exists equally.

The embodiment of the present invention records a kind of Poewr control method, can be applied to the subscriber equipment (also can be understood as terminal) of MTC coverage enhancement scene, and as shown in Figure 1, the Poewr control method that the embodiment of the present invention is recorded comprises the following steps:

Step 101, when the iterative transfer times of PUSCH data is greater than K _pUSCHtime, the PUSCH data repeating to transmit are sent with the power being less than or equal to maximum transmission power.

Step 102, when the iterative transfer times of PUCCH data is greater than K _pUCCHtime, the PUCCH data repeating to transmit is sent with the power being less than or equal to maximum transmission power.

Wherein, described K _pUSCHand K _pUCCHfor predefine value.

As an execution mode, before described transmission repeats the PUSCH data transmitted, described method also comprises:

Transmit the power contorl parameters of PUSCH data according to repeating or repeat to transmit the iterative transfer times N of PUSCH data _pUSCH, determine the actual emission power repeating the PUSCH data transmitted.

As an execution mode, the described power contorl parameters repeating the PUSCH data transmitted comprises:

The parameter that the subscriber equipment of network advertisement is proprietary.

As an execution mode, the parameter that described subscriber equipment is proprietary, comprising:

Aim at and repeat to transmit the parameter set by PUSCH data;

Described aim at repeat the parameter transmitted set by PUSCH data comprise following one of at least:

Repeat to transmit expectation received power P corresponding to PUSCH data _{o_RPUSCH}; Repeat to transmit road loss compensation factor α corresponding to PUSCH data _rPUSCH;

Repeat the first power offset parameter P of the PUSCH data transmitted _{rPUSCH_OFFSET_1}, and repeat the second power offset parameter P of PUSCH data of transmitting _{rPUSCH_OFFSET_2}; Wherein, the unit of above-mentioned first power offset parameter and the second power offset parameter is decibel (dB) and value is less than or equal to 0.

As an execution mode, the described power contorl parameters according to repeating the PUSCH data transmitted determines the actual emission power repeating the PUSCH data transmitted, and comprising:

According to the expectation received power P repeating the PUSCH data transmitted _{o_RPUSCH}parameter and following equation, determine the actual emission power repeating the PUSCH data transmitted:

P _T,RPUSCH＝min{P _MAX,P _{O_RPUSCH}+PL _DL+10·log ₁₀(M)+Δ _MCS+δ _PUSCH}

Wherein, P _{t, RPUSCH}represent the actual emission power (unit is dBm) repeating to transmit PUSCH data, P _mAXrepresent maximum transmitting power (unit is dBm, as 23dBm), P _{o_RPUSCH}represent the expectation received power (unit is dBm) repeating the PUSCH data transmitted, PL _dLrepresent that descending path loss is estimated, M represents the Resource Block quantity shared by a PUSCH transfer of data, Δ _mCSrepresent the power bias depending on the Modulation and Coding Scheme MCS of PUSCH data, δ _pUSCHcorrespond to the clear and definite closed loop power control command of automatic network.In practical situations both, the received power P of the expectation of the PUSCH data transmitted is repeated _{o_RPUSCH}be usually less than-100dBm, so parameter P _{o_RPUSCH}span should keep enough expansions.

As an execution mode, the described power contorl parameters according to repeating the PUSCH data transmitted, determine the actual emission power repeating the PUSCH data transmitted, comprising:

According to the road loss compensation factor α repeating the PUSCH data transmitted _rPUSCHand following equation, determine the actual emission power repeating the PUSCH data transmitted:

P _T,RPUSCH＝min{P _MAX,P _{O_PUSCH}+PL _DL'+10·log ₁₀(M)+Δ _MCS+δ _PUSCH}

PL _DL'＝α _RPUSCH·PL _DL

Wherein, P _{t, RPUSCH}represent the actual emission power repeating the PUSCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_PUSCH}represent the received power of the expectation of the PUSCH data once transmitted, PL _dLrepresent that descending path loss is estimated, α _rPUSCHrepresent the road loss compensation factor of PUSCH data repeating to transmit, M represents the Resource Block quantity that PUSCH transfer of data takies, Δ _mCSrepresent the power bias relying on PUSCH data MCS, δ _pUSCHcorrespond to the clear and definite closed loop power control command of automatic network.

According to repeating the expectation received power P transmitting PUSCH data _{o_PUSCH}with the road loss compensation factor parameter alpha repeating the PUSCH data transmitted _rPUSCH, and following equation, determine the actual emission power repeating the PUSCH data transmitted:

P _T,RPUSCH＝min{P _MAX,P _{O_RPUSCH}+PL _DL'+10·log ₁₀(M)+Δ _MCS+δ _PUSCH}

PL _DL'＝α _RPUSCH·PL _DL

Wherein, P _{t, RPUSCH}represent the actual emission power repeating the PUSCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUSCH}represent the received power of the expectation repeating the PUSCH data transmitted, PL _dLrepresent that descending path loss is estimated, α _rPUSCHrepresent the road loss compensation factor repeating the PUSCH data transmitted, M represents the number of resource blocks shared by a PUSCH transfer of data, Δ _mCSrepresent the power bias depending on the MCS of PUSCH data, δ _pUSCHcorrespond to the clear and definite closed loop power control command of automatic network.

According to the first power offset parameter P repeating the PUSCH data transmitted _{rPUSCH_OFFSET_1}, and following equation, determine the actual emission power repeating the PUSCH data transmitted:

P _T,RPUSCH＝min{P _MAX,P'+P _{RPUSCH_OFFSET_1}}

P'＝P _{O_PUSCH}+PL _DL+10·log ₁₀(M)+Δ _MCS+δ _PUSCH，

Wherein, P _{t, RPUSCH}represent the actual emission power repeating the PUSCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUSCH}represent the received power of the expectation of the PUSCH data once transmitted, PL _dLrepresent that descending path loss is estimated, M represents the number of resource blocks shared by a PUSCH transfer of data, Δ _mCSrepresent the power bias relying on PUSCH data MCS, δ _pUSCHcorrespond to the clear and definite closed loop power control command of automatic network.

According to the second power offset parameter P repeating the PUSCH data transmitted _{rPUSCH_OFFSET_2}, and following equation, determine the actual emission power repeating the PUSCH data transmitted:

P _T,RPUSCH＝P'+P _{RPUSCH_OFFSET_2}

P'＝min{P _MAX,P _{O_PUSCH}+PL _DL+10·log ₁₀(M)+Δ _MCS+δ _PUSCH}；

Or, according to the second power offset parameter P repeating the PUSCH data transmitted _{rPUSCH_OFFSET_2}, and following equation, determine the actual emission power repeating the PUSCH data transmitted:

P _T,RPUSCH＝P _MAX+P _{RPUSCH_OFFSET_2}，

Wherein, P _{t, RPUSCH}represent the actual emission power repeating the PUSCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUSCH}represent the received power of the expectation of the PUSCH data once transmitted, PL _dLrepresent that descending path loss is estimated, P _{rPUSCH_OFFSET_2}represent the second power offset parameter repeating the PUSCH data transmitted, M represents the Resource Block quantity shared by a PUSCH transfer of data, Δ _mCSrepresent the power bias relying on PUSCH data MCS, δ _pUSCHcorrespond to the clear and definite closed loop power control command of automatic network.

For following formula,

P _T,RPUSCH＝P'+P _{RPUSCH_OFFSET_2}

P'＝min{P _MAX,P _{O_PUSCH}+PL _DL+10·log ₁₀(M)+Δ _MCS+δ _PUSCH}，

Because P' wherein can be regarded as the transmitting power of the PUSCH data once transmitted, then further contemplate the extremely large path loss PL under MTC coverage enhancement scene _dLby the transmitting power P causing P' to equal maximum all the time _mAX, so above equation is equivalent to:

P _{t, RPUSCH}=P _mAX+ P _{rPUSCH_OFFSET_2}; Consider the actual emission power P repeating the PUSCH data transmitted _{t, RPUSCH}with maximum user equipment transmitting power P _mAXusual difference is little, and institute thinks the control overhead that saving is descending, described second power offset parameter P _{rPUSCH_OFFSET_2}value do not need to support enough large expansion.

Due to the extremely large descending path loss PL under MTC coverage enhancement scene _dLand the concrete value δ corresponding to existing closed loop power control command field _pUSCHthere is low-down expansion, so δ _pUSCHsize can not equal maximum power P all the time to above-mentioned P' _mAXhave an impact, thus existing closed loop power control command will lose meaning in this case; Therefore, for the subscriber equipment under MTC coverage enhancement scene, existing closed loop power control command field can be reused work second power bias P by network _{rPUSCH_OFFSET_2}field.

Subscriber equipment determines according to the power contorl parameters repeating the PUSCH data transmitted carrying out automatic network the transmitting power P repeating the PUSCH data transmitted _{t, RPUSCH}, this is conducive to network and adjusts according to the measurement result (the lasting statistics such as in continuous time section and average) to interference and noise and path loss the iterative transfer times N determined in time _pUSCHthe transmitting power of lower subscriber equipment, thus improve the flexibility of uplink power control, and be conducive to economize on electricity.

According to repeating the iterative transfer times N transmitting PUSCH data _pUSCHand following equation, determine the actual emission power repeating the PUSCH data transmitted:

P _T,RPUSCH＝min{P _MAX,P'-10·log ₁₀(N _PUSCH)}

P'＝P _{O_PUSCH}+PL _DL+10·log ₁₀(M)+Δ _MCS+δ _PUSCH，

Wherein, P _{t, RPUSCH}represent the actual emission power repeating the PUSCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUSCH}represent the received power of the expectation of the PUSCH data once transmitted, PL _dLrepresent that descending path loss is estimated, M represents the Resource Block quantity shared by a PUSCH transfer of data, Δ _mCSrepresent the power bias depending on the MCS of PUSCH data, δ _pUSCHcorrespond to the clear and definite closed loop power control command of automatic network.Subscriber equipment is according to iterative transfer times N _pUSCHdetermine the transmitting power P repeating the PUSCH data transmitted _{t, RPUSCH}, this simplify the implementation complexity of network, and save descending control signaling expense.

As an execution mode, when launching frequency pilot sign, described method also comprises:

Described frequency pilot sign is launched with the transmitting power identical with the described PUSCH data symbol repeating to transmit, or, by described frequency pilot sign all the time with maximum power transmission, wherein, described frequency pilot sign is for estimating the channel fading profiles repeating the PUSCH data transmitted.

As an execution mode, before radio frequency resource controls (RRC, RadioResourceControl) connection establishment, described method also comprises:

The PUSCH data repeating to transmit are launched according to existing power control mechanism, or, the PUSCH data transmitted are repeated all the time with maximum power transmission.

As an execution mode, before described transmission repeats the PUCCH data transmitted, described method also comprises:

According to the power contorl parameters repeating the PUCCH data transmitted, or repeat the iterative transfer times N transmitting PUCCH data _pUCCH, determine the transmitting power repeating the PUCCH data transmitted.

As an execution mode, the described power contorl parameters repeating to transmit PUCCH data comprises

Aim at and repeat to transmit the parameter set by PUCCH data;

Described aim at repeat to transmit parameter set by PUCCH data comprise following one of at least:

Repeat to transmit expectation received power P corresponding to PUCCH data _{o_RPUCCH}; Repeat to transmit road loss compensation factor α corresponding to PUCCH data _rPUCCH;

Repeat the first power offset parameter P of the PUCCH data transmitted _{rPUCCH_OFFSET_1}, and repeat the second power offset parameter P of PUCCH data of transmitting _{rPUCCH_OFFSET_2}; Wherein, the unit of above-mentioned first power offset parameter and the second power offset parameter is dB and value is less than or equal to 0.

As an execution mode, the described power contorl parameters according to repeating the PUCCH data transmitted determines the actual emission power repeating the PUCCH data transmitted, and comprising:

According to the received power P of expectation repeating the PUCCH data transmitted _{o_RPUCCH}parameter and following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝min{P _MAX,P _{O_RPUCCH}+PL _DL+Δ _Format+δ _PUCCH}，

Wherein, P _{t, RPUCCH}represent the actual emission power repeating the PUCCH data transmitted, P _mAXrepresent maximum transmitting power (unit is dBm), P _{o_RPUCCH}represent the received power (unit is dBm) of the expectation repeating the PUCCH data transmitted, PL _dLrepresent that descending path loss is estimated, Δ _formatrepresent the power bias relevant with PUCCH format, δ _pUCCHcorrespond to the clear and definite closed loop power control command of automatic network; In practical situations both, the received power P of the expectation of the PUCCH data transmitted is repeated _{o_RPUCCH}be usually less than-100dBm, so P _{o_RPUCCH}span should keep enough expansions.

According to the road loss compensation factor α repeating the PUCCH data transmitted _rPUCCH, and following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝min{P _MAX,P _{O_PUCCH}+PL _DL'+Δ _Format+δ _PUCCH}

PL _DL'＝α _RPUCCH·PL _DL，

Wherein, P _{t, RPUCCH}represent the actual emission power repeating the PUCCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUCCH}represent the received power of the expectation of the PUCCH data once transmitted, PL _dLrepresent that descending path loss is estimated, α _rPUCCHrepresent the road loss compensation factor repeating the PUCCH data transmitted, Δ _formatrepresent the power bias relevant with PUCCH format, δ _pUCCHcorrespond to the clear and definite closed loop power control command of automatic network.

According to the received power P of expectation repeating the PUCCH data transmitted _{o_RPUCCH}, repeat the road loss compensation factor α of PUCCH data that transmits _rPUCCH, and following equation determine to repeat the actual emission power of the PUCCH data transmitted:

P _T,RPUCCH＝min{P _MAX,P _{O_RPUCCH}+PL _DL'+Δ _Format+δ _PUCCH}

PL _DL'＝α _RPUCCH·PL _DL，

Wherein, P _{t, RPUCCH}represent the actual emission power repeating the PUCCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUCCH}represent the received power of the expectation repeating the PUCCH data transmitted, PL _dLrepresent that descending path loss is estimated, α _rPUCCHrepresent the road loss compensation factor repeating the PUCCH data transmitted, Δ _formatrepresent the power bias relevant with PUCCH format, δ _pUCCHcorrespond to the clear and definite closed loop power control command of automatic network.

According to the first power offset parameter P repeating the PUCCH data transmitted _{rPUCCH_OFFSET_1}, and following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝min{P _MAX,P'+P _{RPUCCH_OFFSET_1}}

P'＝P _{O_PUCCH}+PL _DL+Δ _Format+δ _PUCCH，

Wherein, P _{t, RPUCCH}represent the actual emission power repeating the PUCCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUCCH}represent the received power of the expectation of the PUCCH data once transmitted, PL _dLrepresent that descending path loss is estimated, Δ _formatthe power bias relevant with PUCCH format, δ _pUCCHcorrespond to the clear and definite closed loop power control command of automatic network.

According to the second power offset parameter P repeating the PUCCH data transmitted _{rPUCCH_OFFSET_2}and following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝P'+P _{RPUCCH_OFFSET_2}

P'＝min{P _MAX,P _{O_PUCCH}+PL _DL+Δ _Format+δ _PUCCH}，

Or according to following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝P _MAX+P _{RPUCCH_OFFSET_2}，

Wherein, P _{t, RPUCCH}represent the actual emission power repeating the PUCCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUCCH}represent the received power of the expectation of the PUSCH data once transmitted, PL _dLrepresent that descending path loss is estimated, Δ _formatthe power bias relevant with PUCCH format, δ _pUCCHcorrespond to the clear and definite closed loop power control command of automatic network.

For following formula,

P _T,RPUCCH＝P'+P _{RPUCCH_OFFSET_2}

P'＝min{P _MAX,P _{O_PUCCH}+PL _DL+Δ _Format+δ _PUCCH}，

Because P' wherein can be regarded as the transmitting power of the PUCCH data once transmitted, then further contemplate the extremely large path loss PL under MTC coverage enhancement scene _dLby the transmitting power P causing P' to equal maximum all the time _mAX, so above equation is equivalent to:

P _T,RPUCCH＝P _MAX+P _{RPUCCH_OFFSET_2}。

Consider the actual emission power P repeating the PUCCH data transmitted _{t, RPUCCH}with maximum user equipment transmitting power P _mAXusual difference is little, and institute thinks the control overhead that saving is descending, described second power offset parameter P _{rPUCCH_OFFSET_2}value do not need to support enough large expansion.

Due to the extremely large descending path loss PL under MTC coverage enhancement scene _dLand the concrete value δ corresponding to existing closed loop power control command field _pUCCHthere is low-down expansion, so δ _pUCCHsize can not equal maximum power P all the time to above-mentioned P ' _mAXhave an impact, that is, existing closed loop power control command will lose meaning in this case; Therefore, for the subscriber equipment under MTC coverage enhancement scene, existing closed loop power control command field can be reused work second power bias P by network _{rPUCCH_OFFSET_2}field.

Subscriber equipment determines according to the power contorl parameters repeating the PUCCH data transmitted carrying out automatic network the transmitting power P repeating the PUCCH data transmitted _{t, RPUCCH}, this is conducive to network and adjusts according to the measurement result (the lasting statistics such as in continuous time section and average) to interference and noise and path loss the iterative transfer times N determined in time _pUCCHunder the transmitting power of subscriber equipment, thus improve the flexibility of uplink power control, and be conducive to economize on electricity.

According to repeating the iterative transfer times N transmitting PUCCH data _pUCCHand following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝min{P _MAX,P'-10·log ₁₀(N _PUCCH)}

P'＝P _{O_PUCCH}+PL _DL+Δ _Format+δ _PUCCH，

Wherein, P _{t, RPUCCH}represent the actual emission power repeating the PUCCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUCCH}represent the received power of the expectation of the PUCCH data once transmitted, PL _dLrepresent that descending path loss is estimated, Δ _formatrepresent the power bias relevant with PUCCH format, δ _pUCCHcorrespond to the clear and definite closed loop power control command of automatic network.Subscriber equipment is according to iterative transfer times N _pUCCHdetermine the transmitting power P repeating the PUCCH data transmitted _{t, RPUCCH}, this simplify the implementation complexity of network and save descending control signaling expense.

Described frequency pilot sign is launched with the transmitting power identical with the described PUCCH data symbol repeating to transmit, or, by described frequency pilot sign all the time with maximum power transmission; Wherein, described frequency pilot sign is for estimating the channel fading profiles repeating the PUCCH data transmitted.

As an execution mode, before RRC connection establishment, described method also comprises:

The PUCCH data repeating to transmit is launched according to existing power control mechanism; Or, the PUCCH data transmitted is repeated all the time with maximum power transmission.

It should be noted that, about the selection of uplink power control mechanism, in specific implementation process, comprise following three kinds of modes: mode one, repeat the uplink power control mechanism of existing (aforementioned explain) that the PUCCH data transmitted provides according to correlation technique all the time or send with maximum power all the time, but the PUSCH data repeating to transmit can send according to new uplink power control mechanism of the present invention according to network configuration, to realize the optimization for the PUSCH transmission repeated; Mode two, the PUSCH data repeating to transmit are all the time according to having the uplink power control mechanism of (namely correlation technique provides) or sending with maximum power all the time, but the uplink power control mechanism that the PUCCH data repeating to transmit can be recorded according to the embodiment of the present invention according to network configuration sends, to realize the optimization for the PUCCH transmission repeated; 3rd, the uplink power control mechanism that PUCCH and the PUSCH data repeating to transmit can be recorded according to the embodiment of the present invention according to network configuration sends, to realize the optimization for the PUCCH repeated and PUSCH transmission.

With the Poewr control method shown in Fig. 1 accordingly, the embodiment of the present invention also records a kind of Poewr control method, the base station side (also can be understood as network side) under MTC coverage enhancement scene can be applied to, as shown in Figure 2, the Poewr control method following steps of embodiment of the present invention record:

Step 201, when the iterative transfer times of the PUSCH data of subscriber equipment is greater than K _pUSCHtime, the power contorl parameters of the PUSCH data that what notifying user equipment was proprietary repeat transmits.

Step 202, when the iterative transfer times of the PUCCH data of subscriber equipment is greater than K _pUCCHtime, the power contorl parameters of the PUCCH data that what notifying user equipment was proprietary repeat transmits.

Wherein, described K _pUSCHand K _pUCCHfor predefine value.

The execution of step 201 and step 202 in proper order in no particular order.

As an execution mode, the described power contorl parameters repeating transmission PUSCH data, comprising:

Aim at and repeat to transmit the parameter set by PUSCH data;

Repeat the first power offset parameter P of the PUSCH data transmitted _{rPUSCH_OFFSET_1}, and repeat the second power offset parameter P of PUSCH data of transmitting _{rPUSCH_OFFSET_2}.

As an execution mode, the described power contorl parameters repeating transmission PUCCH data, comprising:

Aim at and repeat to transmit the parameter set by PUCCH data;

Repeat the first power offset parameter P of the PUCCH data transmitted _{rPUCCH_OFFSET_1}, and repeat the second power offset parameter P of PUSCH data of transmitting _{rPUCCH_OFFSET_2}.

The embodiment of the present invention also records a kind of computer-readable storage medium, stores computer executable instructions in described computer-readable storage medium, and described computer executable instructions is for performing the Poewr control method shown in Fig. 1 or Fig. 2.

The embodiment of the present invention also records a kind of subscriber equipment, and as shown in Figure 3, described subscriber equipment comprises: detecting unit 31 and transmitter unit 32; Wherein,

Described detecting unit 31, for detecting that the iterative transfer times of PUSCH data is greater than K _pUSCHtime, trigger described transmitter unit 32 and send the PUSCH data repeating to transmit with the power being less than or equal to maximum transmission power; Detecting that the iterative transfer times of PUCCH data is greater than K _pUCCHtime, trigger described transmitter unit 32 and send the PUCCH data repeating to transmit with the power being less than or equal to maximum transmission power; Wherein, described K _pUSCHand K _pUCCHfor predefine value.

As an execution mode, described subscriber equipment also comprises:

First determining unit 33, for the iterative transfer times N of PUSCH data transmitted according to the power contorl parameters or repeat repeating the PUSCH data transmitted _pUSCH, determine the actual emission power repeating the PUSCH data transmitted;

Described transmitter unit 32, also for launching the PUSCH data repeating to transmit according to described actual emission power.

Aim at and repeat to transmit the parameter set by PUSCH data;

As an execution mode, described first determining unit 33, also for according to the received power P repeating the expectation transmitting PUSCH data _{o_RPUSCH}parameter and following equation, determine the actual emission power repeating the PUSCH data transmitted:

Wherein, P _{t, RPUSCH}represent the actual emission power repeating the PUSCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUSCH}represent the expectation received power repeating the PUSCH data transmitted, PL _dLrepresent that descending path loss is estimated, M represents the Resource Block quantity shared by a PUSCH transfer of data, Δ _mCSrepresent the power bias depending on the Modulation and Coding Scheme MCS of PUSCH data, δ _pUSCHcorrespond to the clear and definite closed loop power control command of automatic network.

As an execution mode, described first determining unit 33, also for according to repeating the road loss compensation factor α transmitting PUSCH data _rPUSCH, and following equation, determine the actual emission power repeating the PUSCH data transmitted:

PL _DL'＝α _RPUSCH·PL _DL

Wherein, P _{t, RPUSCH}represent the actual emission power repeating the PUSCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_PUSCH}represent the received power of the expectation of the PUSCH data once transmitted, PL _dLrepresent that descending path loss is estimated, α _rPUSCHrepresent the road loss compensation factor repeating the PUSCH data transmitted, M represents the Resource Block quantity shared by a PUSCH transfer of data, Δ _mCSrepresent the power bias relying on PUSCH data MCS, δ _pUSCHcorrespond to the clear and definite closed loop power control command of automatic network.

As an execution mode, described first determining unit 33, also for according to the received power parameter P repeating the expectation transmitting PUSCH data _{o_PUSCH}with the road loss compensation factor parameter alpha repeating the PUSCH data transmitted _rPUSCH, and following equation, determine the actual emission power repeating the PUSCH data transmitted:

PL _DL'＝α _RPUSCH·PL _DL

As an execution mode, described first determining unit 33, also for according to repeating the first power offset parameter P transmitting PUSCH data _{rPUSCH_OFFSET_1}, and following equation, determine the actual emission power repeating to transmit PUSCH data:

P _T,RPUSCH＝min{P _MAX,P'+P _{RPUSCH_OFFSET_1}}

P'＝P _{O_PUSCH}+PL _DL+10·log ₁₀(M)+Δ _MCS+δ _PUSCH，

As an execution mode, described first determining unit 33, also for according to repeating the second power offset parameter P transmitting PUSCH data _{rPUSCH_OFFSET_2}, and following equation, determine the actual emission power repeating to transmit PUSCH data:

P _T,RPUSCH＝P'+P _{RPUSCH_OFFSET_2}

P'＝min{P _MAX,P _{O_PUSCH}+PL _DL+10·log ₁₀(M)+Δ _MCS+δ _PUSCH}；

P _T,RPUSCH＝P _MAX+P _{RPUSCH_OFFSET_2}，

As an execution mode, described first determining unit 33, also for according to repeating the iterative transfer times N transmitting PUSCH data _pUSCHand following equation, determine the actual emission power repeating the PUSCH data transmitted:

P _T,RPUSCH＝min{P _MAX,P'-10·log ₁₀(N _PUSCH)}

P'＝P _{O_PUSCH}+PL _DL+10·log ₁₀(M)+Δ _MCS+δ _PUSCH，

Wherein, P _{t, RPUSCH}represent the actual emission power repeating the PUSCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUSCH}represent the received power of the expectation of the PUSCH data once transmitted, PL _dLrepresent that descending path loss is estimated, M represents the Resource Block quantity shared by a PUSCH transfer of data, Δ _mCSrepresent the power bias depending on the MCS of PUSCH data, δ _pUSCHcorrespond to the clear and definite closed loop power control command of automatic network.

As an execution mode, described transmitter unit 32, also for when launching frequency pilot sign, launches described frequency pilot sign with the transmitting power identical with the described PUSCH data symbol repeating to transmit, or, by described frequency pilot sign all the time with maximum power transmission.

As an execution mode, described transmitter unit 32 also for before RRC connection establishment, launches the PUSCH data repeating to transmit according to existing power control mechanism, or, the PUSCH data transmitted are repeated all the time with maximum power transmission.

As an execution mode, described first determining unit 33, also for determining the transmitting power repeating the PUCCH data transmitted according to the power contorl parameters repeating to transmit PUCCH data; Or, according to repeating the iterative transfer times N transmitting PUCCH data _pUCCH, determine the transmitting power repeating the PUCCH data transmitted.

As an execution mode, the parameter that the subscriber equipment that the described power contorl parameters repeating the PUCCH data transmitted comprises network advertisement is proprietary.

Aim at and repeat to transmit the parameter set by PUCCH data;

Repeat the first power offset parameter P of the PUCCH data transmitted _{rPUCCH_OFFSET_1}, and repeat the second power offset parameter P of PUCCH data of transmitting _{rPUCCH_OFFSET_2}.

As an execution mode, described first determining unit 33, also for according to repeating the received power P of expectation transmitting PUCCH data _{o_RPUCCH}parameter and following equation, determine the actual emission power repeating to transmit PUCCH data:

P _T,RPUCCH＝min{P _MAX,P _{O_RPUCCH}+PL _DL+Δ _Format+δ _PUCCH}，

Wherein, P _{t, RPUCCH}represent the actual emission power repeating the PUCCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUCCH}represent the received power of the expectation repeating the PUCCH data transmitted, PL _dLrepresent that descending path loss is estimated, Δ _formatrepresent the power bias relevant with PUCCH format, δ _pUCCHcorrespond to the clear and definite closed loop power control command of automatic network.

As an execution mode, described first determining unit 33, also for according to the road loss compensation factor α of PUCCH data repeating to transmit _rPUCCH, and following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝min{P _MAX,P _{O_PUCCH}+PL _DL'+Δ _Format+δ _PUCCH}

PL _DL'＝α _RPUCCH·PL _DL，

As an execution mode, described first determining unit 33, also for transmitting the expectation received power P of PUCCH data according to repeating _{o_RPUCCH}, repeat to transmit the road loss compensation factor α of PUCCH data _rPUCCHand following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝min{P _MAX,P _{O_RPUCCH}+PL _DL'+Δ _Format+δ _PUCCH}

PL _DL'＝α _RPUCCH·PL _DL，

Wherein, P _{t, RPUCCH}represent the actual emission power repeating the PUCCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUCCH}represent the received power of the expectation repeating the PUCCH data transmitted, PL _dLrepresent that descending path loss is estimated, α _rPUCCHrepresent the road loss compensation factor repeating to transmit PUCCH data, Δ _formatrepresent the power bias relevant with PUCCH format, δ _pUCCHcorrespond to the clear and definite closed loop power control command of automatic network.

As an execution mode, described first determining unit 33, also for transmitting the first power offset parameter P of PUCCH data according to repeating _{rPUCCH_OFFSET_1}, and following equation, determine the actual emission power repeating to transmit PUCCH data:

P _T,RPUCCH＝min{P _MAX,P'+P _{RPUCCH_OFFSET_1}}

P'＝P _{O_PUCCH}+PL _DL+Δ _Format+δ _PUCCH，

As an execution mode, described first determining unit 33, also for transmitting the second power offset parameter P of PUCCH data according to repeating _{rPUCCH_OFFSET_2}, and following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝P'+P _{RPUCCH_OFFSET_2}

P'＝min{P _MAX,P _{O_PUCCH}+PL _DL+Δ _Format+δ _PUCCH}，

Or, according to following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝P _MAX+P _{RPUCCH_OFFSET_2}，

As an execution mode, described first determining unit 33, also for transmitting the iterative transfer times N of PUCCH data according to repeating _pUCCHand following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝min{P _MAX,P'-10·log ₁₀(N _PUCCH)}

P'＝P _{O_PUCCH}+PL _DL+Δ _Format+δ _PUCCH，

Wherein, P _{t, RPUCCH}represent the actual emission power repeating the PUCCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUCCH}represent the received power of the expectation of the PUCCH data once transmitted, PL _dLrepresent that descending path loss is estimated, Δ _formatrepresent the power bias relevant with PUCCH format, δ _pUCCHcorrespond to the clear and definite closed loop power control command of automatic network.

As an execution mode, described transmitter unit 32, also for when launching frequency pilot sign, launches described frequency pilot sign with the transmitting power identical with the described PUCCH data symbol repeating to transmit, or, by described frequency pilot sign all the time with maximum power transmission.

As an execution mode, described transmitter unit 32, also for before RRC connection establishment, launches the PUCCH data repeating to transmit according to existing power control mechanism; Or, the PUCCH data transmitted is repeated all the time with maximum power transmission.

In practical application, detecting unit 31, first determining unit 33 can by the central processing unit (CPU in subscriber equipment, CentralProcessingUnit), digital signal processor (DSP, DigitalSignalProcessor) or field programmable gate array (FPGA, FieldProgrammableGateArray) realize; Transmitter unit 32 can be realized by the transmitter in subscriber equipment;

The embodiment of the present invention also records a kind of base station, and can carry out power control under MTC coverage enhancement scene, as shown in Figure 4, described base station comprises: the second determining unit 41 and the second transmitter unit 42;

Wherein, described second determining unit 41, is greater than K for the iterative transfer times when subscriber equipment PUSCH data _pUSCHtime, determine the power contorl parameters repeating the PUSCH data transmitted that described subscriber equipment is proprietary; When the iterative transfer times of the PUCCH data of described subscriber equipment is greater than or K _pUCCHtime, determine the power contorl parameters repeating the PUCCH data transmitted that described subscriber equipment is proprietary;

Described second transmitter unit 42, for being transferred to relative user equipment by described power contorl parameters.

Wherein, described K _pUSCHand K _pUCCHfor predefine value.

Aim at and repeat to transmit the parameter set by PUSCH data;

Aim at and repeat to transmit the parameter set by PUCCH data;

The expectation received power P that PUCCH data is corresponding _{o_RPUCCH}; The road loss compensation factor α that PUCCH data is corresponding _rPUCCH;

The embodiment of the present invention also records a kind of power control system, under can being applied in MTC coverage enhancement scene, as shown in Figure 5, comprising:

Subscriber equipment 51, when the iterative transfer times of PUSCH data is greater than K _pUSCHtime, the PUSCH data repeating to transmit are sent with the power being less than or equal to maximum transmission power; When the iterative transfer times of PUCCH data is greater than K _pUCCHtime, the PUCCH data repeating to transmit is sent with the power being less than or equal to maximum transmission power; Wherein, described K _pUSCHand K _pUCCHfor predefine value.

Described system also comprises: base station 52, be greater than K for the iterative transfer times of PUSCH data when subscriber equipment 51 _pUSCHtime, the power contorl parameters of the PUSCH data that what notifying user equipment 51 was proprietary repeat transmits; When the iterative transfer times of the PUCCH data of subscriber equipment 51 is greater than or K _pUCCHtime, the power contorl parameters of the PUCCH data that what notifying user equipment 51 was proprietary repeat transmits.

As an execution mode, described subscriber equipment 51, before also repeating transmission PUSCH data for transmission, transmits the power contorl parameters of PUSCH data according to repeating or repeats to transmit the iterative transfer times N of PUSCH data _pUSCH, determine the actual emission power repeating the PUSCH data transmitted.

Wherein, the described power contorl parameters repeating the PUSCH data transmitted comprises:

The parameter that the subscriber equipment 51 of network advertisement is proprietary; The proprietary parameter of described subscriber equipment comprises: aim at and repeat to transmit the parameter set by PUSCH data; Described aim at repeat the parameter transmitted set by PUSCH data comprise following one of at least:

As an execution mode, described subscriber equipment 51, also for according to the received power P of expectation repeating the PUSCH data transmitted _{o_RPUSCH}parameter and following equation, determine the actual emission power repeating the PUSCH data transmitted:

As an execution mode, described subscriber equipment 51, also for according to the road loss compensation factor α of PUSCH data repeating to transmit _rPUSCH, and following equation, determine the actual emission power repeating the PUSCH data transmitted:

PL _DL'＝α _RPUSCH·PL _DL

As an execution mode, described subscriber equipment 51, also for according to the received power parameter P of expectation repeating the PUSCH data transmitted _{o_PUSCH}with the road loss compensation factor parameter alpha repeating the PUSCH data transmitted _rPUSCH, and following equation, determine the actual emission power repeating the PUSCH data transmitted:

PL _DL'＝α _RPUSCH·PL _DL

As an execution mode, described subscriber equipment 51, also for according to the first power offset parameter P of PUSCH data repeating to transmit _{rPUSCH_OFFSET_1}, and following equation, determine the actual emission power repeating the PUSCH data transmitted:

P _T,RPUSCH＝min{P _MAX,P'+P _{RPUSCH_OFFSET_1}}

P'＝P _{O_PUSCH}+PL _DL+10·log ₁₀(M)+Δ _MCS+δ _PUSCH，

As an execution mode, described subscriber equipment 51, also for according to the second power offset parameter P of PUSCH data repeating to transmit _{rPUSCH_OFFSET_2}, and following equation, determine the actual emission power repeating the PUSCH data transmitted:

P _T,RPUSCH＝P'+P _{RPUSCH_OFFSET_2}

P'=min{P _mAX, P _{o_PUSCH}+ PL _dL+ 10log ₁₀(M)+Δ _mCS+ δ _pUSCH; Or,

P _T,RPUSCH＝P _MAX+P _{RPUSCH_OFFSET_2}，

Subscriber equipment determines according to the power contorl parameters repeating the PUSCH data transmitted carrying out automatic network the transmitting power P repeating the PUSCH data transmitted _{t, RPUSCH}, this is conducive to network and adjusts according to the measurement result (the lasting statistics such as in continuous time section and average) to interference and noise and path loss the iterative transfer times N determined in time _pUSCHthe transmitting power of lower subscriber equipment, thus improve the flexibility of uplink power control, and be conducive to subscriber equipment economize on electricity.

As an execution mode, described subscriber equipment 51, also for according to repeating the iterative transfer times N transmitting PUSCH data _pUSCH, and following equation, determine the actual emission power repeating the PUSCH data transmitted:

P _T,RPUSCH＝min{P _MAX,P'-10·log ₁₀(N _PUSCH)}

P'＝P _{O_PUSCH}+PL _DL+10·log ₁₀(M)+Δ _MCS+δ _PUSCH，

Wherein, P _{t, RPUSCH}represent the actual emission power repeating the PUSCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUSCH}represent the received power of the expectation of the PUSCH data once transmitted, PL _dLrepresent that descending path loss is estimated, M represents the Resource Block quantity shared by a PUSCH transfer of data, Δ _mCSrepresent the power bias depending on the MCS of PUSCH data, δ _pUSCHcorrespond to the clear and definite closed loop power control command of automatic network.Subscriber equipment is according to iterative transfer times N _pUSCH, determine the transmitting power P repeating the PUSCH data transmitted _{t, RPUSCH}, this simplify the implementation complexity of network and save descending control signaling expense.

As an execution mode, described subscriber equipment 51, also for when launching frequency pilot sign, launches described frequency pilot sign with the transmitting power identical with the described PUSCH data symbol repeating to transmit, or, by described frequency pilot sign all the time with maximum power transmission.

As an execution mode, described subscriber equipment 51, also for before RRC connection establishment, launches the PUSCH data repeating to transmit according to existing power control mechanism, or, the PUSCH data transmitted are repeated all the time with maximum power transmission.

As an execution mode, described subscriber equipment 51, before also repeating transmission PUCCH data for transmission, determines the transmitting power of the PUCCH data repeating to transmit according to the power contorl parameters repeating the PUCCH data transmitted; Or, according to repeating the iterative transfer times N transmitting PUCCH data _pUCCH, determine the transmitting power repeating the PUCCH data transmitted.

Wherein, the parameter that the described power contorl parameters of PUCCH data repeating the to transmit subscriber equipment 51 that comprises network advertisement is proprietary; The described power contorl parameters repeating the PUCCH data transmitted, comprising: aim at and repeat to transmit the parameter set by PUCCH data; Described aim at repeat to transmit parameter set by PUCCH data comprise following one of at least:

As an execution mode, described subscriber equipment 51, also for according to the received power P of expectation repeating the PUCCH data transmitted _{o_RPUCCH}parameter and following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝min{P _MAX,P _{O_RPUCCH}+PL _DL+Δ _Format+δ _PUCCH}，

As an execution mode, described subscriber equipment 51, also for according to the road loss compensation factor α of PUCCH data repeating to transmit _rPUCCH, and following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝min{P _MAX,P _{O_PUCCH}+PL _DL'+Δ _Format+δ _PUCCH}

PL _DL'＝α _RPUCCH·PL _DL，

As an execution mode, described subscriber equipment 51, also for according to repeating the received power P of expectation transmitting PUCCH data _{o_RPUCCH}, repeat the road loss compensation factor α of PUCCH data that transmits _rPUCCHand following equation determines the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝min{P _MAX,P _{O_RPUCCH}+PL _DL'+Δ _Format+δ _PUCCH}

PL _DL'＝α _RPUCCH·PL _DL，

As an execution mode, described subscriber equipment 51, also for according to the first power offset parameter P of PUCCH data repeating to transmit _{rPUCCH_OFFSET_1}, and following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝min{P _MAX,P'+P _{RPUCCH_OFFSET_1}}

P'＝P _{O_PUCCH}+PL _DL+Δ _Format+δ _PUCCH，

As an execution mode, described subscriber equipment 51, also for transmitting the second power offset parameter P of PUCCH data according to repeating _{rPUCCH_OFFSET_2}and following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝P'+P _{RPUCCH_OFFSET_2}

P'＝min{P _MAX,P _{O_PUCCH}+PL _DL+Δ _Format+δ _PUCCH}，

P _T,RPUCCH＝P _MAX+P _{RPUCCH_OFFSET_2}，

As an execution mode, described subscriber equipment 51, also for transmitting the iterative transfer times N of PUCCH data according to repeating _pUCCHand following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝min{P _MAX,P'-10·log ₁₀(N _PUCCH)}

P'＝P _{O_PUCCH}+PL _DL+Δ _Format+δ _PUCCH，

As an execution mode, described subscriber equipment 51, time also for launching frequency pilot sign, launches described frequency pilot sign with the transmitting power identical with the described PUCCH data symbol repeating to transmit, or, by described frequency pilot sign all the time with maximum power transmission.

As an execution mode, described subscriber equipment 51, also for before RRC connection establishment, launches the PUCCH data repeating to transmit according to existing power control mechanism; Or, the PUCCH data transmitted is repeated all the time with maximum power transmission.

It should be noted that, about the selection of uplink power control mechanism, in specific implementation process, comprise following three kinds of modes: the first, the PUCCH data repeating to transmit is all the time according to existing uplink power control mechanism or all the time with maximum power P _mAXsend, but the PUSCH data repeating to transmit can carry out sending to realize the optimization for the PUSCH transmission repeated according to new uplink power control mechanism of the present invention according to network configuration; The second, the PUSCH data repeating to transmit are all the time according to existing uplink power control mechanism or all the time with maximum power P _mAXsend, but the PUCCH data repeating to transmit can carry out sending to realize the optimization for the PUCCH transmission repeated according to new uplink power control mechanism of the present invention according to network configuration; 3rd, PUCCH or the PUSCH data repeating to transmit can according to network configuration according to the machine-processed optimization carrying out sending to realize for the PUCCH repeated or PUSCH transmission of new uplink power control of the present invention.

Be described in conjunction with specific embodiments more below.

Specific embodiment one

Network (respective base station) determines the power level of the power level of noise and the interference from neighbor cell, and one of at least determine up path loss according to following: from the uplink detection reference signal (SRS, SoundingReferenceSignal) of subscriber equipment; Stochastic accessing (RA, RandomAccess) signal; From the feedback about descending path loss measured value of subscriber equipment.Network determines the iterative transfer times N of the PUSCH data repeating to transmit according to the power level of described Noise and Interference and up path loss _pUSCH, and repeat the received power P of expectation of the PUSCH data transmitted accordingly _{o_RPUSCH}, and will the iterative transfer times N of the PUSCH data transmitted be repeated _pUSCHwith the received power P expected _{o_RPUSCH}inform subscriber equipment.Or network and subscriber equipment are according to the iterative transfer times N repeating the up RA signal transmitted from subscriber equipment _rAdetermine the iterative transfer times N repeating the PUSCH data transmitted _pUSCH, network determines the received power P of the expectation of the PUSCH data repeating to transmit according to the power level of described Noise and Interference and up path loss _{o_RPUSCH}, and the received power P that will expect _{o_RPUSCH}inform subscriber equipment.

In implementation procedure, network is according to the power level of Noise and Interference and up path loss determination iterative transfer times N _pUSCHand the corresponding received power P expected _{o_RPUSCH}comprise:

The transmitting power P desired by PUSCH data once transmitted is determined according to interference and the power level of noise and up path loss _a; According to the transmitting power P of described expectation _aand the maximum transmission power P of subscriber equipment _mAXdetermine the first iterative transfer times R repeating the PUSCH data transmitted _a; Wherein, R _afor subscriber equipment is all the time with maximum power P _mAXiterative transfer times in transmitting situation required for subscriber equipment; According to described R _aand the iterative transfer times set that subscriber equipment is supported, determine the second iterative transfer times R repeating the PUSCH data transmitted _b; Wherein, described R _br is more than or equal to for what belong to the iterative transfer times set of subscriber equipment support _aall elements in minimum value; Described second iterative transfer times R _bequal the actual iterative transfer times N repeating the PUSCH data transmitted _pUSCH.According to R _bthe transmitting power P of the expectation once transmitted _adetermine to repeat to transmit R _bthe transmitting power P of the expectation of secondary PUSCH data _b; According to described P _awith P _bbetween difference power (unit is dB), and the received power P of the expectation once transmitted _{o_PUSCH}determine the received power P repeating the expectation transmitted _{o_RPUSCH}.

In the present embodiment, the iterative transfer times N of imagination PUSCH _pUSCHbe greater than predefine value K _pUSCH; Imagination subscriber equipment maximum transmission power P _mAXvalue is 23dBm, the received power P that the PUSCH data repeating to transmit are expected _{o_RPUSCH}value is-120dBm, specifies closed loop power control command δ _pUSCHvalue is 0dB, the descending path loss PL that subscriber equipment is estimated _dLvalue is probably 130dB; The number of resource blocks M value imagined shared by a PUSCH transfer of data is 5; Imagine each Resource Block on frequency domain, occupy continuous print 12 subcarriers, time domain occupies continuous print 14 OFDM (OFDM, OrthogonalFrequencyDivisionMultiplexing) symbol, so each Resource Block comprises 168 (=12 × 14) individual Resource Unit (RE, ResourceElement); In addition, because 2 in described 14 OFDM symbol are for carrying pilot tone, remaining 12 OFDM symbol are for carrying PUSCH data, so each Resource Block comprises 144 (=12 × 12) individual Resource Unit for carrying PUSCH data;

Further imagination subscriber equipment is according to following equation, obtains the power bias Δ depending on PUSCH data MCS used _mCSvalue:

Δ_{MCS} = 10 \cdot \log_{10} (2^{1.25 \cdot L} - 1), L = \frac{K}{N_{RE}},

Wherein, K represents transmission block size (TBS, TransportBlockSize), N _rErepresent the Resource Unit number carrying PUSCH data in an above-mentioned M Resource Block, L represents the effective information bit number that each Resource Unit carries.If the value of imagination K is 1000, then subscriber equipment by following process, can determine Δ _mCSvalue be probably 3.7dB:

L = \frac{K}{N_{RE}} = \frac{1000}{5 \times 144} \approx 1.4

Δ _MCS＝10·log ₁₀(2 ^1.25·L-1)＝10·log ₁₀(2 ^1.25×1.4-1)＝3.7(dB)。

Finally, subscriber equipment according to following equation,

P _T,RPUSCH＝min{P _MAX,P _{O_RPUSCH}+PL _DL+10·log ₁₀(M)+Δ _MCS+δ _PUSCH}，

Determine the actual emission power P repeating the PUSCH data transmitted _{t, RPUSCH}for:

min{23,-120+130+10·log ₁₀(5)+3.7+0}＝20.7(dBm)。

Now, the actual emission power P of the PUSCH data transmitted is repeated _{t, RPUSCH}lower than the maximum transmission power P that subscriber equipment is supported _mAX.

Specific embodiment two

Network (base station side) determines the power level of the power level of noise and the interference from neighbor cell, and one of at least determines up path loss according to following: from the SRS of subscriber equipment; From the RA signal of subscriber equipment; From the feedback about descending path loss measured value of subscriber equipment.Network determines the iterative transfer times N of the PUSCH data repeating to transmit according to the power level of described Noise and Interference and up path loss _pUSCH, and repeat the road loss compensation factor α of the PUSCH data transmitted accordingly _rPUSCHand will the iterative transfer times N of the PUSCH data transmitted be repeated _pUSCHwith road loss compensation factor α _rPUSCHinform subscriber equipment.Or network and subscriber equipment are according to the iterative transfer times N repeating the RA signal transmitted from subscriber equipment _rAdetermine the iterative transfer times N repeating the PUSCH data transmitted _pUSCH, network determines the road loss compensation factor α of the PUSCH data repeating to transmit according to the power level of described Noise and Interference and up path loss _rPUSCH, and by above-mentioned road loss compensation factor α _rPUSCHinform subscriber equipment.

In implementation procedure, network is according to the power level of Noise and Interference and up path loss determination iterative transfer times N _pUSCHand corresponding road loss compensation factor α _rPUSCHcomprise:

The transmitting power P desired by PUSCH data once transmitted is determined according to interference and the power level of noise and up path loss _a; According to the transmitting power P of described expectation _aand the maximum transmission power P of subscriber equipment _mAXdetermine the first iterative transfer times R repeating the PUSCH data transmitted _a; Wherein, R _afor subscriber equipment is all the time with maximum power P _mAXiterative transfer times in transmitting situation required for subscriber equipment; According to described R _aand the second iterative transfer times R repeating the PUSCH data transmitted is determined in the iterative transfer times set of subscriber equipment support _b; Wherein, described R _br is more than or equal to for what belong to the iterative transfer times set of subscriber equipment support _aall elements in minimum value; Described second iterative transfer times RB equals the actual iterative transfer times N repeating the PUSCH data transmitted _pUSCH.According to R _bthe transmitting power PA of the expectation once transmitted determines to repeat to transmit R _bthe transmitting power P of the expectation of secondary PUSCH data _b; According to described P _awith P _bbetween difference power (unit is dB), and up path loss determines to repeat the road loss compensation factor α of the PUSCH data transmitted _rPUSCH.

In the present embodiment, the iterative transfer times N of imagination PUSCH _pUSCHbe greater than predefine value K _pUSCH; Imagination subscriber equipment maximum transmission power P _mAXvalue is 23dBm, the received power P that the PUSCH data once transmitted are expected _{o_PUSCH}value is-100dBm, specifies closed loop power control command δ _pUSCHvalue is 0dB, the descending path loss PL that subscriber equipment is estimated _dLvalue is probably 138dB, repeats the road loss compensation factor α transmitting PUSCH data _rPUSCHvalue is 0.8; The number of resource blocks M value imagined shared by a PUSCH transfer of data is 5; Imagine on each Resource Block frequency domain and occupy continuous 12 subcarriers, time domain occupies continuous 14 OFDM symbol, so each Resource Block comprises 168 (=12 × 14) individual Resource Unit; In addition, because 2 in described 14 OFDM symbol are for carrying pilot tone, remain OFDM symbol for carrying PUSCH data, so each Resource Block comprises 144 (=12 × 12) individual Resource Unit for carrying PUSCH data;

Δ_{MCS} = 10 \cdot \log_{10} (2^{1.25 \cdot L} - 1), L = \frac{K}{N_{RE}},

Wherein, K represents TBS, N _rErepresent the Resource Unit number carrying PUSCH data in M Resource Block, L represents the effective information bit number that each Resource Unit carries.The value of imagination K is 1000, then subscriber equipment by following process, can determine Δ _mCSvalue be probably 3.7dB:

L = \frac{K}{N_{RE}} = \frac{1000}{5 \times 144} \approx 1.4

Finally, subscriber equipment according to following equation,

PL _DL'＝α _RPUSCH·PL _DL，

min{23,-100+0.8×138+10·log ₁₀(5)+3.7+0}＝21.1(dBm)。

Specific embodiment three

The power level of the power level of network determination noise and the interference from neighbor cell, and one of at least determine up path loss according to following: from the SRS of subscriber equipment; From the RA signal of subscriber equipment; From the feedback about descending path loss measured value of subscriber equipment.Network determines the iterative transfer times N of the PUSCH data repeating to transmit according to the power level of described Noise and Interference and up path loss _pUSCH, and repeat the received power P of expectation of the PUSCH data transmitted accordingly _{o_RPUSCH}with road loss compensation factor α _rPUSCH, and will the iterative transfer times N of the PUSCH data transmitted be repeated _pUSCHand the received power P expected _{o_RPUSCH}with road loss compensation factor α _rPUSCHinform subscriber equipment.Or network and subscriber equipment are according to the iterative transfer times N repeating the RA signal transmitted from subscriber equipment _rAdetermine the iterative transfer times N repeating the PUSCH data transmitted _pUSCH, network determines the received power P of the expectation of the PUSCH data repeating to transmit according to the power level of described Noise and Interference and up path loss _{o_RPUSCH}with road loss compensation factor α _rPUSCH, and by above-mentioned expectation received power P _{o_RPUSCH}with road loss compensation factor α _rPUSCHinform subscriber equipment.

In implementation procedure, network determines the iterative transfer times N of the PUSCH data repeating to transmit according to the power level of Noise and Interference and up path loss _pUSCHand the received power P expected _{o_RPUSCH}with road loss compensation factor α _rPUSCHcomprise:

The transmitting power P desired by PUSCH data once transmitted is determined according to interference and the power level of noise and up path loss _a; According to the transmitting power P of described expectation _aand the maximum transmission power P of subscriber equipment _mAXdetermine the first iterative transfer times R repeating the PUSCH data transmitted _a; Wherein, R _afor subscriber equipment is all the time with maximum power P _mAXiterative transfer times in transmitting situation required for subscriber equipment; According to described R _aand the second iterative transfer times R repeating the PUSCH data transmitted is determined in the iterative transfer times set of subscriber equipment support _b; Wherein, described R _br is more than or equal to for what belong to the iterative transfer times set of subscriber equipment support _aall elements in minimum value; Described second iterative transfer times R _bequal the actual iterative transfer times N repeating the PUSCH data transmitted _pUSCH.According to R _bthe transmitting power P of the expectation once transmitted _adetermine to repeat to transmit R _bthe transmitting power P of the expectation of secondary PUSCH data _b; According to described P _awith P _bbetween difference power (unit is dB), and up path loss determines to repeat the received power P of the expectation of the PUSCH data transmitted _{o_RPUSCH}with road loss compensation factor α _rPUSCH.

In the present embodiment, the iterative transfer times N of imagination PUSCH _pUSCHbe greater than predefine value K _pUSCH; Imagination subscriber equipment maximum transmission power P _mAXvalue is 23dBm, the received power P that the PUSCH data repeating to transmit are expected _{o_RPUSCH}value is-113dBm, specifies closed loop power control command δ _pUSCHvalue is 0dB, the descending path loss PL that subscriber equipment is estimated _dLvalue is probably 138dB, repeats the road loss compensation factor α transmitting PUSCH data _rPUSCHvalue is 0.9; The number of resource blocks M value imagined shared by a PUSCH transfer of data is 5; Imagine on each Resource Block frequency domain and occupy continuous 12 subcarriers, time domain occupies continuous 14 OFDM symbol, so each Resource Block comprises 168 (=12 × 14) individual Resource Unit; In addition, because 2 in described 14 OFDM symbol are for carrying pilot tone, remain OFDM symbol for carrying PUSCH data, so each Resource Block comprises 144 (=12 × 12) individual Resource Unit for carrying PUSCH data;

Δ_{MCS} = 10 \cdot \log_{10} (2^{1.25 \cdot L} - 1), L = \frac{K}{N_{RE}},

L = \frac{K}{N_{RE}} = \frac{1000}{5 \times 144} \approx 1.4

Finally, subscriber equipment according to following equation,

PL _DL'＝α _RPUSCH·PL _DL，

min{23,-113+0.9×138+10·log ₁₀(5)+3.7+0}＝21.9(dBm)。

Specific embodiment four

Network (base station side) determines the power level of the power level of noise and the interference from neighbor cell, and one of at least determines up path loss according to following: from the SRS of subscriber equipment; From the RA signal of subscriber equipment; From the feedback about descending path loss measured value of subscriber equipment.Network determines the iterative transfer times N of the PUSCH data repeating to transmit according to the power level of described Noise and Interference and up path loss _pUSCH, and repeat the first power bias P of the PUSCH data transmitted accordingly _{rPUSCH_OFFSET_1}, and will the iterative transfer times N of the PUSCH data transmitted be repeated _pUSCHwith the first power bias P _{rPUSCH_OFFSET_1}inform subscriber equipment.Or network and subscriber equipment are according to the iterative transfer times N repeating the up RA signal transmitted from subscriber equipment _rAdetermine the iterative transfer times N repeating to transmit PUSCH data _pUSCH, according to the power level of described Noise and Interference and up path loss, network determines that repetition PUSCH data power is biased P _{rPUSCH_OFFSET_1}and by above-mentioned first power bias P _{rPUSCH_OFFSET_1}inform subscriber equipment.

In implementation procedure, network is according to the power level of Noise and Interference and up path loss determination iterative transfer times N _pUSCHand corresponding first power bias P _{rPUSCH_OFFSET_1}comprise:

The transmitting power PA desired by PUSCH data once transmitted is determined according to interference and the power level of noise and up path loss; According to the transmitting power P of described expectation _aand the maximum transmission power P of subscriber equipment _mAXdetermine the first iterative transfer times R repeating the PUSCH data transmitted _a; Wherein, R _afor subscriber equipment is all the time with maximum power P _mAXiterative transfer times in transmitting situation required for subscriber equipment; The the second iterative transfer times R repeating the PUSCH data transmitted is determined in iterative transfer times set according to described RA and subscriber equipment support _b; Wherein, described R _br is more than or equal to for what belong to the iterative transfer times set of subscriber equipment support _aall elements in minimum value; Described second iterative transfer times R _bequal the actual iterative transfer times N repeating the PUSCH data transmitted _pUSCH.According to R _bthe transmitting power P of the expectation once transmitted _adetermine to repeat to transmit R _bthe transmitting power P of the expectation of secondary PUSCH data _b; According to described P _awith P _bbetween difference power (unit is dB) determine to repeat the first power bias P of the PUSCH data transmitted _{rPUSCH_OFFSET_1}.

In the present embodiment, the iterative transfer times N of imagination PUSCH _pUSCHbe greater than predefine value K _pUSCH; Imagination subscriber equipment maximum transmission power P _mAXvalue is 23dBm, the received power P that the PUSCH data once transmitted are expected _{o_RPUSCH}value is-100dBm, specifies closed loop power control command δ _pUSCHvalue is 0dB, the descending path loss PL that subscriber equipment is estimated _dLvalue is probably 130dB, repeats the first power bias P transmitting PUSCH data _{rPUSCH_OFFSET_1}value is-20dB; The number of resource blocks M value imagined shared by a PUSCH transfer of data is 5; Imagine each Resource Block on frequency domain, occupy continuous print 12 subcarriers, time domain occupies continuous print 14 OFDM symbol, so each Resource Block comprises 168 (=12 × 14) individual Resource Unit; In addition, because 2 in described 14 OFDM symbol are for carrying pilot tone, remaining OFDM symbol is for carrying PUSCH data, so each Resource Block comprises 144 (=12 × 12) individual Resource Unit for carrying PUSCH data;

Δ_{MCS} = 10 \cdot \log_{10} (2^{1.25 \cdot L} - 1), L = \frac{K}{N_{RE}},

Wherein, K represents TBS, N _rErepresent the Resource Unit number carrying PUSCH data in M Resource Block, L represents the effective information bit number that each Resource Unit carries.The value of imagination K is that 1000 subscriber equipmenies by following process, can determine Δ _mCSvalue be probably 3.7dB:

L = \frac{K}{N_{RE}} = \frac{1000}{5 \times 144} \approx 1.4

Finally, subscriber equipment according to following equation,

P _T,RPUSCH＝min{P _MAX,P'+P _{RPUSCH_OFFSET_1}}

P'＝P _{O_PUSCH}+PL _DL+10·log ₁₀(M)+Δ _MCS+δ _PUSCH，

Determine the actual emission power PT repeating the PUSCH data transmitted, RPUSCH is:

min{23,-100+130+10·log ₁₀(5)+3.7+0-20}＝20.7(dBm)。

Embodiment five

Network (base station side) determines the power level of the power level of noise and the interference from neighbor cell, and one of at least determines up path loss according to following: from the SRS of subscriber equipment; From the RA signal of subscriber equipment; From the feedback about descending path loss measured value of subscriber equipment.Network determines the iterative transfer times N of the PUSCH data repeating to transmit according to the power level of described Noise and Interference and up path loss _pUSCH, and repeat the second power bias P of the PUSCH data transmitted accordingly _{rPUSCH_OFFSET_2}, and will the iterative transfer times N of the PUSCH data transmitted be repeated _pUSCHwith the second power bias P _{rPUSCH_OFFSET_2}inform subscriber equipment.Or network and subscriber equipment are according to the iterative transfer times N repeating the up RA signal transmitted from subscriber equipment _rAdetermine the iterative transfer times N repeating to transmit PUSCH data _pUSCH, according to the power level of described Noise and Interference and up path loss, network determines that repetition PUSCH data power is biased P _{rPUSCH_OFFSET_2}and by above-mentioned second power bias P _{rPUSCH_OFFSET_2}inform subscriber equipment.

In implementation procedure, network is according to the power level of Noise and Interference and up path loss determination iterative transfer times N _pUSCHand corresponding second power bias P _{rPUSCH_OFFSET_2}comprise:

The transmitting power P desired by PUSCH data once transmitted is determined according to interference and the power level of noise and up path loss _a; According to the transmitting power P of described expectation _aand the maximum transmission power P of subscriber equipment _mAXdetermine the first iterative transfer times R repeating the PUSCH data transmitted _a; Wherein, R _afor subscriber equipment is all the time with maximum power P _mAXiterative transfer times in transmitting situation required for subscriber equipment; According to described R _aand the second iterative transfer times R repeating the PUSCH data transmitted is determined in the iterative transfer times set of subscriber equipment support _b; Wherein, described R _br is more than or equal to for what belong to the iterative transfer times set of subscriber equipment support _aall elements in minimum value; Described second iterative transfer times R _bequal the actual iterative transfer times N repeating the PUSCH data transmitted _pUSCH.According to R _bthe transmitting power P of the expectation once transmitted _adetermine to repeat to transmit R _bthe transmitting power P of the expectation of secondary PUSCH data _b; According to described P _bwith the maximum transmission power P of subscriber equipment _mAXdetermine the second power bias P repeating the PUSCH data transmitted _{rPUSCH_OFFSET_2}.

The iterative transfer times N of imagination PUSCH _pUSCHbe greater than predefine value K _pUSCH; Imagination subscriber equipment maximum transmission power P _mAXvalue is 23dBm, the received power P that the PUSCH data once transmitted are expected _{o_RPUSCH}value is-100dBm, specifies closed loop power control command δ _pUSCHvalue is 0dB, the descending path loss PL that subscriber equipment is estimated _dLvalue is probably 130dB, repeats the second power bias P transmitting PUSCH data _{rPUSCH_OFFSET_2}value is-2dB; The number of resource blocks M value imagined shared by a PUSCH transfer of data is 5; Imagine each Resource Block on frequency domain, occupy continuous print 12 subcarriers, time domain occupies continuous print 14 OFDM symbol, so each Resource Block comprises 168 (=12 × 14) individual Resource Unit; In addition, because 2 in described 14 OFDM symbol are for carrying pilot tone, remaining OFDM symbol is for carrying PUSCH data, so each Resource Block comprises 144 (=12 × 12) individual Resource Unit for carrying PUSCH data;

Δ_{MCS} = 10 \cdot \log_{10} (2^{1.25 \cdot L} - 1), L = \frac{K}{N_{RE}},

L = \frac{K}{N_{RE}} = \frac{1000}{5 \times 144} \approx 1.4

Finally, subscriber equipment according to following equation,

P _T,RPUSCH＝P'+P _{RPUSCH_OFFSET_2}

P'＝min{P _MAX,P _{O_PUSCH}+PL _DL+10·log ₁₀(M)+Δ _MCS+δ _PUSCH}，

Or,

P _T,RPUSCH＝P _MAX+P _{RPUSCH_OFFSET_2}，

min{23,-100+130+10·log ₁₀(5)+3.7+0}-2＝21(dBm)，

Or,

23-2＝21(dBm)。

Specific embodiment six

Network (base station side) determines the power level of the power level of noise and the interference from neighbor cell, and one of at least determines up path loss according to following: from the SRS of subscriber equipment; From the RA signal of subscriber equipment; From the feedback about descending path loss measured value of subscriber equipment.Network determines the iterative transfer times N of the PUSCH data repeating to transmit according to the power level of described Noise and Interference and up path loss _pUSCH, and inform subscriber equipment.Or network and subscriber equipment are according to the iterative transfer times N repeating the up RA signal transmitted from subscriber equipment _rAdetermine the iterative transfer times N repeating the PUSCH data transmitted _pUSCH.

In implementation procedure, network determines the iterative transfer times N of the PUSCH data repeating to transmit according to the power level of Noise and Interference and up path loss _pUSCHcomprise:

The transmitting power P desired by PUSCH data once transmitted is determined according to interference and the power level of noise and up path loss _a; According to the transmitting power P of described expectation _aand the maximum transmission power P of subscriber equipment _mAXdetermine the first iterative transfer times R repeating the PUSCH data transmitted _a; Wherein, R _afor subscriber equipment is all the time with maximum power P _mAXiterative transfer times in transmitting situation required for subscriber equipment; According to described R _aand the second iterative transfer times R repeating the PUSCH data transmitted is determined in the iterative transfer times set of subscriber equipment support _b; Wherein, described R _br is more than or equal to for what belong to the iterative transfer times set of subscriber equipment support _aall elements in minimum value; Described second iterative transfer times R _bequal the actual iterative transfer times N repeating the PUSCH data transmitted _pUSCH.

In the present embodiment, the iterative transfer times N of imagination PUSCH _pUSCHbe greater than predefine value K _pUSCH; Imagination subscriber equipment maximum transmission power P _mAXvalue is 23dBm, the received power P that the PUSCH data once transmitted are expected _{o_PUSCH}value is-100dBm, specifies closed loop power control command δ _pUSCHvalue is 0dB, the descending path loss PL that subscriber equipment is estimated _dLvalue is probably 130dB, repeats the iterative transfer times N transmitting PUSCH data _pUSCHvalue is 100 times; The number of resource blocks M value imagined shared by a PUSCH transfer of data is 5; Imagine on each Resource Block frequency domain and occupy continuous print 12 subcarriers, time domain occupies continuous 14 OFDM symbol, so each Resource Block comprises 168 (=12 × 14) individual Resource Unit; In addition, because 2 in described 14 OFDM symbol are for carrying pilot tone, remaining 12 OFDM symbol are for carrying PUSCH data, so each Resource Block comprises 144 (=12 × 12) individual Resource Unit for carrying PUSCH data;

Δ_{MCS} = 10 \cdot \log_{10} (2^{1.25 \cdot L} - 1), L = \frac{K}{N_{RE}},

Wherein, K represents TBS, and NRE represents the Resource Unit number carrying PUSCH data in M Resource Block, and L represents the effective information bit number that each Resource Unit carries.The value of imagination K is that 1000 subscriber equipmenies by following process, can determine Δ _mCSvalue be probably 3.7dB:

L = \frac{K}{N_{RE}} = \frac{1000}{5 \times 144} \approx 1.4

Finally, subscriber equipment according to following equation,

P _T,RPUSCH＝min{P _MAX,P'-10·log ₁₀(N _PUSCH)}

P'＝P _{O_PUSCH}+PL _DL+10·log ₁₀(M)+Δ _MCS+δ _PUSCH，

P'＝-100+130+10·log ₁₀(5)+3.7+0＝40.7(dBm)

min{23,P'-10·log ₁₀(100)}＝20.7(dBm)。

It is to be noted: described in the specific embodiment of the invention one to specific embodiment six, the power level of interference and noise refers to the average interference of a transmitting procedure and the power level of noise; Consider to repeat transmit PUSCH data merging receiving course in, interference and noise are also by merged, and pass through interference and the power level of noise of merging and may deviation be there is between the interference of a transmitting procedure and the power level of noise, closed loop power control command is except the rapid fading for compensating wireless channel, can also be used for compensating above-mentioned interference through merging and the power level of noise and the deviation between the interference of a transmitting procedure and the power level of noise, or, determining iterative transfer times N _pUSCHor determine that the power contorl parameters repeating to transmit (comprises the received power P of expectation _{o_RPUSCH}, road loss compensation factor α _rPUSCH, the first power bias P _{rPUSCH_OFFSET_1}with the second power bias P _{rPUSCH_OFFSET_2}) process in, the impact of above-mentioned deviation can directly be considered (namely directly introducing corresponding compensation term).

Specific embodiment seven

Network (base station side) determines the power level of the power level of noise and the interference from neighbor cell, and one of at least determines up path loss according to following: from the SRS of subscriber equipment; From the RA signal of subscriber equipment; From the feedback about descending path loss measured value of subscriber equipment.Network determines the iterative transfer times N repeating to transmit PUCCH data according to the power level of described Noise and Interference and up path loss _pUCCHand the corresponding received power P repeating the expectation of the PUCCH data transmitted _{o_RPUCCH}, and will the iterative transfer times N of the PUCCH data transmitted be repeated _pUCCHwith the received power P expected _{o_RPUCCH}inform subscriber equipment.Or network and subscriber equipment are according to the iterative transfer times N repeating the up RA signal transmitted from subscriber equipment _rAdetermine the iterative transfer times N repeating the PUCCH data transmitted _pUCCH, network determines the received power P of the expectation of the PUCCH data repeating to transmit according to the power level of described Noise and Interference and up path loss _{o_RPUCCH}and the received power P that will expect _{o_RPUCCH}inform subscriber equipment.

In implementation procedure, network is according to the power level of Noise and Interference and up path loss determination iterative transfer times N _pUCCHand the corresponding received power P expected _{o_RPUCCH}comprise:

The transmitting power P desired by PUCCH data once transmitted is determined according to interference and the power level of noise and up path loss _a; According to the transmitting power P of described expectation _aand the maximum transmission power P of subscriber equipment _mAXdetermine the first iterative transfer times R repeating the PUCCH data transmitted _a; Wherein, R _afor subscriber equipment is all the time with maximum power P _mAXiterative transfer times in transmitting situation required for subscriber equipment; According to described R _aand the second iterative transfer times R repeating the PUCCH data transmitted is determined in the iterative transfer times set of subscriber equipment support _b; Wherein, described R _br is more than or equal to for what belong to the iterative transfer times set of subscriber equipment support _aall elements in minimum value; Described second iterative transfer times R _bequal the actual iterative transfer times N repeating the PUCCH data transmitted _pUCCH.According to R _bthe transmitting power P of the expectation once transmitted _adetermine to repeat to transmit R _bthe transmitting power P of the expectation of secondary PUCCH data _b; According to described P _awith P _bbetween difference power (unit is dB), and the received power P of the expectation once transmitted _{o_PUCCH}determine the received power P repeating the expectation transmitted _{o_RPUCCH}.

In the present embodiment, the iterative transfer times N of imagination PUCCH _pUCCHbe greater than predefine value K _pUCCH; Imagination subscriber equipment maximum transmission power P _mAXvalue is 23dBm, the received power P that the PUCCH data repeating to transmit is expected _{o_RPUCCH}value is-120dBm, specifies closed loop power control command δ _pUCCHvalue is 0dB, and the descending path loss PLDL value that subscriber equipment is estimated is probably 142dB; Imagination PUCCH format is PUCCH format 1a, and the power bias Δ of form 1a _mCSvalue is 0dB.

Finally, subscriber equipment according to following equation,

P _T,RPUCCH＝min{P _MAX,P _{O_RPUCCH}+PL _DL+Δ _Format+δ _PUCCH}，

Determine the actual emission power PT repeating the PUCCH data transmitted, RPUCCH is:

min{23,-120+142+0+0}＝22(dBm)。

Now, the actual emission power P of the PUCCH data transmitted is repeated _{t, RPUCCH}lower than the maximum transmission power P that subscriber equipment is supported _mAX.

Specific embodiment eight

Network (base station side) determines the power level of the power level of noise and the interference from neighbor cell, and one of at least determines up path loss according to following: from the SRS of subscriber equipment; From the RA signal of subscriber equipment; From the feedback about descending path loss measured value of subscriber equipment.Network determines the iterative transfer times N of the PUCCH data repeating to transmit according to the power level of described Noise and Interference and up path loss _pUCCH, and repeat the road loss compensation factor α of the PUCCH data transmitted accordingly _rPUCCH, and will the iterative transfer times N of the PUCCH data transmitted be repeated _pUCCHwith road loss compensation factor α _rPUCCHinform subscriber equipment.Or network and subscriber equipment are according to the iterative transfer times N repeating the up RA signal transmitted from subscriber equipment _rAdetermine the iterative transfer times N repeating the PUCCH data transmitted _pUCCH, network determines the road loss compensation factor α of the PUCCH data repeating to transmit according to the power level of described Noise and Interference and up path loss _rPUCCH, and by above-mentioned road loss compensation factor α _rPUCCHinform subscriber equipment.

In implementation procedure, network is according to the power level of Noise and Interference and up path loss determination iterative transfer times N _pUCCHand corresponding road loss compensation factor α _rPUCCHcomprise:

The transmitting power P desired by PUCCH data once transmitted is determined according to interference and the power level of noise and up path loss _a; According to the transmitting power P of described expectation _aand the maximum transmission power P of subscriber equipment _mAXdetermine the first iterative transfer times R repeating the PUCCH data transmitted _a; Wherein, R _afor subscriber equipment is all the time with maximum power P _mAXiterative transfer times in transmitting situation required for subscriber equipment; According to described R _aand the second iterative transfer times R repeating the PUCCH data transmitted is determined in the iterative transfer times set of subscriber equipment support _b; Wherein, described R _br is more than or equal to for what belong to the iterative transfer times set of subscriber equipment support _aall elements in minimum value; Described second iterative transfer times R _bequal the actual iterative transfer times N repeating the PUCCH data transmitted _pUCCH.According to R _bthe transmitting power P of the expectation once transmitted _adetermine to repeat to transmit R _bthe transmitting power P of the expectation of secondary PUCCH data _b; According to described P _awith P _bbetween difference power (unit is dB), and up path loss determines to repeat the road loss compensation factor α of the PUCCH data transmitted _rPUCCH.

In the present embodiment, the iterative transfer times N of imagination PUCCH _pUCCHbe greater than predefine value K _pUCCH;

Imagination subscriber equipment maximum transmission power P _mAXvalue is 23dBm, the received power P that the PUCCH data once transmitted is expected _{o_PUCCH}value is-100dBm, specifies closed loop power control command δ _pUCCHvalue is 0dB, and the descending path loss PLDL value that subscriber equipment is estimated is probably 135dB, repeats the road loss compensation factor α transmitting PUCCH data _rPUCCHvalue is 0.9; Imagining current PUCCH format is PUCCH format 1a, and the power bias Δ of form 1a _mCSvalue is 0dB.

Finally, subscriber equipment according to following equation,

P _T,RPUCCH＝min{P _MAX,P _{O_PUCCH}+PL _DL'+Δ _Format+δ _PUCCH}

PL _DL'＝α _RPUCCH·PL _DL，

Determine the actual emission power P repeating the PUCCH data transmitted _{t, RPUCCH}for:

min{23,-100+0.9×135+0+0}＝21.5(dBm)。

Specific embodiment nine

Network (base station side) determines the power level of the power level of noise and the interference from neighbor cell, and one of at least determines up path loss according to following: from the SRS of subscriber equipment; From the RA signal of subscriber equipment; From the feedback about descending path loss measured value of subscriber equipment.Network determines the iterative transfer times N of the PUCCH data repeating to transmit according to the power level of described Noise and Interference and up path loss _pUCCH, and repeat the received power P of expectation of the PUCCH data transmitted accordingly _{o_RPUCCH}with road loss compensation factor α _rPUCCHand will the iterative transfer times N of the PUCCH data transmitted be repeated _pUCCHand the received power P expected _{o_RPUCCH}with road loss compensation factor α _rPUCCHinform subscriber equipment.Or network and subscriber equipment are according to the iterative transfer times N repeating the RA signal transmitted from subscriber equipment _rAdetermine the iterative transfer times N repeating the PUCCH data transmitted _pUCCH, network determines the received power P of the expectation of the PUCCH data repeating to transmit according to the power level of described Noise and Interference and up path loss _{o_RPUCCH}with road loss compensation factor α _rPUCCHand by the received power P of above-mentioned expectation _{o_RPUCCH}with road loss compensation factor α _rPUCCHinform subscriber equipment.

In implementation procedure, network determines the iterative transfer times N of the PUCCH data repeating to transmit according to the power level of Noise and Interference and up path loss _pUCCHand the received power P expected _{o_RPUCCH}with road loss compensation factor α _rPUCCHcomprise:

The transmitting power P desired by PUCCH data once transmitted is determined according to interference and the power level of noise and up path loss _a; According to the transmitting power P of described expectation _aand the maximum transmission power P of subscriber equipment _mAXdetermine the first iterative transfer times R repeating the PUCCH data transmitted _a; Wherein, R _afor subscriber equipment is all the time with maximum power P _mAXiterative transfer times in transmitting situation required for subscriber equipment; According to described R _aand the second iterative transfer times R repeating the PUCCH data transmitted is determined in the iterative transfer times set of subscriber equipment support _b; Wherein, described R _br is more than or equal to for what belong to the iterative transfer times set of subscriber equipment support _aall elements in minimum value; Described second iterative transfer times R _bequal the actual iterative transfer times N repeating the PUCCH data transmitted _pUCCH.According to R _bthe transmitting power P of the expectation once transmitted _adetermine to repeat to transmit R _bthe transmitting power P of the expectation of secondary PUCCH data _b; According to described P _awith P _bbetween difference power (unit is dB), and up path loss determines to repeat the received power P of the expectation of the PUCCH data transmitted _{o_RPUCCH}with road loss compensation factor α _rPUCCH.

In the present embodiment, the iterative transfer times N of imagination PUCCH _pUCCHbe greater than predefine value K _pUCCH; Imagination subscriber equipment maximum transmission power P _mAXvalue is 23dBm, the received power P that the PUCCH data repeating to transmit is expected _{o_RPUCCH}value is-106dBm, specifies closed loop power control command δ _pUCCHvalue is 0dB, the descending path loss PL that subscriber equipment is estimated _dLvalue is probably 142dB, repeats the road loss compensation factor α transmitting PUCCH data _rPUCCHvalue is 0.9; Imagining current PUCCH format is PUCCH format 1a, and the power bias Δ of form 1a _mCSvalue is 0dB.

Finally, subscriber equipment according to following equation,

P _T,RPUCCH＝min{P _MAX,P _{O_RPUCCH}+PL _DL'+Δ _Format+δ _PUCCH}

PL _DL'＝α _RPUCCH·PL _DL，

min{23,-106+0.9×142+0+0}＝21.8(dBm)。

Now, the actual emission power P of the PUCCH data transmitted is repeated _{t, RPUSCH}lower than the maximum transmission power P that subscriber equipment is supported _mAX.

Specific embodiment ten

Network (base station side) determines the power level of the power level of noise and the interference from neighbor cell, and one of at least determines up path loss according to following: from the SRS of subscriber equipment; From the RA signal of subscriber equipment; From the feedback about descending path loss measured value of subscriber equipment.Network determines the iterative transfer times N of the PUCCH data repeating to transmit according to the power level of described Noise and Interference and up path loss _pUCCH, and repeat the first power bias P of the PUCCH data transmitted accordingly _{rPUCCH_OFFSET_1}, and will the iterative transfer times N of the PUCCH data transmitted be repeated _pUCCHwith the first power bias P _{rPUCCH_OFFSET_1}inform subscriber equipment.Or network and subscriber equipment are according to the iterative transfer times N repeating the up RA signal transmitted from subscriber equipment _rAdetermine the iterative transfer times N repeating to transmit PUCCH data _pUCCH, network determines repetition PUCCH data power bias P according to the power level of described Noise and Interference and up path loss _{rPUCCH_OFFSET_1}and by above-mentioned first power bias P _{rPUCCH_OFFSET_1}inform subscriber equipment.

In implementation procedure, network is according to the power level of Noise and Interference and up path loss determination iterative transfer times N _pUCCHand corresponding first power bias P _{rPUCCH_OFFSET_1}comprise:

The transmitting power P desired by PUCCH data once transmitted is determined according to interference and the power level of noise and up path loss _a; According to the transmitting power P of described expectation _aand the maximum transmission power P of subscriber equipment _mAXdetermine the first iterative transfer times R repeating the PUCCH data transmitted _a; Wherein, R _afor subscriber equipment is all the time with maximum power P _mAXiterative transfer times in transmitting situation required for subscriber equipment; According to described R _aand the second iterative transfer times R repeating the PUCCH data transmitted is determined in the iterative transfer times set of subscriber equipment support _b; Wherein, described R _br is more than or equal to for what belong to the iterative transfer times set of subscriber equipment support _aall elements in minimum value; Described second iterative transfer times R _bequal the actual iterative transfer times N repeating the PUCCH data transmitted _pUCCH.According to R _bthe transmitting power P of the expectation once transmitted _adetermine to repeat to transmit R _bthe transmitting power P of the expectation of secondary PUCCH data _b; According to described P _awith P _bbetween difference power (unit is dB) determine to repeat the first power bias P of the PUCCH data transmitted _{rPUCCH_OFFSET_1}.

In the present embodiment, the iterative transfer times N of imagination PUCCH _pUCCHbe greater than predefine value K _pUCCH; Imagination subscriber equipment maximum transmission power P _mAXvalue is 23dBm, the received power P that the PUCCH data once transmitted is expected _{o_RPUCCH}value is-100dBm, specifies closed loop power control command δ _pUCCHvalue is 0dB, the descending path loss PL that subscriber equipment is estimated _dLvalue is probably 142dB, repeats the first power bias P transmitting PUCCH data _{rPUCCH_OFFSET_1}value is-20dB; Imagining current PUCCH format is PUCCH format 1a, and the power bias Δ of form 1a _mCSvalue is 0dB.

Finally, subscriber equipment according to following equation,

P _T,RPUCCH＝min{P _MAX,P'+P _{RPUCCH_OFFSET_1}}

P'＝P _{O_PUCCH}+PL _DL+Δ _Format+δ _PUCCH，

min{23,-100+142+0+0-20}＝22(dBm)。

Specific embodiment 11

Network (base station side) determines the power level of the power level of noise and the interference from neighbor cell, and one of at least determines up path loss according to following: from the SRS of subscriber equipment; From the RA signal of subscriber equipment; From the feedback about descending path loss measured value of subscriber equipment.Network determines the iterative transfer times N of the PUCCH data repeating to transmit according to the power level of described Noise and Interference and up path loss _pUCCH, and repeat the second power bias P of the PUCCH data transmitted accordingly _{rPUCCH_OFFSET_2}, and will the iterative transfer times N of the PUCCH data transmitted be repeated _pUCCHwith the second power bias P _{rPUCCH_OFFSET_2}inform subscriber equipment.Or network and subscriber equipment are according to the iterative transfer times N repeating the up RA signal transmitted from subscriber equipment _rAdetermine the iterative transfer times N repeating to transmit PUCCH data _pUCCH, network determines repetition PUCCH data power bias P according to the power level of described Noise and Interference and up path loss _{rPUCCH_OFFSET_2}and by above-mentioned second power bias P _{rPUCCH_OFFSET_2}inform subscriber equipment.

In implementation procedure, network is according to the power level of Noise and Interference and up path loss determination iterative transfer times N _pUCCHand corresponding second power bias P _{rPUCCH_OFFSET_2}comprise:

The transmitting power P desired by PUCCH data once transmitted is determined according to interference and the power level of noise and up path loss _a; According to the transmitting power P of described expectation _aand the maximum transmission power P of subscriber equipment _mAXdetermine the first iterative transfer times R repeating the PUCCH data transmitted _a; Wherein, R _afor subscriber equipment is all the time with maximum power P _mAXiterative transfer times in transmitting situation required for subscriber equipment; According to described R _aand the second iterative transfer times R repeating the PUCCH data transmitted is determined in the iterative transfer times set of subscriber equipment support _b; Wherein, described R _bfor belonging to the minimum value be more than or equal in all elements of RA of the iterative transfer times set of subscriber equipment support; Described second iterative transfer times R _bequal the actual iterative transfer times N repeating the PUCCH data transmitted _pUCCH.According to R _bthe transmitting power P of the expectation once transmitted _adetermine to repeat to transmit R _bthe transmitting power P of the expectation of secondary PUCCH data _b; According to described P _bwith the maximum transmission power P of subscriber equipment _mAXdetermine the second power bias P repeating the PUCCH data transmitted _{rPUCCH_OFFSET_2}.

The iterative transfer times N of imagination PUCCH _pUCCHbe greater than predefine value K _pUCCH.

Imagination subscriber equipment maximum transmission power P _mAXvalue is 23dBm, the received power P that the PUCCH data once transmitted is expected _{o_RPUCCH}value is-100dBm, specifies closed loop power control command δ _pUCCHvalue is 0dB, the descending path loss PL that subscriber equipment is estimated _dLvalue is probably 130dB, repeats the second power bias P transmitting PUCCH data _{rPUCCH_OFFSET_2}value is-2dB; Imagining current PUCCH format is PUCCH format 1a, and the power bias Δ of form 1a _mCSvalue is 0dB.

Finally, subscriber equipment according to following equation,

P _T,RPUCCH＝P'+P _{RPUCCH_OFFSET_2}

P'＝min{P _MAX,P _{O_PUCCH}+PL _DL+Δ _Format+δ _PUCCH}，

Or,

P _T,RPUCCH＝P _MAX+P _{RPUCCH_OFFSET_2}，

min{23,-100+130+0+0}-2＝21(dBm)，

Or,

23-2＝21(dBm)。

Specific embodiment 12

Network (base station side) determines the power level of the power level of noise and the interference from neighbor cell, and one of at least determines up path loss according to following: from the SRS of subscriber equipment; From the RA signal of subscriber equipment; From the feedback about descending path loss measured value of subscriber equipment.Network determines the iterative transfer times N of the PUCCH data repeating to transmit according to the power level of described Noise and Interference and up path loss _pUCCH, and inform subscriber equipment.Or network and subscriber equipment are according to the iterative transfer times N repeating the up RA signal transmitted from subscriber equipment _rAdetermine the iterative transfer times N repeating the PUCCH data transmitted _pUCCH.

In implementation procedure, network determines the iterative transfer times N of the PUCCH data repeating to transmit according to the power level of Noise and Interference and up path loss _pUCCHcomprise:

The transmitting power P desired by PUCCH data once transmitted is determined according to interference and the power level of noise and up path loss _a; According to the transmitting power P of described expectation _aand the maximum transmission power P of subscriber equipment _mAXdetermine the first iterative transfer times R repeating the PUCCH data transmitted _a; Wherein, R _afor subscriber equipment is all the time with maximum power P _mAXiterative transfer times in transmitting situation required for subscriber equipment; According to described R _aand the second iterative transfer times R repeating the PUCCH data transmitted is determined in the iterative transfer times set of subscriber equipment support _b; Wherein, described R _br is more than or equal to for what belong to the iterative transfer times set of subscriber equipment support _aall elements in minimum value; Described second iterative transfer times R _bequal the actual iterative transfer times N repeating the PUCCH data transmitted _pUCCH.

Imagination subscriber equipment maximum transmission power P _mAXvalue is 23dBm, the received power P that the PUCCH data once transmitted is expected _{o_PUCCH}value is-100dBm, specifies closed loop power control command δ _pUCCHvalue is 0dB, the descending path loss PL that subscriber equipment is estimated _dLvalue is probably 130dB, repeats the iterative transfer times N transmitting PUCCH data _pUCCHvalue is 100 times; Imagination PUCCH format is PUCCH format 1a, and the power bias Δ of form 1a _mCSvalue is 0dB.

Finally, subscriber equipment according to following equation,

P _T,RPUCCH＝min{P _MAX,P'-10·log ₁₀(N _PUCCH)}

P'＝P _{O_PUCCH}+PL _DL+Δ _Format+δ _PUCCH，

P'＝-100+142+0+0＝42(dBm)

min{23,P'-10·log ₁₀(100)}＝22(dBm)。

It is pointed out that the power level of interference and noise described in specific embodiment seven to specific embodiment 12 refers to the average interference of a transmitting procedure and the power level of noise; Consider to repeat transmit PUCCH data merging receiving course in, interference and noise are also by merged, and pass through interference and the power level of noise of merging and may deviation be there is between the interference of a transmitting procedure and the power level of noise, closed loop power control command is except the rapid fading for compensating wireless channel, can also be used for compensating above-mentioned interference through merging and the power level of noise and the deviation between the interference of a transmitting procedure and the power level of noise, or, determining iterative transfer times N _pUCCHor determine that the power contorl parameters repeating to transmit (comprises the received power P of expectation _{o_RPUCCH}, road loss compensation factor α _rPUCCH, the first power bias P _{rPUCCH_OFFSET_1}with the second power bias P _{rPUCCH_OFFSET_2}) process in, the impact of above-mentioned deviation can directly be considered (namely directly introducing corresponding compensation term).

One of ordinary skill in the art will appreciate that: all or part of step realizing said method embodiment can have been come by the hardware that program command is relevant, aforesaid program can be stored in a computer read/write memory medium, this program, when performing, performs the step comprising said method embodiment; And aforesaid storage medium comprises: movable storage device, random access memory (RAM, RandomAccessMemory), read-only memory (ROM, Read-OnlyMemory), magnetic disc or CD etc. various can be program code stored medium.

Or, if the above-mentioned integrated unit of the present invention using the form of software function module realize and as independently production marketing or use time, also can be stored in a computer read/write memory medium.Based on such understanding, the technical scheme of the embodiment of the present invention can embody with the form of software product the part that correlation technique contributes in essence in other words, this computer software product is stored in a storage medium, comprises some instructions and performs all or part of of method described in each embodiment of the present invention in order to make a computer equipment (can be personal computer, server or the network equipment etc.).And aforesaid storage medium comprises: movable storage device, RAM, ROM, magnetic disc or CD etc. various can be program code stored medium.

The above; be only the specific embodiment of the present invention, but protection scope of the present invention is not limited thereto, is anyly familiar with those skilled in the art in the technical scope that the present invention discloses; change can be expected easily or replace, all should be encompassed within protection scope of the present invention.Therefore, protection scope of the present invention should be as the criterion with the protection range of described claim.

Claims

1. a Poewr control method, is characterized in that, described method comprises:

When the iterative transfer times of Physical Uplink Shared Channel PUSCH data is greater than K _pUSCHtime, the PUSCH data repeating to transmit are sent with the power being less than or equal to maximum transmission power;

When the iterative transfer times of Physical Uplink Control Channel PUCCH data is greater than K _pUCCHtime, the PUCCH data repeating to transmit is sent with the power being less than or equal to maximum transmission power;

Wherein, described K _pUSCHand K _pUCCHfor predefine value.

2. the method for claim 1, is characterized in that, before described transmission repeats the PUSCH data transmitted, described method also comprises:

According to repeating the power contorl parameters of the PUSCH data transmitted or repeating the iterative transfer times N of the PUSCH data transmitted _pUSCH, determine the actual emission power repeating the PUSCH data transmitted.

3. method as claimed in claim 2, is characterized in that, the described power contorl parameters repeating the PUSCH data transmitted comprises:

4. method as claimed in claim 3, is characterized in that the parameter that described subscriber equipment is proprietary comprises: aim at and repeat to transmit the parameter set by PUSCH data;

Repeat the first power offset parameter P of the PUSCH data transmitted _{rPUSCH_OFFSET_1}, and repeat the second power offset parameter P of the PUSCH data transmitted _{rPUSCH_OFFSET_2}.

5. method as claimed in claim 4, is characterized in that, the described power contorl parameters according to repeating the PUSCH data transmitted, and determines the actual emission power repeating the PUSCH data transmitted, comprising:

According to repeating the expectation received power P transmitting PUSCH data _{o_RPUSCH}parameter and following equation, determine the actual emission power repeating the PUSCH data transmitted:

6. method as claimed in claim 4, is characterized in that, the described power contorl parameters according to repeating the PUSCH data transmitted, and determines the actual emission power repeating the PUSCH data transmitted, comprising:

According to repeating the road loss compensation factor α transmitting PUSCH data _rPUSCHand following equation, determine the actual emission power repeating the PUSCH data transmitted:

P _T,RPUSCH＝min{P _MAX,P _{O_PUSCH}+PL _DL′+10·log ₁₀(M)+Δ _MCS+δ _PUSCH}

PL _DL'＝α _RPUSCH·PL _DL，

Wherein, P _{t, RPUSCH}represent the actual emission power repeating the PUSCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_PUSCH}represent the received power of the expectation of the PUSCH data once transmitted, PL _dLrepresent that descending path loss is estimated, α _rPUSCHrepresent the road loss compensation factor repeating the PUSCH data transmitted, M represents Resource Block quantity shared by a PUSCH transfer of data, Δ _mCSrepresent the power bias relying on PUSCH data MCS, δ _pUSCHcorrespond to the clear and definite closed loop power control command of automatic network.

7. method as claimed in claim 4, is characterized in that, the described power contorl parameters according to repeating the PUSCH data transmitted, and determines the actual emission power repeating the PUSCH data transmitted, comprising:

According to repeating the expectation received power parameter P transmitting PUSCH data _{o_PUSCH}with the road loss compensation factor parameter alpha repeating transmission PUSCH data _rPUSCH, and following equation, determine the actual emission power repeating the PUSCH data transmitted:

PL _DL'＝α _RPUSCH·PL _DL，

8. method as claimed in claim 4, is characterized in that, the described power contorl parameters according to repeating the PUSCH data transmitted, and determines the actual emission power repeating the PUSCH data transmitted, comprising:

P _T,RPUSCH＝min{P _MAX,P'+P _{RPUSCH_OFFSET_1}}

P'＝P _{O_PUSCH}+PL _DL+10·log ₁₀(M)+Δ _MCS+δ _PUSCH，

Wherein, P _{t, RPUSCH}represent the actual emission power repeating the PUSCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUSCH}represent the expectation received power of the PUSCH data once transmitted, PL _dLrepresent that descending path loss is estimated, M represents the number of resource blocks shared by a PUSCH transfer of data, Δ _mCSrepresent the power bias depending on PUSCH data MCS, δ _pUSCHcorrespond to the clear and definite closed loop power control command of automatic network.

9. method as claimed in claim 4, is characterized in that, the described power contorl parameters according to repeating the PUSCH data transmitted, and determines the actual emission power repeating the PUSCH data transmitted, comprising:

P _T,RPUSCH＝P'+P _{RPUSCH_OFFSET_2}

P'=min{P _mAX, P _{o_PUSCH}+ PL _dL+ 10log ₁₀(M)+Δ _mCS+ δ _pUSCH; Or,

P _T,RPUSCH＝P _MAX+P _{RPUSCH_OFFSET_2}，

Wherein, P _{t, RPUSCH}represent the actual emission power repeating the PUSCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUSCH}represent the expectation received power of the PUSCH data once transmitted, PL _dLrepresent that descending path loss is estimated, P _{rPUSCH_OFFSET_2}represent the second power offset parameter repeating the PUSCH data transmitted, M represents the Resource Block quantity shared by a PUSCH transfer of data, Δ _mCSrepresent the power bias relying on PUSCH data MCS, δ _pUSCHcorrespond to the clear and definite closed loop power control command of automatic network.

10. method as claimed in claim 4, is characterized in that, the described iterative transfer times N according to repeating the PUSCH data transmitted _pUSCH, determine the actual emission power repeating the PUSCH data transmitted, comprising:

P _T,RPUSCH＝min{P _MAX,P'-10·log ₁₀(N _PUSCH)}

P'＝P _{O_PUSCH}+PL _DL+10·log ₁₀(M)+Δ _MCS+δ _PUSCH，

Wherein, P _{t, RPUSCH}represent the actual emission power repeating the PUSCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUSCH}represent the expectation received power of the PUSCH data once transmitted, PL _dLrepresent that descending path loss is estimated, M represents the Resource Block quantity shared by a PUSCH transfer of data, Δ _mCSrepresent the power bias depending on the MCS of PUSCH data, δ _pUSCHcorrespond to the clear and definite closed loop power control command of automatic network.

11. the method for claim 1, is characterized in that, when launching frequency pilot sign, described method also comprises:

Described frequency pilot sign is launched with the transmitting power identical with the described PUSCH data symbol repeating to transmit, or, by described frequency pilot sign all the time with maximum power transmission.

12. the method for claim 1, is characterized in that, before radio frequency resource control RRC connection establishment, described method also comprises:

13. the method for claim 1, is characterized in that, before described transmission repeats the PUCCH data transmitted, described method also comprises:

14. methods as claimed in claim 13, is characterized in that, the described power contorl parameters repeating the PUCCH data transmitted comprises:

15. methods as claimed in claim 14, it is characterized in that, the proprietary parameter of described subscriber equipment, comprising: aim at and repeat to transmit the parameter set by PUCCH data;

Repeat to transmit expectation received power P corresponding to PUCCH data _{o_RPUCCH}; The road loss compensation factor α that the PUCCH data repeating to transmit is corresponding _rPUCCH;

Repeat the first power offset parameter P of the PUCCH data transmitted _{rPUCCH_OFFSET_1}; Repeat the second power offset parameter P of the PUSCH data transmitted _{rPUCCH_OFFSET_2}.

16. methods as claimed in claim 15, is characterized in that, the described power contorl parameters according to repeating to transmit PUCCH data determines the actual emission power repeating the PUCCH data transmitted, and comprising:

According to the received power P repeating the expectation transmitting PUCCH data _{o_RPUCCH}parameter and following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝min{P _MAX,P _{O_RPUCCH}+PL _DL+Δ _Format+δ _PUCCH}，

Wherein, P _{t, RPUCCH}represent the actual emission power repeating the PUCCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUCCH}represent the received power repeating the expectation transmitting PUCCH data, PL _dLrepresent that descending path loss is estimated, Δ _formatrepresent the power bias relevant with PUCCH format, δ _pUCCHcorrespond to the clear and definite closed loop power control command of automatic network.

17. methods as claimed in claim 15, is characterized in that, the described power contorl parameters according to repeating to transmit PUCCH data determines the actual emission power repeating the PUCCH data transmitted, and comprising:

P _T,RPUCCH＝min{P _MAX,P _{O_PUCCH}+PL _DL'+Δ _Format+δ _PUCCH}

PL _DL'＝α _RPUCCH·PL _DL，

Wherein, P _{t, RPUCCH}represent the actual emission power repeating the PUCCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUCCH}represent the expectation received power of the PUCCH data once transmitted, PL _dLrepresent that descending path loss is estimated, α _rPUCCHrepresent the road loss compensation factor repeating to transmit PUCCH data, Δ _formatrepresent the power bias relevant with PUCCH format, δ _pUCCHcorrespond to the clear and definite closed loop power control command of automatic network.

18. methods as claimed in claim 15, is characterized in that, the described power contorl parameters according to repeating to transmit PUCCH data determines the actual emission power repeating the PUCCH data transmitted, and comprising:

According to repeating the expectation received power P transmitting PUCCH data _{o_RPUCCH}, repeat the road loss compensation factor α of PUCCH data that transmits _rPUCCH, and following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝min{P _MAX,P _{O_RPUCCH}+PL _DL'+Δ _Format+δ _PUCCH}

PL _DL'＝α _RPUCCH·PL _DL，

Wherein, P _{t, RPUCCH}represent the actual emission power repeating the PUCCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUCCH}represent the expectation received power repeating the PUCCH data transmitted, PL _dLrepresent that descending path loss is estimated, α _rPUCCHrepresent the road loss compensation factor repeating to transmit PUCCH data, Δ _formatrepresent the power bias relevant with PUCCH format, δ _pUCCHcorrespond to the clear and definite closed loop power control command of automatic network.

19. methods as claimed in claim 15, is characterized in that, the described power contorl parameters according to repeating to transmit PUCCH data determines the actual emission power repeating the PUCCH data transmitted, and comprising:

P _T,RPUCCH＝min{P _MAX,P'+P _{RPUCCH_OFFSET_1}}

P'＝P _{O_PUCCH}+PL _DL+Δ _Format+δ _PUCCH，

Wherein, P _{t, RPUCCH}represent the actual emission power repeating the PUCCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUCCH}represent the expectation received power of the PUCCH data once transmitted, PL _dLrepresent that descending path loss is estimated, Δ _formatthe power bias relevant with PUCCH format, δ _pUCCHcorrespond to the clear and definite closed loop power control command of automatic network.

20. methods as claimed in claim 15, is characterized in that, the described power contorl parameters according to repeating to transmit PUCCH data determines the actual emission power repeating the PUCCH data transmitted, and comprising:

P _T,RPUCCH＝P'+P _{RPUCCH_OFFSET_2}

P'＝min{P _MAX,P _{O_PUCCH}+PL _DL+Δ _Format+δ _PUCCH}，

P _T,RPUCCH＝P _MAX+P _{RPUCCH_OFFSET_2}，

Wherein, P _{t, RPUCCH}represent the actual emission power repeating the PUCCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUCCH}represent the expectation received power of the PUSCH data once transmitted, PL _dLrepresent that descending path loss is estimated, Δ _formatthe power bias relevant with PUCCH format, δ _pUCCHcorrespond to the clear and definite closed loop power control command of automatic network.

21. method as claimed in claim 15, is characterized in that, described according to repeating the iterative transfer times N transmitting PUCCH data _pUCCHdetermine the actual emission power repeating the PUCCH data transmitted, comprising:

P _T,RPUCCH＝min{P _MAX,P'-10·log ₁₀(N _PUCCH)}

P'＝P _{O_PUCCH}+PL _DL+Δ _Format+δ _PUCCH，

Wherein, P _{t, RPUCCH}represent the actual emission power repeating the PUCCH data transmitted, P _mAXrepresent maximum transmitting power, P _{o_RPUCCH}represent the expectation received power of the PUCCH data once transmitted, PL _dLrepresent that descending path loss is estimated, Δ _formatrepresent the power bias relevant with PUCCH format, δ _pUCCHcorrespond to the clear and definite closed loop power control command of automatic network.

22. methods as claimed in claim 15, is characterized in that, when launching frequency pilot sign, described method also comprises:

Described frequency pilot sign is launched with the transmitting power identical with the described PUCCH data symbol repeating to transmit, or, by described frequency pilot sign all the time with maximum power transmission.

23. methods as described in any one of claim 15 to 22, it is characterized in that, before RRC connection establishment, described method also comprises:

24. 1 kinds of Poewr control methods, is characterized in that, described method comprises:

When the iterative transfer times of the Physical Uplink Shared Channel PUSCH data of subscriber equipment is greater than K _pUSCHtime, the power contorl parameters of the PUSCH data that what notifying user equipment was proprietary repeat transmits;

When the iterative transfer times of the Physical Uplink Control Channel PUCCH data of subscriber equipment is greater than K _pUCCHtime, the power contorl parameters of the PUCCH data that what notifying user equipment was proprietary repeat transmits;

Wherein, described K _pUSCHand K _pUCCHfor predefine value.

25. methods as claimed in claim 24, is characterized in that, the described power contorl parameters repeating the PUSCH data transmitted, comprising:

Aim at and repeat to transmit the parameter set by PUSCH data;

26. methods as described in claim 24 or 25, is characterized in that, describedly repeat the power contorl parameters transmitting PUCCH data, comprising:

Aim at and repeat to transmit the parameter set by PUCCH data;

27. 1 kinds of subscriber equipmenies, is characterized in that, described subscriber equipment comprises:

Detecting unit and transmitter unit; Wherein,

Described detecting unit, for detecting that the iterative transfer times of Physical Uplink Shared Channel PUSCH data is greater than K _pUSCHtime, trigger described transmitter unit and send the PUSCH data repeating to transmit with the power being less than or equal to maximum transmission power; Detecting that the iterative transfer times of Physical Uplink Control Channel PUCCH data is greater than K _pUCCHtime, trigger described transmitter unit and send the PUCCH data repeating to transmit with the power being less than or equal to maximum transmission power;

Wherein, described K _pUSCHand K _pUCCHfor predefine value.

28. subscriber equipmenies as claimed in claim 27, it is characterized in that, described subscriber equipment also comprises:

First determining unit, for the iterative transfer times N of PUSCH data transmitted according to the power contorl parameters or repeat repeating the PUSCH data transmitted _pUSCH, determine the actual emission power repeating the PUSCH data transmitted;

Described transmitter unit, also for launching the PUSCH data repeating to transmit according to described actual emission power.

29. subscriber equipmenies as claimed in claim 28, is characterized in that, the described power contorl parameters repeating to transmit PUSCH data comprises:

30. subscriber equipment as claimed in claim 29, is characterized in that the parameter that described subscriber equipment is proprietary comprises:

Aim at and repeat to transmit the parameter set by PUSCH data;

31. subscriber equipmenies as claimed in claim 30, is characterized in that,

Described first determining unit, also for according to the received power P of expectation repeating the PUSCH data transmitted _{o_RPUSCH}parameter and following equation, determine the actual emission power repeating the PUSCH data transmitted:

32. subscriber equipmenies as claimed in claim 30, is characterized in that, described first determining unit, also for according to the road loss compensation factor α of PUSCH data repeating to transmit _rPUSCHand following equation determines the actual emission power repeating the PUSCH data transmitted:

PL _DL'＝α _RPUSCH·PL _DL

33. subscriber equipmenies as claimed in claim 30, is characterized in that, described first determining unit, also for according to the expectation received power P of PUSCH data repeating to transmit _{o_PUSCH}with the road loss compensation factor parameter alpha repeating the PUSCH data transmitted _rPUSCH, and following equation, determine the actual emission power repeating the PUSCH data transmitted:

PL _DL'＝α _RPUSCH·PL _DL

34. subscriber equipmenies as claimed in claim 30, is characterized in that, described first determining unit, also for according to the first power offset parameter P of PUSCH data repeating to transmit _{rPUSCH_OFFSET_1}, and following equation, determine the actual emission power repeating the PUSCH data transmitted:

P _T,RPUSCH＝min{P _MAX,P'+P _{RPUSCH_OFFSET_1}}

P'＝P _{O_PUSCH}+PL _DL+10·log ₁₀(M)+Δ _MCS+δ _PUSCH，

35. subscriber equipmenies as claimed in claim 30, is characterized in that, described first determining unit, also for according to the second power offset parameter P of PUSCH data repeating to transmit _{rPUSCH_OFFSET_2}, and following equation, determine the actual emission power repeating the PUSCH data transmitted:

P _T,RPUSCH＝P'+P _{RPUSCH_OFFSET_2}

P'=min{P _mAX, P _{o_PUSCH}+ PL _dL+ 10log ₁₀(M)+Δ _mCS+ δ _pUSCH; Or,

P _T,RPUSCH＝P _MAX+P _{RPUSCH_OFFSET_2}，

36. subscriber equipmenies as claimed in claim 30, is characterized in that, described first determining unit, also for according to repeating the iterative transfer times N transmitting PUSCH data _pUSCHand following equation, determine the actual emission power repeating the PUSCH data transmitted:

P _T,RPUSCH＝min{P _MAX,P'-10·log ₁₀(N _PUSCH)}

P'＝P _{O_PUSCH}+PL _DL+10·log ₁₀(M)+Δ _MCS+δ _PUSCH，

37. subscriber equipmenies as claimed in claim 27, it is characterized in that, described transmitter unit, also for when launching frequency pilot sign, described frequency pilot sign is launched with the transmitting power identical with the described PUSCH data symbol repeating to transmit, or, by described frequency pilot sign all the time with maximum power transmission.

38. subscriber equipmenies as claimed in claim 27, it is characterized in that, described transmitter unit, also for before radio frequency resource control RRC connection establishment, launches the PUSCH data repeating to transmit according to existing power control mechanism, or, the PUSCH data transmitted are repeated all the time with maximum power transmission.

39. subscriber equipmenies as claimed in claim 27, is characterized in that, described first determining unit, also for determining the transmitting power repeating the PUCCH data transmitted according to the power contorl parameters repeating the PUCCH data transmitted; Or, according to repeating the iterative transfer times N transmitting PUCCH data _pUCCH, determine the transmitting power repeating the PUCCH data transmitted.

40. subscriber equipment as claimed in claim 39, is characterized in that, the described power contorl parameters repeating to transmit PUCCH data comprises:

41. subscriber equipmenies as claimed in claim 40, is characterized in that the parameter that described subscriber equipment is proprietary comprises: aim at and repeat to transmit the parameter set by PUCCH data;

42. subscriber equipmenies as claimed in claim 41, is characterized in that, described first determining unit, also for according to the received power P of expectation repeating the PUCCH data transmitted _{o_RPUCCH}parameter and following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝min{P _MAX,P _{O_RPUCCH}+PL _DL+Δ _Format+δ _PUCCH}，

43. subscriber equipmenies as claimed in claim 41, is characterized in that, described first determining unit, also for according to the road loss compensation factor α of PUCCH data repeating to transmit _rPUCCH, and following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝min{P _MAX,P _{O_PUCCH}+PL _DL'+Δ _Format+δ _PUCCH}

PL _DL'＝α _RPUCCH·PL _DL，

44. subscriber equipmenies as claimed in claim 41, is characterized in that, described first determining unit, also for according to the received power P of expectation repeating the PUCCH data transmitted _{o_RPUCCH}, repeat the road loss compensation factor α of PUCCH data that transmits _rPUCCH, and following equation determine to repeat the actual emission power of the PUCCH data transmitted:

P _T,RPUCCH＝min{P _MAX,P _{O_RPUCCH}+PL _DL'+Δ _Format+δ _PUCCH}

PL _DL'＝α _RPUCCH·PL _DL，

45. subscriber equipmenies as claimed in claim 41, is characterized in that, described first determining unit, also for according to the first power offset parameter P of PUCCH data repeating to transmit _{rPUCCH_OFFSET_1}, and following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝min{P _MAX,P'+P _{RPUCCH_OFFSET_1}}

P'＝P _{O_PUCCH}+PL _DL+Δ _Format+δ _PUCCH，

46. subscriber equipmenies as claimed in claim 41, is characterized in that, described first determining unit, also for according to the second power offset parameter P of PUCCH data repeating to transmit _{rPUCCH_OFFSET_2}and following equation, determine the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝P'+P _{RPUCCH_OFFSET_2}

P'＝min{P _MAX,P _{O_PUCCH}+PL _DL+Δ _Format+δ _PUCCH}；

P _T,RPUCCH＝P _MAX+P _{RPUCCH_OFFSET_2}，

47. subscriber equipmenies as claimed in claim 41, is characterized in that, described first determining unit, also for transmitting the iterative transfer times N of PUCCH data according to repeating _pUCCHand following equation determines the actual emission power repeating the PUCCH data transmitted:

P _T,RPUCCH＝min{P _MAX,P'-10·log ₁₀(N _PUCCH)}

P'＝P _{O_PUCCH}+PL _DL+Δ _Format+δ _PUCCH，

48. subscriber equipmenies as claimed in claim 41, it is characterized in that, described transmitter unit, also for when launching frequency pilot sign, described frequency pilot sign is launched with the transmitting power identical with the described PUCCH data symbol repeating to transmit, or, by described frequency pilot sign all the time with maximum power transmission.

49. subscriber equipmenies as described in any one of claim 41 to 48, is characterized in that, described transmitter unit, also for before RRC connection establishment, launch the PUCCH data repeating to transmit according to existing power control mechanism; Or, the PUCCH data transmitted is repeated all the time with maximum power transmission.

50. 1 kinds of base stations, is characterized in that, described base station comprises: the second determining unit and the second transmitter unit; Wherein,

Described second determining unit, is greater than K for the iterative transfer times when subscriber equipment Physical Uplink Shared Channel PUSCH data _pUSCHtime, determine the power contorl parameters repeating the PUSCH data transmitted that described subscriber equipment is proprietary; When the iterative transfer times of the Physical Uplink Control Channel PUCCH data of subscriber equipment is greater than or K _pUCCHtime, determine the power contorl parameters repeating the PUCCH data transmitted that described subscriber equipment is proprietary;

Wherein, described K _pUSCHand K _pUCCHfor predefine value.

51. base stations as claimed in claim 50, is characterized in that, the described power contorl parameters repeating the PUSCH data transmitted, comprising:

Aim at and repeat to transmit the parameter set by PUSCH data;

52. base stations as described in claim 50 or 51, is characterized in that, describedly repeat the power contorl parameters transmitting PUCCH data, comprising:

Aim at and repeat to transmit the parameter set by PUCCH data;

53. 1 kinds of power control systems, is characterized in that, described system comprises:

Subscriber equipment, is greater than K for the iterative transfer times when Physical Uplink Shared Channel PUSCH data _pUSCHtime, the PUSCH data repeating to transmit are sent with the power being less than or equal to maximum transmission power; When the iterative transfer times of Physical Uplink Control Channel PUCCH data is greater than K _pUCCHtime, the PUCCH data repeating to transmit is sent with the power being less than or equal to maximum transmission power;

Wherein, described K _pUSCHand K _pUCCHfor predefine value.

54. systems as described in right 53, it is characterized in that, described system also comprises:

Base station, the iterative transfer times for the PUSCH data when described subscriber equipment is greater than K _pUSCHtime, notify the power contorl parameters repeating the PUSCH data transmitted that described subscriber equipment is proprietary; When the iterative transfer times of the PUCCH data of described subscriber equipment is greater than or K _pUCCHtime, notify the power contorl parameters repeating the PUCCH data transmitted that described subscriber equipment is proprietary.