CN102946632A - Uplink power control method of multiple-antenna system, and user terminal - Google Patents

Abstract

The invention discloses a power control method of a multiple-antenna system, and a user terminal, which can realize obtaining of Delta TF (Delta Transmission Format) parameters under an uplink dicode word flow of UE (user equipment). Through the Delta TF parameters, eNB (evolved Node B) can control the uplink PSD (Power Spectral Density) of the UE only by controlling the MCS (Modulation and Coding Scheme) of an uplink code word flow of the UE. The method provided by the invention has the advantage that the eNB can control the PSD of the UE more flexibly and effectively, so that the purposes of lowering system interference, ensuring transmission power of the UE and increasing system throughput can be achieved.

Description

A kind of ascending power control method of multiaerial system and user terminal

Technical field

The present invention relates to digital communicating field, particularly relate to LTE (Long Term Evolution, the 3GPP Long Term Evolution) with LTE-A (Long Term Evolution Advanced, senior 3GPP Long Term Evolution), Poewr control method and user terminal in particular to a kind of multiaerial system.

Background technology

LTE-A is the evolution version of LTE, its objective is that higher demand and Geng Duo for satisfying wireless communications market in the coming years use, satisfy and surpass IMT-Advanced (Intemational Mobile Telecommunications-Advanced, IMT-Advanced) demand also keeps the backwards compatibility preferably to LTE simultaneously.

In the LTE system, introduced MIMO (Multiple-Input Multiple-Output in order to improve system spectral efficiency, multiple-input and multiple-output) technology, send and receive end at a wireless system all adopts many antenna elements, utilize the abundant Spatial Multi-Dimensional characteristic of wireless scatter channel, mode with many inputs/many outputs is worked, and reaches the effect that improves the system channel capacity.

In the LTE of Rel-8 version agreement, uply only can adopt the single-antenna transmission technology at synchronization, so single UE (User Equipment, user terminal) upstream multi-antenna pattern can only be SIMO (Single-Input Multiple-Output, single input exports) or SISO (Single-Input Single-Output, the single output of single input).And in the LTE-A of Rel-10 version agreement, introduced up SU-MIMO (Single users Multiple-Input Multiple-Output, alone family multiple-input and multiple-output) technology for further improving system spectral efficiency.UE uplink antenna amount mostly is 4 most in Rel-10 version LTE agreement, and the streams of code words quantity of transmission is 2 to the maximum.

Dominated formulate in the up PUSCH transmitting power of the LTE of Rel-8 version agreement is:

P _PUSCH(i)＝min{P _MAX，10log ₁₀(M _PUSCH(i))+P _{O_PUSCH}(j)+α(j)·PL+Δ _TF(i)+f(i)}

In the above-mentioned formula:

P _MAXBe the maximum transmitting power that allows of PUSCH, depend on the power class with UE, determined the maximum capacity of UE transmitting power.

M _PUSCH(i) be the PUSCH resource size that subframe i upward distributes, represent with RB, the number of the RB that namely distributes, the PSD on each RB that UE distributes equates, and transmitting power is directly proportional with the RB number that distributes.

P _{O_PUSCH}The minimum emissive power of UE when satisfying the transmission requirement when (j) path loss impact (supposing that UE is just in base station side) is not considered in expression.

The value of α has that α={ 0,0.4,0.5,0.6,0.7,0.8,0.9,1} is the parameter that the residential quarter of 3 bits is determined, is provided by the upper strata.The complete path loss compensation of α=1 expression, namely each user to arrive the signal to noise ratio of the signal of base station be identical, the transmitting power of Cell Edge User is very high; α=0 expression does not have the path loss compensation, and the base station can be very high to the received power of Cell Center User, and is very low to the received power of Cell Edge User; 0＜α＜1 expressed portion is divided the path loss compensation, and the loss of Cell Center User path loss compensation is very little, and the loss of Cell Edge User path loss compensation is larger.It is little that this design can guarantee that the Cell Center User throughput descends, simultaneously so that Cell Edge User has reducing to a certain degree to the interference of neighbor cell.

PL is the descending path loss estimated value of calculating in UE.

F (*) is UE close-loop power control parameter, is provided by RRC, and two types of accumulation and current absolute values are arranged.This parameter is the synthesis result of closed-loop power control and minizone power control in the residential quarter.

It is Δ that a power contorl parameters is wherein arranged in the close-loop power control _{TF, c}(i), be Delta TF (Delta Transmission Format, transformat), Delta TF is by BPRE (the Bits Per Resource Element of the streams of code words of UE transmission, every Resource Unit carrying bit number) and parameter K s calculate and get, account form is that the power of the product of 2 BPRE and KS subtracts 1 again and gets.

The specific formula for calculation of Delta TF is as follows:

${\mathrm{\Δ}}_{\mathrm{TF}}\left(i\right)={10\log }_{10}(2^{{\mathrm{BPRE}\left(i\right)\·K}_S}-1)$

K here wherein _SBe the parameter that high level provides, its value can or be 0 for 1.25.Work as K _SValue is 0 o'clock, Δ _{TF, c}(i) be 0.

Wherein BPRE is got by the amount of bits of streams of code words carrying and RE number (Resource Element, the Resource Unit) calculating that distributes for this streams of code words, and specific formula for calculation is as follows:

$\mathrm{BPRE}=\underset{r=0}{\overset{C-1}{\mathrm{\Σ}}}{K}_r/N_{\mathrm{RE}}$

C is the encoding block quantity of the user data of up PUSCH in the following formula, and wherein the coded block size of r encoding block is K _rN _REFor system is the RE quantity that PUSCH distributes.

Or work as the ascending control information that only has that transmits in the up streams of code words, then the computing formula of BPRE is:

BPRE＝O _CQI/N _RE

O in the following formula _CQIAmount of bits for the upload control data of PUSCH carrying.

Delta TF parameter can make eNB (evolved Node B, evolution Node B) can launch fast MCS (the Modulation and Coding Scheme of streams of code words according to UE, coded modulation scheme) adjusts PUSCH (the Physical Uplink Shared Channel that UE launches, Physical Uplink Shared Channel) PSD (Power Spectral Density, power spectral density).The effect of Delta TF parameter is that PSD and MCS are associated, and helps eNB to reach the purpose of the PSD of rapid adjustment UE emission by the MCS that distributes to UE, reduces and disturbs, and increases throughput of system.

The control procedure formula of the up PUSCH transmitting power of Rel-10 version LTE agreement is:

$P_{\mathrm{PUSCH},c}\left(i\right)=\min \left\{\begin{array}{c}{P}_{\mathrm{CMAX},c}\left(i\right),\\ {10\log }_{10}\left(M_{\mathrm{PUSCH},c}\left(i\right)\right)+P_{O\_\mathrm{PUSCH},c}\left(j\right)+{\mathrm{\α}}_c\left(j\right)\·{\mathrm{PL}}_c+{\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)+f_c\left(i\right)\end{array}\right\}$

In the above-mentioned formula:

P _{CMAX, c}(i) be the maximum transmitting power that allows of PUSCH on this carrier wave, depend on the power class with UE, determined the maximum capacity of UE transmitting power.

M _{PUSCH, c}(i) be the PUSCH resource size that the subframe i on this carrier wave upward distributes, represent with RB, the number of the RB that namely distributes, the PSD on each RB that UE distributes equates, and transmitting power is directly proportional with the RB number that distributes.

P _{O_PUSCH, c}(j) represent on this carrier wave do not consider path loss impact (supposing that UE is just in base station side) time minimum emissive power of UE when satisfying the transmission requirement.

α _c(j) expression is part path loss penalty coefficient on this carrier wave, α _c(j) value has α _c{ 0,0.4,0.5,0.6,0.7,0.8,0.9,1} is the definite parameter in residential quarter of 3 bit to ∈, is provided by the upper strata.α _c(j)=1. the complete path loss of expression compensation, namely each user to arrive the signal to noise ratio of the signal of base station be identical, the transmitting power of Cell Edge User is very high; α _c(j)=0. expression does not have the path loss compensation, and the base station can be very high to the received power of Cell Center User, and is very low to the received power of Cell Edge User; 0＜α _c(j)＜1 expressed portion is divided the path loss compensation, and the loss of Cell Center User path loss compensation is very little, and the loss of Cell Edge User path loss compensation is larger.It is little that this design can guarantee that the Cell Center User throughput descends, simultaneously so that Cell Edge User has reducing to a certain degree to the interference of neighbor cell.

PL _cIt is the descending path loss estimated value of in UE, calculating on this carrier wave.

f _c(i) be UE close-loop power control parameter on this carrier wave, provided by RRC that two types of accumulation and current absolute values are arranged.This parameter is the synthesis result of closed-loop power control and minizone power control in the residential quarter.

If up-link carrier has configured PUSCH and PUCCH when transmitting simultaneously, up PUSCH power control process formula is:

$P_{\mathrm{PUSCH},c}\left(i\right)=\min \left\{\begin{array}{c}{10\log }_{10}({\hat{P}}_{\mathrm{CMAX},c}\left(i\right)-{\hat{P}}_{\mathrm{PUCCH}}\left(i\right)),\\ {10\log }_{10}\left(M_{\mathrm{PUSCH},c}\left(i\right)\right)+P_{O\_\mathrm{PUSCH},c}\left(j\right)+{\mathrm{\α}}_c\left(j\right)\·{\mathrm{PL}}_c+{\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)+f_c\left(i\right)\end{array}\right\}$

Wherein

It is the linear value of the transmitting power of PUCCH (Physical Uplink Control Channel, Physical Uplink Control Channel).All the other parameters are identical with the power dominated formulate of the PUSCH transmitting power of above-mentioned Rel-10.

When uplink is the single codeword flow transmission, Δ _{TF, c}(i) be 2 BPRE and K _SThe power of product subtract again after 1 and the user data on the PUSCH and the side-play amount of control information Product get.

The specific formula for calculation of Delta TF is as follows:

${\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)={10\log }_{10}((2^{\mathrm{BPRE}\·K_s}-1)\·{\mathrm{\β}}_{\mathrm{offset}}^{\mathrm{PUSCH}})$

Wherein the value 1.25 or 0 of Ks when the Ks value is 1.25, does not have user data in the up PUSCH transmission, and when only having the control signal data, the account form of BPRE is as follows:

BPRE＝O _CQI/N _RE

The account form of BPRE is as follows in all the other situations:

$\mathrm{BPRE}=\underset{r=0}{\overset{C-1}{\mathrm{\Σ}}}{K}_r/N_{\mathrm{RE}}$

C is the encoding block quantity of the user data of the up PUSCH on this carrier wave in the following formula, and wherein the coded block size of r encoding block is K _rN _REFor system is the RE quantity that the PUSCH on this carrier wave distributes.

Work as K _SValue is 0 o'clock, Δ _{TF, c}(i) be 0.

In the LTE of Rel-10 version system, when UE has configured up dicode word flow transmission, because MCS corresponding to different streams of code words possibility, and different streams of code words distributes the RE quantity that obtains also possible different, if carry out the calculating of Delta TF parameter according to the uplink power control process of the LTE agreement of Rel-8 version this moment, different streams of code words correspondences calculate Delta TF parameter might be different, the transmitting power of transmitting antenna in synchronization of corresponding different streams of code words of UE that will cause like this having configured up pair of streams of code words is unequal, on the UE that has only configured a power amplifier, the corresponding different transmission power of different antennae is irrealizable.

Because above-mentioned, when UE collocating uplink dicode word flow transmission, Ks fixedly value is 0 in the LTE system of Rel-10 version, and eNB can not launch the PSD of PUSCH with UE and the MCS of the up streams of code words of UE associates by Delta TF parameter at this moment.Therefore eNB can't reach the purpose by the MCS rapid adjustment UE emission PSD that distributes to UE.

And change more violent when wireless channel environment, the MCS grade of one of up pair of streams of code words or up pair of streams of code words changes larger within the time interval of a sub-frame duration length, then this moment, UE can't mate the emission PSD of UE and the MCS grade of up pair of streams of code words of UE fast by Delta TF parameter, also can't in time pass through closed loop TPC (Transmitter Power Control, transmitter power control) order UE adjusts its emission PSD, will cause the hydraulic performance decline of system.

Summary of the invention

In sum, need a kind of Delta TF gain of parameter method of distributing the corresponding up dicode word flow transmission under the prerequisite at the constant power of UE transmitting antenna, realize adjusting the Delta TF parameter that the up dicode word of UE flows down, reduce and disturb, increase throughput of system.

Problem in sum, the invention provides a kind of ascending power control method of multiaerial system, comprise when user terminal UE is configured to up dicode word flow transmission, described UE uses the carrying bit number of two streams of code words and the Resource Unit RE quantity of two streams of code words, obtains of equal value every Resource Unit carrying bit number BPRE of corresponding two streams of code words; Wherein, described BPRE of equal value is the bits of user data quantity sum of up two streams of code words carrying, or control information amount of bits sum, or bits of user data quantity and the control information amount of bits sum RE quantity sum of distributing divided by described up two streams of code words;

Perhaps; UE sends the system signaling indication by predetermined selection mode or reception eNB and is configured selection, obtains the BPRE of equal value of the corresponding two streams of code words of BPRE of two streams of code words.

The method obtains Delta TF parameter by the BPRE of equal value of described pair of streams of code words, and described transformat Delta TF parameter is determined the upward signal power of UE transmit physical Uplink Shared Channel PUSCH among the subframe i.

Wherein, the bits of user data quantity sum of described up two streams of code words carrying, for when described up pair of streams of code words the transmitting user data, the bits of user data quantity of up pair of streams of code words carrying is the coded block size sum of all encoding blocks of the data of corresponding up two streams of code words.The number of data bits of carrying when wherein, up streams of code words is transmitted for the first time.

Wherein, described control information bit sum, for when described up pair of streams of code words the transmission of control signals, the control signal bit number sum of up pair of streams of code words carrying is the control signal bit number sum of up streams of code words carrying when transmitting for the first time.Corresponding embodiment two

Wherein, described bits of user data and control information amount of bits sum, for working as streams of code words transmitting user data of up pair of streams of code words, during another one codeword transmission control signal, the bits of user data quantity of transmitting in streams of code words and the amount of bits sum of another one codeword transmission control signal.

Wherein, the RE quantity sum that described up two streams of code words are distributed, system is the RE quantity sum of its distribution when transmitting for the first time for up pair of streams of code words.

The of equal value BPRE of above-mentioned the method by described pair of streams of code words obtains Delta TF parameter and be specially: the power of 2 BPRE and the product of KS subtracts after 1 and the user data on the PUSCH and the side-play amount of control information again

Product

${\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)={10\log }_{10}((2^{\mathrm{BPRE}\·K_s}-1)\·{\mathrm{\β}}_{\mathrm{offset}}^{\mathrm{PUSCH}})$

Wherein, Δ _{TF, c}(i) be Delta TF.

Further, the upward signal power that obtains described UE emission PUSCH (Physical Uplink Shared Channel) is:

When UE uplink scene is up dicode word flow transmission, the ascending power of the PUSCH of subframe i is the maximum transmitting power that allows of PUSCH and the smaller value of PUSCH rated output on this carrier wave, wherein the rated output of PUSCH by on the resource size of the PUSCH on this carrier wave, this carrier wave do not consider that path loss affects the time minimum emissive power, descending circuit loss value, Delta TF parameter on this carrier wave and the UE close-loop power control parameter on this carrier wave of part path loss penalty coefficient, UE measurement on this carrier wave of UE when satisfying transmission and requiring;

$P_{\mathrm{PUSCH},c}\left(i\right)=\min \left\{\begin{array}{c}{P}_{\mathrm{CMAX},c}\left(i\right),\\ {10\log }_{10}\left(M_{\mathrm{PUSCH},c}\left(i\right)\right)+P_{O\_\mathrm{PUSCH},c}\left(j\right)+{\mathrm{\α}}_c\left(j\right)\·{\mathrm{PL}}_c+{\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)+f_c\left(i\right)\end{array}\right\}$

Or;

When UE uplink scene is when having configured PUSCH and PUCCH in up dicode word flow transmission and the up-link carrier and transmitting simultaneously, the ascending power of the PUSCH of subframe i is the difference of the transmitting power of the maximum transmitting power that allows of PUSCH and PUCCH on this carrier wave and the smaller value of PUSCH rated output, and wherein the rated output of PUSCH is by the resource size of the PUSCH on this carrier wave, the minimum emissive power of UE when not considering on this carrier wave satisfies transmission and require when path loss affects, part path loss penalty coefficient on this carrier wave, the descending circuit loss value that UE measures, Delta TF parameter on this carrier wave and the UE close-loop power control parameter on this carrier wave;

$P_{\mathrm{PUSCH},c}\left(i\right)=\min \left\{\begin{array}{c}{10\log }_{10}({\hat{P}}_{\mathrm{CMAX},c}\left(i\right)-{\hat{P}}_{\mathrm{PUCCH}}\left(i\right)),\\ {10\log }_{10}\left(M_{\mathrm{PUSCH},c}\left(i\right)\right)+P_{O\_\mathrm{PUSCH},c}\left(j\right)+{\mathrm{\α}}_c\left(j\right)\·{\mathrm{PL}}_c+{\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)+f_c\left(i\right)\end{array}\right\}.$

Wherein, the selection mode that described UE determines by predefined rule is chosen one of them streams of code words, and concrete selection mode comprises one of following manner;

Fixedly choose first streams of code words in two streams of code words;

Fixedly choose second streams of code words in two streams of code words;

Select the larger streams of code words of BPRE;

Select the less streams of code words of BPRE;

Select the more streams of code words of carrying bit number;

Select the less streams of code words of carrying bit number;

Select to distribute the more streams of code words of RE number;

Select to distribute the less streams of code words of RE number.

Corresponding embodiment 5-8

Above-mentioned UE can also send the system signaling indication by reception eNB and be configured selection, and concrete signal deployment mode comprises one of following manner;

By high-level signaling, the streams of code words that configuration UE is selected;

By the physical layer dynamic signaling, the streams of code words that notice UE selects;

By high-level signaling, configuration UE is selected streams of code words according to one of above-mentioned predefine rule;

By the physical layer dynamic signaling, configuration UE is selected streams of code words according to one of above-mentioned predefine rule.

After certain streams of code words of above-mentioned selection, the preparation method of the BPRE of equal value of two streams of code words can be one of following manner:

The BPRE of equal value of two streams of code words equal selecteed streams of code words BPRE L doubly;

Wherein L is positive integer.

The present invention also provides a kind of user terminal of uplink power control of multiaerial system, comprising: receiving processing module, acquisition module;

Receiving processing module, when being used for the up dicode word flow transmission of UE receiving system configuration, the carrying bit number of two streams of code words that described UE specially fails and the RE quantity of two streams of code words;

Or described UE sends the system signaling indication by predefined rules selection mode or reception eNB and is configured selection;

Acquisition module is used for the BPRE of equal value by the corresponding two streams of code words of BPRE acquisition of two streams of code words;

Wherein, described BPRE of equal value is the bits of user data quantity sum of up two streams of code words carrying, or control information amount of bits sum, or bits of user data quantity and the control information amount of bits sum RE quantity sum of distributing divided by described up two streams of code words.

Further, described UE sends the system signaling indication by predefined rules selection mode or reception eNB and is configured selection, chooses one of them streams of code words of dicode subflow.

Further, the bits of user data quantity sum of described up two streams of code words carrying, for when described up pair of streams of code words the transmitting user data, the bits of user data quantity of up pair of streams of code words carrying is the coded block size sum of all encoding blocks of the data of corresponding up two streams of code words.The number of data bits of carrying when wherein, up streams of code words is transmitted for the first time.

Further, described control information bit sum, for when described up pair of streams of code words the transmission of control signals, the control signal bit number sum of up pair of streams of code words carrying is the control signal bit number sum of up streams of code words carrying when transmitting for the first time.

Further, described bits of user data and control information amount of bits sum, for working as streams of code words transmitting user data of up pair of streams of code words, during another one codeword transmission control signal, with the bits of user data quantity transmitted in the streams of code words and the amount of bits sum of another one codeword transmission control signal.

Further, the RE quantity sum that described up two streams of code words are distributed, system is the RE quantity sum of its distribution when transmitting for the first time for up pair of streams of code words.

Wherein, described receiving processing module is further, and described UE chooses one of them streams of code words by predefined rules selection mode, and concrete selection mode comprises one of following manner;

Fixedly choose first streams of code words in two streams of code words;

Fixedly choose second streams of code words in two streams of code words;

Select the larger streams of code words of BPRE;

Select the less streams of code words of BPRE;

Select the more streams of code words of carrying bit number;

Select the less streams of code words of carrying bit number;

Select to distribute the more streams of code words of RE number;

Select to distribute the less streams of code words of RE number.

Wherein, described UE can also send the system signaling indication by reception eNB and be configured selection, and concrete signal deployment mode comprises one of following manner;

By high-level signaling, the streams of code words that configuration UE is selected;

By the physical layer dynamic signaling, the streams of code words that notice UE selects;

By high-level signaling, configuration UE is selected streams of code words according to one of above-mentioned predefine rule;

By the physical layer dynamic signaling, configuration UE is selected streams of code words according to one of above-mentioned predefine rule.

Further, after one of them streams of code words of described selection, the preparation method of the BPRE of equal value of two streams of code words is: the BPRE of equal value of two streams of code words equal selecteed streams of code words BPRE L doubly, wherein, L is positive integer.

Further, acquisition module also comprises the parameter determination module, be used for obtaining Delta TF parameter by the BPRE of equal value of described pair of streams of code words, described transformat Delta TF parameter is determined the upward signal power of UE transmit physical Uplink Shared Channel PUSCH among the subframe i.

Above-mentioned Delta TF parameter is that the power of the product of 2 BPRE and KS subtracts after 1 and the user data on the PUSCH and the side-play amount of control information again

Product

${\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)={10\log }_{10}((2^{\mathrm{BPRE}\·K_s}-1)\·{\mathrm{\β}}_{\mathrm{offset}}^{\mathrm{PUSCH}})$

Wherein, Δ _{TF, c}(i) be Delta TF.

The upward signal power of UE emission PUSCH (Physical Uplink Shared Channel) is one of following formula among above-mentioned definite subframe i

When UE uplink scene is up dicode word flow transmission, the ascending power of the PUSCH of subframe i is the maximum transmitting power that allows of PUSCH and the smaller value of PUSCH rated output on this carrier wave, wherein the rated output of PUSCH by on the resource size of the PUSCH on this carrier wave, this carrier wave do not consider that path loss affects the time minimum emissive power, descending circuit loss value, Delta TF parameter on this carrier wave and the UE close-loop power control parameter on this carrier wave of part path loss penalty coefficient, UE measurement on this carrier wave of UE when satisfying transmission and requiring;

$P_{\mathrm{PUSCH},c}\left(i\right)=\min \left\{\begin{array}{c}{P}_{\mathrm{CMAX},c}\left(i\right),\\ {10\log }_{10}\left(M_{\mathrm{PUSCH},c}\left(i\right)\right)+P_{O\_\mathrm{PUSCH},c}\left(j\right)+{\mathrm{\α}}_c\left(j\right)\·{\mathrm{PL}}_c+{\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)+f_c\left(i\right)\end{array}\right\}$

Or;

When UE uplink scene is when having configured PUSCH and PUCCH in up dicode word flow transmission and the up-link carrier and transmitting simultaneously, the ascending power of the PUSCH of subframe i is the difference of the transmitting power of the maximum transmitting power that allows of PUSCH and PUCCH on this carrier wave and the smaller value of PUSCH rated output, and wherein the rated output of PUSCH is by the resource size of the PUSCH on this carrier wave, the minimum emissive power of UE when not considering on this carrier wave satisfies transmission and require when path loss affects, part path loss penalty coefficient on this carrier wave, the descending circuit loss value that UE measures, Delta TF parameter on this carrier wave and the UE close-loop power control parameter on this carrier wave;

$P_{\mathrm{PUSCH},c}\left(i\right)=\min \left\{\begin{array}{c}{10\log }_{10}({\hat{P}}_{\mathrm{CMAX},c}\left(i\right)-{\hat{P}}_{\mathrm{PUCCH}}\left(i\right)),\\ {10\log }_{10}\left(M_{\mathrm{PUSCH},c}\left(i\right)\right)+P_{O\_\mathrm{PUSCH},c}\left(j\right)+{\mathrm{\α}}_c\left(j\right)\·{\mathrm{PL}}_c+{\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)+f_c\left(i\right)\end{array}\right\}$

By method provided by the invention, can realize the Delta TF calculation of parameter that the up dicode word of UE flows down.By Delta TF parameter, the MCS that eNB only need control the up streams of code words of UE can control the up PSD of UE, method of the present invention makes the more flexible PSD that effectively controls UE of eNB, reaches the purpose that reduces system interference, assurance UE through-put power, increases throughput of system.

Description of drawings

Fig. 1: the method flow diagram that obtains uplink power control for the invention provides the letter letters such as a kind of carrying bit number that passes through two streams of code words.

Fig. 2: a kind of by the system signaling indication for the invention provides, or predefined rule, the BPRE of equal value that obtains the dicode subflow obtains the flow chart of the method for uplink power control.

Fig. 3: be the user terminal structure figure of the uplink power control of a kind of multiaerial system of the present invention.

Embodiment

In existing Rel-10 version LTE standard, when the UE uplink configuration only allow during dicode word flow transmission the constant power of transmitting power between the UE different antennae to distribute, eNB can not associate PSD and MCS by Delta TF parameter, reaches the purpose that reaches rapid adjustment UE emission PSD by the MCS that distributes to UE.

Application scenarios of the present invention is: when UE uplink scene is up dicode word flow transmission, the ascending power of the PUSCH of subframe i is the transmitting power of the maximum permission of PUSCH on this carrier wave and the smaller value of PUSCH rated output, and wherein the rated output of PUSCH is by the resource size of the PUSCH on this carrier wave, the minimum emissive power of UE when not considering on this carrier wave satisfies transmission and require when path loss affects, part path loss penalty coefficient on this carrier wave, the descending circuit loss value that UE measures, Delta TF parameter on this carrier wave and the UE close-loop power control parameter on this carrier wave calculate jointly.

The specific formula for calculation of PUSCH uplink transmission power is as follows:

$P_{\mathrm{PUSCH},c}\left(i\right)=\min \left\{\begin{array}{c}{P}_{\mathrm{CMAX},c}\left(i\right),\\ {10\log }_{10}\left(M_{\mathrm{PUSCH},c}\left(i\right)\right)+P_{O\_\mathrm{PUSCH},c}\left(j\right)+{\mathrm{\α}}_c\left(j\right)\·{\mathrm{PL}}_c+{\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)+f_c\left(i\right)\end{array}\right\}$

Wherein:

P _{CMAX, c}(i) be the maximum transmitting power that allows of PUSCH on this carrier wave.

M _{PUSCH, c}(i) be the PUSCH resource size of the upper distribution of subframe i on this carrier wave, represent with RB.

P _{O_PUSCH, c}The minimum emissive power of UE when (j) representing that not considering on this carrier wave satisfies transmission and require when path loss affects.

α _c(j) expression is part path loss penalty coefficient on this carrier wave.

PL _cIt is the descending path loss estimated value of in UE, calculating on this carrier wave.

f _c(i) be UE close-loop power control parameter on this carrier wave.

When UE uplink scene is when having configured PUSCH and PUCCH in up dicode word flow transmission and the up-link carrier and transmitting simultaneously, the ascending power of the PUSCH of subframe i is the difference of the transmitting power of the maximum transmitting power that allows of PUSCH and PUCCH on this carrier wave and the smaller value of PUSCH rated output, and wherein the rated output of PUSCH is by the resource size of the PUSCH on this carrier wave, the minimum emissive power of UE when not considering on this carrier wave satisfies transmission and require when path loss affects, part path loss penalty coefficient on this carrier wave, the descending circuit loss value that UE measures, Delta TF parameter on this carrier wave and the UE close-loop power control parameter on this carrier wave calculate jointly.

The specific formula for calculation of the uplink transmission power of PUSCH is as follows:

$P_{\mathrm{PUSCH},c}\left(i\right)=\min \left\{\begin{array}{c}{10\log }_{10}({\hat{P}}_{\mathrm{CMAX},c}\left(i\right)-{\hat{P}}_{\mathrm{PUCCH}}\left(i\right)),\\ {10\log }_{10}\left(M_{\mathrm{PUSCH},c}\left(i\right)\right)+P_{O\_\mathrm{PUSCH},c}\left(j\right)+{\mathrm{\α}}_c\left(j\right)\·{\mathrm{PL}}_c+{\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)+f_c\left(i\right)\end{array}\right\}$

Wherein:

It is the linear value of the transmitting power of PUCCH.

P _{CMAX, c}(i) be the maximum transmitting power that allows of PUSCH on this carrier wave.

M _{PUSCH, c}(i) be the PUSCH resource size of the upper distribution of subframe i on this carrier wave, represent with RB.

P _{O_PUSCH, c}The minimum emissive power of UE when (j) representing that not considering on this carrier wave satisfies transmission and require when path loss affects.

α _c(j) expression is part path loss penalty coefficient on this carrier wave.

PL _cIt is the descending path loss estimated value of in UE, calculating on this carrier wave.

f _c(i) be UE close-loop power control parameter on this carrier wave.

Δ in the above-mentioned two situations _{TF, c}(i) when uplink is the single codeword flow transmission, Δ _{TF, c}(i) be that the power of the product of 2 BPRE and KS subtracts after 1 and the user data on the PUSCH and the side-play amount of control information again

Product get.

The specific formula for calculation of Delta TF is as follows:

${\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)={10\log }_{10}((2^{\mathrm{BPRE}\·K_s}-1)\·{\mathrm{\β}}_{\mathrm{offset}}^{\mathrm{PUSCH}})$

Calculate to get Delta TF, must calculate first to get two BPRE of equal value that streams of code words is corresponding, how prior art obtains the method for corresponding BPRE of equal value when also not having dicode word flow transmission.

At one of above-mentioned application scenarios as shown in Figure 1, the method that the invention provides a kind of uplink power control of multiaerial system is specially:

The BPRE of equal value of corresponding two streams of code words is the bits of user data sum of up two streams of code words carrying, or control information bit sum, or the RE quantity sum that obtains divided by up two streams of code words distribution of bits of user data and control information amount of bits sum.

Above-mentioned application scenarios two as shown in Figure 2 method of the present invention be specially:

UE calculates respectively the BPRE of two streams of code words, by the system signaling indication, or predefined rule, choose one of them streams of code words, then acquire the BPRE of equal value of corresponding two streams of code words by meter by the BPRE of this streams of code words.

Obtain the BPRE of equal value of corresponding two streams of code words by method provided by the invention after, the computing formula of the above-mentioned Delta TF of BPRE substitution of equal value of two streams of code words namely be can be regarded as to get the size of Delta TF parameter, then the ascending power computing formula with the above-mentioned PUSCH of Delta TF parameter substitution can obtain among the subframe i, and UE launches the concrete transmitting power size of up PUSCH.

For the ease of understanding the present invention, below in conjunction with specific embodiment the BPRE of equal value that the present invention obtains corresponding two streams of code words is further set forth.

Embodiment 1

Suppose in subframe i, UE has configured up dicode word flow transmission, and first streams of code words is CW0, and second streams of code words is CW1, carrying all be user data.

Suppose that the user data encoding block quantity on the CW0 is C ⁽⁰⁾, wherein the coded block size of m encoding block is

And the user data encoding block quantity on the CW1 is C ⁽¹⁾, wherein the coded block size of m encoding block is

Suppose to distribute when CW0 just passes the RE number that obtains to be When just passing, distribute CW1 the RE number that obtains to be

Then UE calculates the BPRE of equal value of i up pair of streams of code words of UE constantly according to following formula:

$\mathrm{BPRE}=\frac{\underset{r=0}{\overset{C^{\left(0\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(0\right)}+\underset{r=0}{\overset{C^{\left(1\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(1\right)}}{N_{\mathrm{RE}}^{\left(0\right)}+N_{\mathrm{RE}}^{\left(1\right)}}$

Then UE utilize calculate the BPRE of equal value of up pair of streams of code words by following formula calculating Delta TF parameter:

${\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)={10\log }_{10}((2^{\mathrm{BPRE}\·K_s}-1)\·{\mathrm{\β}}_{\mathrm{offset}}^{\mathrm{PUSCH}})$

If current up-link carrier does not configure PUSCH and PUCCH transmits simultaneously, then UE will calculate the following PUSCH computing formula of Delta TF parameter substitution in calculate to get the ascending power size of UE transmission PUSCH among the subframe i:

$P_{\mathrm{PUSCH},c}\left(i\right)=\min \left\{\begin{array}{c}{P}_{\mathrm{CMAX},c}\left(i\right),\\ {10\log }_{10}\left(M_{\mathrm{PUSCH},c}\left(i\right)\right)+P_{O\_\mathrm{PUSCH},c}\left(j\right)+{\mathrm{\α}}_c\left(j\right)\·{\mathrm{PL}}_c+{\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)+f_c\left(i\right)\end{array}\right\}$

Otherwise, if current up-link carrier has configured PUSCH and PUCCH transmits simultaneously, then UE will calculate the following PUSCH computing formula of Delta TF parameter substitution in calculate to get the ascending power size of UE transmission PUSCH among the subframe i:

$P_{\mathrm{PUSCH},c}\left(i\right)=\min \left\{\begin{array}{c}{10\log }_{10}({\hat{P}}_{\mathrm{CMAX},c}\left(i\right)-{\hat{P}}_{\mathrm{PUCCH}}\left(i\right)),\\ {10\log }_{10}\left(M_{\mathrm{PUSCH},c}\left(i\right)\right)+P_{O\_\mathrm{PUSCH},c}\left(j\right)+{\mathrm{\α}}_c\left(j\right)\·{\mathrm{PL}}_c+{\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)+f_c\left(i\right)\end{array}\right\}$

Embodiment 2

Suppose in subframe i, UE has configured up dicode word flow transmission, and first streams of code words is CW0, and second streams of code words is CW1, carrying all be ascending control information.

Suppose that the uplink control signal number of data bits on the CW0 is

Suppose that the uplink control signal number of data bits on the CW1 is

Suppose to distribute when CW0 just passes the RE number that obtains to be

When just passing, distribute CW1 the RE number that obtains to be

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=\frac{O_{\mathrm{CQI}}^{\left(0\right)}+O_{\mathrm{CQI}}^{\left(1\right)}}{N_{\mathrm{RE}}^{\left(0\right)}+N_{\mathrm{RE}}^{\left(1\right)}}$

Then calculate the ascending power size of UE transmission PUSCH among the subframe i according to the method among the embodiment 1.

Embodiment 3

Suppose in subframe i, UE has configured up dicode word flow transmission, and first streams of code words is CW0, and second streams of code words is CW1, and wherein the CW0 carrying is ascending control information, and what CW1 carried is user uplink data.

Suppose that the uplink control signal number of data bits on the CW0 is

User data encoding block quantity on the CW1 is C ⁽¹⁾, wherein the coded block size of m encoding block is

Suppose to distribute when CW0 just passes the RE number that obtains to be When just passing, distribute CW1 the RE number that obtains to be

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=\frac{O_{\mathrm{CQI}}^{\left(0\right)}+\underset{r=0}{\overset{C^{\left(1\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(1\right)}}{N_{\mathrm{RE}}^{\left(0\right)}+N_{\mathrm{RE}}^{\left(1\right)}}$

Then calculate the ascending power size of UE transmission PUSCH among the subframe i according to the method among the embodiment 1.

Embodiment 4

Suppose in subframe i-1, UE has configured up dicode word flow transmission, and first streams of code words is CW0, and second streams of code words is CW1, and wherein the CW0 carrying is ascending control information, and what CW1 carried is user uplink data.

Suppose in subframe i-1, CW0 and CW1 are in just biography state, and wherein the user data encoding block quantity on the CW0 is Wherein the coded block size of m encoding block is

User data encoding block quantity on the CW1 is

Wherein the coded block size of m encoding block is

Suppose in next subframe, namely among the subframe i, CW0 is in old bag and retransmits state, and CW1 is in the first biography state of new bag, and the user data encoding block quantity on the CW1 is at this moment

Wherein the coded block size of m encoding block is

Suppose in subframe i-1, distribute the RE number that obtains to be when CW0 just passes

When just passing, distribute CW1 the RE number that obtains to be

Suppose in subframe i, system is that the RE quantity that the upper new data that just passes of CW1 distributes is

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=\frac{\underset{r=0}{\overset{C_{i-1}^{\left(0\right)}-1}{\mathrm{\Σ}}}{K}_{r\_i-1}^{\left(0\right)}+\underset{r=0}{\overset{C_i^{\left(1\right)}-1}{\mathrm{\Σ}}}{K}_{r\_i}^{\left(1\right)}}{N_{\mathrm{RE}\_i-1}^{\left(0\right)}+N_{\mathrm{RE}\_i}^{\left(1\right)}}$

Then calculate the ascending power size of UE transmission PUSCH among the subframe i according to the method among the embodiment 1.

Except the method for describing in above-described embodiment, the present invention also provides another method of calculating two streams of code words BPRE of equal value, namely calculate respectively the BPRE of two streams of code words, choose one of them streams of code words by certain way, then the BPRE by this streams of code words is by calculating the BPRE of equal value of corresponding two streams of code words.

Wherein, notice UE selects the mode of streams of code words to be two kinds:

First kind of way is by the streams of code words of system signaling indication UE selection.

The second way, UE selects streams of code words voluntarily according to predefined rule, and predefined rule is that system is predefined.

For the ease of understanding the present invention, further set forth below in conjunction with the method that specific embodiment is selected above-mentioned dual mode.

UE selects among the following embodiment

Embodiment 5

Suppose in subframe i, UE has configured up dicode word flow transmission, and two streams of code words are respectively CW0 and CW1, and first streams of code words is CW0, and second streams of code words is CW1, distributes the RE number that obtains to be when CW0 just passes

When just passing, distribute CW1 the RE number that obtains to be

From the method that the BPRE of selecteed streams of code words calculates the BPRE of equal value of two streams of code words be this moment: the BPRE of equal value of two streams of code words equal selecteed streams of code words BPRE L doubly, the L value is 1 in the present embodiment, in fact the present invention does not limit the value of L, and L is for just

Number is all applicable in the method provided by the invention.

For the second way, there is following embodiment to further describe.

Embodiment 5-1

What CW0 carried is user uplink data, and what CW1 carried is user uplink data.

Suppose that the user data encoding block quantity on the CW0 is C ⁽⁰⁾, wherein the coded block size of m encoding block is

User data encoding block quantity on the CW1 is C ⁽¹⁾, wherein the coded block size of m encoding block is

Suppose that this moment, UE chose first streams of code words in two streams of code words, then should select CW0 in the present embodiment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=\underset{r=0}{\overset{C^{\left(0\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(0\right)}/N_{\mathrm{RE}}^{\left(0\right)}$

Otherwise suppose that this moment, UE chose second streams of code words in two streams of code words, then should select CW1 this moment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=\underset{r=0}{\overset{C^{\left(1\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(1\right)}/N_{\mathrm{RE}}^{\left(1\right)}$

Then calculate the ascending power size of UE transmission PUSCH among the subframe i according to the method among the embodiment 1.

Embodiment 5-2

What CW0 and CW1 carried all is ascending control information, and the uplink control signal number of data bits on the CW0 is

Uplink control signal number of data bits on the CW1 is

Suppose that this moment, UE chose first streams of code words in two streams of code words, then should select CW0 in the present embodiment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=O_{\mathrm{CQI}}^{\left(0\right)}/N_{\mathrm{RE}}^{\left(0\right)}$

Otherwise suppose that this moment, UE chose second streams of code words in two streams of code words, then should select CW1 this moment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=O_{\mathrm{CQI}}^{\left(1\right)}/N_{\mathrm{RE}}^{\left(1\right)}$

Then calculate the ascending power size of UE transmission PUSCH among the subframe i according to the method among the embodiment 1.

Embodiment 5-3

What CW0 carried is ascending control information, and what CW1 carried is uplink user data, and the uplink control signal number of data bits on the CW0 is User data encoding block quantity on the CW1 is C ⁽¹⁾, wherein the coded block size of m encoding block is

Suppose that this moment, UE chose first streams of code words in two streams of code words, then should select CW0 in the present embodiment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=O_{\mathrm{CQI}}^{\left(0\right)}/N_{\mathrm{RE}}^{\left(0\right)}$

Otherwise suppose that this moment, UE chose second streams of code words in two streams of code words, then should select CW1 this moment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=\underset{r=0}{\overset{C^{\left(1\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(1\right)}/N_{\mathrm{RE}}^{\left(1\right)}$

Then calculate the ascending power size of UE transmission PUSCH among the subframe i according to the method among the embodiment 1.

Embodiment 6

Suppose in subframe i, UE has configured up dicode word flow transmission, and two streams of code words are respectively CW0 and CW1, and first streams of code words is CW0, and second streams of code words is CW1, distributes the RE number that obtains to be when CW0 just passes

When just passing, distribute CW1 the RE number that obtains to be

This moment is from the BPRE of selecteed streams of code words, the method that obtains the BPRE of equal value of two streams of code words is, the BPRE of equal value of two streams of code words equal selecteed streams of code words BPRE L doubly, the L value is 1 in the present embodiment, in fact the present invention does not limit the value of L, and L is for just

Number is all applicable in the method provided by the invention.

Embodiment 6-1

What CW0 and CW1 carried all is user uplink data.

Suppose that the user data encoding block quantity on the CW0 is C ⁽⁰⁾, wherein the coded block size of m encoding block is

User data encoding block quantity on the CW1 is C ⁽¹⁾, wherein the coded block size of m encoding block is

Suppose that the BPRE of CW0 this moment is greater than the BPRE of CW1, that is:

$\frac{\underset{r=0}{\overset{C^{\left(0\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(0\right)}}{N_{\mathrm{RE}}^{\left(0\right)}}>\frac{\underset{r=0}{\overset{C^{\left(1\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(1\right)}}{N_{\mathrm{RE}}^{\left(1\right)}}$

Suppose that this moment, UE chose two streams of code words that the BPRE in the streams of code words is larger, then should select CW0 this moment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=\underset{r=0}{\overset{C^{\left(0\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(0\right)}/N_{\mathrm{RE}}^{\left(0\right)}$

Otherwise suppose that this moment, UE chose the less streams of code words of BPRE, then should select CW1 this moment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=\underset{r=0}{\overset{C^{\left(1\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(1\right)}/N_{\mathrm{RE}}^{\left(1\right)}$

Then calculate the ascending power size of UE transmission PUSCH among the subframe i according to the method among the embodiment 1.

Embodiment 6-2

Wherein CW0 and CW1 carrying all is ascending control information.

Uplink control signal number of data bits on the CW0 is

Uplink control signal number of data bits on the CW1 is

Suppose that the BPRE of CW0 this moment is greater than the BPRE of CW1, that is:

$\frac{O_{\mathrm{CQI}}^{\left(0\right)}}{N_{\mathrm{RE}}^{\left(0\right)}}>\frac{O_{\mathrm{CQI}}^{\left(1\right)}}{N_{\mathrm{RE}}^{\left(1\right)}}$

Suppose that this moment, UE chose two streams of code words that the BPRE in the streams of code words is larger, then should select CW0 this moment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=O_{\mathrm{CQI}}^{\left(0\right)}/N_{\mathrm{RE}}^{\left(0\right)}$

Otherwise suppose that this moment, UE chose the less streams of code words of BPRE, then should select CW1 this moment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=O_{\mathrm{CQI}}^{\left(1\right)}/N_{\mathrm{RE}}^{\left(1\right)}$

Then calculate the ascending power size of UE transmission PUSCH among the subframe i according to the method among the embodiment 1.

Embodiment 6-3

What CW0 carried is ascending control information, and what CW1 carried is user uplink data.

Uplink control signal number of data bits on the CW0 is

User data encoding block quantity on the CW1 is C ⁽¹⁾, wherein the coded block size of m encoding block is

Suppose that the BPRE of CW0 this moment is greater than the BPRE of CW1, that is:

$\frac{O_{\mathrm{CQI}}^{\left(0\right)}}{N_{\mathrm{RE}}^{\left(0\right)}}>\frac{\underset{r=0}{\overset{C^{\left(1\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(1\right)}}{N_{\mathrm{RE}}^{\left(1\right)}}$

Suppose that this moment, UE chose two streams of code words that the BPRE in the streams of code words is larger, then should select CW0 this moment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=O_{\mathrm{CQI}}^{\left(0\right)}/N_{\mathrm{RE}}^{\left(0\right)}$

Otherwise suppose that this moment, UE chose the less streams of code words of BPRE, then should select CW1 this moment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=\underset{r=0}{\overset{C^{\left(1\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(1\right)}/N_{\mathrm{RE}}^{\left(1\right)}$

Then calculate the watt level of UE transmission PUSCH among the subframe i according to the method among the embodiment 1.

Embodiment 7

Suppose in subframe i, UE has configured up dicode word flow transmission, and two streams of code words are respectively CW0 and CW1, and first streams of code words is CW0, and second streams of code words is CW1, distributes the RE number that obtains to be when CW0 just passes When just passing, distribute CW1 the RE number that obtains to be

This moment is large or little from the bit number of selecteed streams of code words carrying, the method that calculates the BPRE of equal value of two streams of code words be the BPRE of equal value of two streams of code words BPRE that equals selecteed streams of code words L doubly, the L value is 1 in the present embodiment, and in fact the present invention does not limit the value of L, and L is for just Number is all applicable in the method provided by the invention.

Embodiment 7-1

What CW0 and CW1 carried all is user uplink data.

Suppose that the user data encoding block quantity on the CW0 is C ⁽⁰⁾, wherein the coded block size of m encoding block is

User data encoding block quantity on the CW1 is C ⁽¹⁾, wherein the coded block size of m encoding block is

Suppose that the bit number of CW0 carrying this moment is greater than the bit number of CW1 carrying, that is:

$\underset{r=0}{\overset{C^{\left(0\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(0\right)}>\underset{r=0}{\overset{C^{\left(1\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(1\right)}$

Suppose that this moment, UE chose the more streams of code words of bit number of two carryings in the streams of code words, then should select CW0 this moment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=\underset{r=0}{\overset{C^{\left(0\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(0\right)}/N_{\mathrm{RE}}^{\left(0\right)}$

Otherwise suppose that this moment, UE chose the less streams of code words of bit number of two carryings in the streams of code words, then should select CW1 this moment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=\underset{r=0}{\overset{C^{\left(1\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(1\right)}/N_{\mathrm{RE}}^{\left(1\right)}$

Then calculate the ascending power size of UE transmission PUSCH among the subframe i according to the method among the embodiment 1.

Embodiment 7-2

What CW0 and CW1 carried all is ascending control information.

Uplink control signal number of data bits on the CW0 is

Uplink control signal number of data bits on the CW1 is

Suppose that the bit number of CW0 carrying this moment is greater than the bit number of CW1 carrying, that is:

$O_{\mathrm{CQI}}^{\left(0\right)}>O_{\mathrm{CQI}}^{\left(1\right)}$

Suppose that this moment, UE chose the more streams of code words of bit number of two carryings in the streams of code words, then should select CW0 this moment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=O_{\mathrm{CQI}}^{\left(0\right)}/N_{\mathrm{RE}}^{\left(0\right)}$

Otherwise suppose that this moment, UE chose the less streams of code words of bit number of two carryings in the streams of code words, then should select CW1 this moment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=O_{\mathrm{CQI}}^{\left(1\right)}/N_{\mathrm{RE}}^{\left(1\right)}$

Then calculate the ascending power size of UE transmission PUSCH among the subframe i according to the method among the embodiment 1.

Embodiment 7-3

What CW0 carried is ascending control information, and what CW1 carried is user uplink data.

Uplink control signal number of data bits on the CW0 is

User data encoding block quantity on the CW1 is C ⁽¹⁾, wherein the coded block size of m encoding block is

Suppose that the bit number of CW0 carrying this moment is greater than the bit number of CW1 carrying, that is:

$O_{\mathrm{CQI}}^{\left(0\right)}>\underset{r=0}{\overset{C^{\left(1\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(1\right)}$

Suppose that this moment, UE chose the more streams of code words of bit number of two carryings in the streams of code words, then should select CW0 this moment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=O_{\mathrm{CQI}}^{\left(0\right)}/N_{\mathrm{RE}}^{\left(0\right)}$

Otherwise suppose that this moment, UE chose the less streams of code words of bit number of two carryings in the streams of code words, then should select CW1 this moment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=\underset{r=0}{\overset{C^{\left(1\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(1\right)}/N_{\mathrm{RE}}^{\left(1\right)}$

Then calculate the ascending power size of UE transmission PUSCH among the subframe i according to the method among the embodiment 1.

Embodiment 8

Suppose in subframe i, UE has configured up dicode word flow transmission, and two streams of code words are respectively CW0 and CW1, and first streams of code words is CW0, and second streams of code words is CW1, distributes the RE number that obtains to be when CW0 just passes

When just passing, distribute CW1 the RE number that obtains to be

And suppose that this moment, CW0 distributed the RE number that obtains to distribute the RE number that obtains greater than CW1, that is:

$N_{\mathrm{RE}}^{\left(0\right)}>N_{\mathrm{RE}}^{\left(1\right)}$

This moment is large or little from the RE number that the distribution of selecteed streams of code words obtains, the method that calculates the BPRE of equal value of two streams of code words is, the BPRE of equal value of two streams of code words equal selecteed streams of code words BPRE L doubly, the L value is 1 in the present embodiment, in fact the present invention does not limit the value of L, and L is for just

Number is all applicable in the method provided by the invention.

Embodiment 8-1

What CW0 and CW1 carried all is user uplink data.

Suppose that the user data encoding block quantity on the CW0 is C ⁽⁰⁾, wherein the coded block size of m encoding block is

User data encoding block quantity on the CW1 is C ⁽¹⁾, wherein the coded block size of m encoding block is

Suppose that this moment, UE chose the more streams of code words of RE number that distribution obtains in two streams of code words, then should select CW0 this moment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=\underset{r=0}{\overset{C^{\left(0\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(0\right)}/N_{\mathrm{RE}}^{\left(0\right)}$

Otherwise suppose that this moment, UE chose the less streams of code words of RE number that distribution obtains in two streams of code words, then should select CW1 this moment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=\underset{r=0}{\overset{C^{\left(1\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(1\right)}/N_{\mathrm{RE}}^{\left(1\right)}$

Then calculate the ascending power size of UE transmission PUSCH among the subframe i according to the method among the embodiment 1.

Embodiment 8-2

What CW0 and CW1 carried all is ascending control information.

Uplink control signal number of data bits on the CW0 is Uplink control signal number of data bits on the CW1 is

Suppose that this moment, UE chose the more streams of code words of RE number that distribution obtains in two streams of code words, then should select CW0 this moment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=\underset{r=0}{\overset{C^{\left(0\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(0\right)}/N_{\mathrm{RE}}^{\left(0\right)}$

Otherwise suppose that this moment, UE chose the less streams of code words of RE number that distribution obtains in two streams of code words, then should select CW1 this moment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=\underset{r=0}{\overset{C^{\left(1\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(1\right)}/N_{\mathrm{RE}}^{\left(1\right)}$

Then calculate the ascending power size of UE transmission PUSCH among the subframe i according to the method among the embodiment 1.

Embodiment 8-3

What CW0 carried is ascending control information, and what CW1 carried is user uplink data.

Uplink control signal number of data bits on the CW0 is

User data encoding block quantity on the CW1 is C ⁽¹⁾, wherein the coded block size of m encoding block is

Suppose that this moment, UE chose the more streams of code words of RE number that distribution obtains in two streams of code words, then should select CW0 this moment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=O_{\mathrm{CQI}}^{\left(0\right)}/N_{\mathrm{RE}}^{\left(0\right)}$

Otherwise suppose that this moment, UE chose the less streams of code words of RE number that distribution obtains in two streams of code words, then should select CW1 this moment.

Then UE calculates two streams of code words BPRE of equal value of subframe i according to following formula:

$\mathrm{BPRE}=\underset{r=0}{\overset{C^{\left(1\right)}-1}{\mathrm{\Σ}}}{K}_r^{\left(1\right)}/N_{\mathrm{RE}}^{\left(1\right)}$

Then calculate the ascending power size of UE transmission PUSCH among the subframe i according to the method among the embodiment 1.

Embodiment 9, as shown in Figure 3

Provide a kind of user terminal of uplink power control of multiaerial system to comprise: receiving processing module, acquisition module;

Receiving processing module, when being used for the up dicode word flow transmission of UE receiving system configuration, the carrying bit number of two streams of code words of described UE transmission and the RE quantity of two streams of code words;

Or described UE sends the system signaling indication by predefined rules selection mode or reception eNB and is configured selection;

Acquisition module is used for the BPRE of equal value by the corresponding two streams of code words of BPRE acquisition of two streams of code words;

Wherein, described BPRE of equal value is the bits of user data quantity sum of up two streams of code words carrying, or control information amount of bits sum, or bits of user data quantity and the control information amount of bits sum RE quantity sum of distributing divided by described up two streams of code words.

Further, described UE sends the system signaling indication by predefined rules selection mode or reception eNB and is configured selection, chooses one of them streams of code words of dicode subflow, and wherein, predefined rule is that system is predefined.

Further, the bits of user data quantity sum of described up two streams of code words carrying, for when described up pair of streams of code words the transmitting user data, the bits of user data quantity of up pair of streams of code words carrying is the coded block size sum of all encoding blocks of the data of corresponding up two streams of code words.The number of data bits of carrying when wherein, up streams of code words is transmitted for the first time.

Further, described control information bit sum, for when described up pair of streams of code words the transmission of control signals, the control signal bit number sum of up pair of streams of code words carrying is the control signal bit number sum of up streams of code words carrying when transmitting for the first time.

Further, described bits of user data and control information amount of bits sum, for working as streams of code words transmitting user data of up pair of streams of code words, during another one codeword transmission control signal, with the bits of user data quantity transmitted in the streams of code words and the amount of bits sum of another one codeword transmission control signal.

Further, the RE quantity sum that described up two streams of code words are distributed, system is the RE quantity sum of its distribution when transmitting for the first time for up pair of streams of code words.

Wherein, described receiving processing module is further, and described UE chooses one of them streams of code words by predefined rules selection mode, and concrete selection mode comprises one of following manner;

Fixedly choose first streams of code words in two streams of code words;

Fixedly choose second streams of code words in two streams of code words;

Select the larger streams of code words of BPRE;

Select the less streams of code words of BPRE;

Select the more streams of code words of carrying bit number;

Select the less streams of code words of carrying bit number;

Select to distribute the more streams of code words of RE number;

Select to distribute the less streams of code words of RE number.

Wherein, described UE can also send the system signaling indication by reception eNB and be configured selection, and concrete signal deployment mode comprises one of following manner;

By high-level signaling, the streams of code words that configuration UE is selected;

By the physical layer dynamic signaling, the streams of code words that notice UE selects;

By high-level signaling, configuration UE is selected streams of code words according to one of above-mentioned predefine rule;

By the physical layer dynamic signaling, configuration UE is selected streams of code words according to one of above-mentioned predefine rule.

After one of them streams of code words of described selection, the preparation method of the BPRE of equal value of two streams of code words is: the BPRE of equal value of two streams of code words equal selecteed streams of code words BPRE L doubly, wherein, L is positive integer.

Further, acquisition module also comprises the parameter determination module, be used for obtaining Delta TF parameter by the BPRE of equal value of described pair of streams of code words, described transformat Delta TF parameter is determined the upward signal power of UE transmit physical Uplink Shared Channel PUSCH among the subframe i.

Above-mentioned Delta TF parameter is 2 BPRE and K _SThe power of product subtract again after 1 and the user data on the PUSCH and the side-play amount of control information

Product

${\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)={10\log }_{10}((2^{\mathrm{BPRE}\·K_s}-1)\·{\mathrm{\β}}_{\mathrm{offset}}^{\mathrm{PUSCH}})$

Wherein, Δ _{TF, c}(i) be Delta TF.

The upward signal power of UE emission PUSCH (Physical Uplink Shared Channel) is one of following formula among above-mentioned definite subframe i

When UE uplink scene is up dicode word flow transmission, the ascending power of the PUSCH of subframe i is the maximum transmitting power that allows of PUSCH and the smaller value of PUSCH rated output on this carrier wave, wherein the rated output of PUSCH by on the resource size of the PUSCH on this carrier wave, this carrier wave do not consider that path loss affects the time minimum emissive power, descending circuit loss value, Delta TF parameter on this carrier wave and the UE close-loop power control parameter on this carrier wave of part path loss penalty coefficient, UE measurement on this carrier wave of UE when satisfying transmission and requiring;

$P_{\mathrm{PUSCH},c}\left(i\right)=\min \left\{\begin{array}{c}{P}_{\mathrm{CMAX},c}\left(i\right),\\ {10\log }_{10}\left(M_{\mathrm{PUSCH},c}\left(i\right)\right)+P_{O\_\mathrm{PUSCH},c}\left(j\right)+{\mathrm{\α}}_c\left(j\right)\·{\mathrm{PL}}_c+{\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)+f_c\left(i\right)\end{array}\right\}$ Or;

When UE uplink scene is when having configured PUSCH and PUCCH in up dicode word flow transmission and the up-link carrier and transmitting simultaneously, the ascending power of the PUSCH of subframe i is the difference of the transmitting power of the maximum transmitting power that allows of PUSCH and PUCCH on this carrier wave and the smaller value of PUSCH rated output, and wherein the rated output of PUSCH is by the resource size of the PUSCH on this carrier wave, the minimum emissive power of UE when not considering on this carrier wave satisfies transmission and require when path loss affects, part path loss penalty coefficient on this carrier wave, the descending circuit loss value that UE measures, Delta TF parameter on this carrier wave and the UE close-loop power control parameter on this carrier wave;

$P_{\mathrm{PUSCH},c}\left(i\right)=\min \left\{\begin{array}{c}{10\log }_{10}({\hat{P}}_{\mathrm{CMAX},c}\left(i\right)-{\hat{P}}_{\mathrm{PUCCH}}\left(i\right)),\\ {10\log }_{10}\left(M_{\mathrm{PUSCH},c}\left(i\right)\right)+P_{O\_\mathrm{PUSCH},c}\left(j\right)+{\mathrm{\α}}_c\left(j\right)\·{\mathrm{PL}}_c+{\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)+f_c\left(i\right)\end{array}\right\}.$

The above is the preferred embodiments of the present invention only, is not limited to the present invention, and for a person skilled in the art, the present invention can have various modifications and variations.Within the spirit and principles in the present invention all, any modification of doing, be equal to replacement, improvement etc., all should be included within protection scope of the present invention.

Claims (23)

1. the ascending power control method of a multiaerial system is characterized in that, comprising:

When user terminal UE was configured to up dicode word flow transmission, described UE used the carrying bit number of two streams of code words and the Resource Unit RE quantity of two streams of code words, obtained of equal value every Resource Unit carrying bit number BPRE of corresponding two streams of code words; Wherein, described BPRE of equal value is the bits of user data quantity sum of up two streams of code words carrying, or control information amount of bits sum, or bits of user data quantity and the control information amount of bits sum RE quantity sum of distributing divided by described up two streams of code words;

Perhaps; UE sends the system signaling indication by predetermined selection mode or reception eNB and is configured selection, obtains the BPRE of equal value of the corresponding two streams of code words of BPRE of two streams of code words.

2. method according to claim 1, it is characterized in that, the method obtains Delta TF parameter by the BPRE of equal value of described pair of streams of code words, and described transformat Delta TF parameter is determined the upward signal power of UE transmit physical Uplink Shared Channel PUSCH among the subframe i.

3. method according to claim 1, it is characterized in that, the bits of user data quantity sum of described up two streams of code words carrying, for when described up pair of streams of code words the transmitting user data, the bits of user data quantity of up pair of streams of code words carrying is the coded block size sum of all encoding blocks of the data of corresponding up two streams of code words.The number of data bits of carrying when wherein, up streams of code words is transmitted for the first time.

4. method according to claim 1, it is characterized in that, described control information bit sum, for when described up pair of streams of code words the transmission of control signals, the control signal bit number sum of up pair of streams of code words carrying is the control signal bit number sum of up streams of code words carrying when transmitting for the first time.

5. method according to claim 1, it is characterized in that, described bits of user data and control information amount of bits sum, for working as streams of code words transmitting user data of up pair of streams of code words, during another one codeword transmission control signal, the bits of user data quantity of transmitting in streams of code words and the amount of bits sum of another one codeword transmission control signal.

6. method according to claim 1 is characterized in that, the RE quantity sum that described up two streams of code words are distributed, and system is the RE quantity sum of its distribution when transmitting for the first time for up pair of streams of code words.

7. method according to claim 2, it is characterized in that, the of equal value BPRE of described the method by described pair of streams of code words obtains Delta TF parameter and be specially: the power of 2 BPRE and the product of KS subtracts after 1 and the user data on the PUSCH and the side-play amount of control information again

Product

${\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)={10\log }_{10}((2^{\mathrm{BPRE}\·K_s}-1)\·{\mathrm{\β}}_{\mathrm{offset}}^{\mathrm{PUSCH}})$

Wherein, Δ _{TF, c}(i) be Delta TF.

8. method according to claim 2 is characterized in that, the upward signal power that obtains described UE emission PUSCH (Physical Uplink Shared Channel) is:

When UE uplink scene is up dicode word flow transmission, the ascending power of the PUSCH of subframe i is the maximum transmitting power that allows of PUSCH and the smaller value of PUSCH rated output on this carrier wave, wherein the rated output of PUSCH by on the resource size of the PUSCH on this carrier wave, this carrier wave do not consider that path loss affects the time minimum emissive power, descending circuit loss value, Delta TF parameter on this carrier wave and the UE close-loop power control parameter on this carrier wave of part path loss penalty coefficient, UE measurement on this carrier wave of UE when satisfying transmission and requiring;

$P_{\mathrm{PUSCH},c}\left(i\right)=\min \left\{\begin{array}{c}{P}_{\mathrm{CMAX},c}\left(i\right),\\ {10\log }_{10}\left(M_{\mathrm{PUSCH},c}\left(i\right)\right)+P_{O\_\mathrm{PUSCH},c}\left(j\right)+{\mathrm{\α}}_c\left(j\right)\·{\mathrm{PL}}_c+{\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)+f_c\left(i\right)\end{array}\right\}$

Or;

When UE uplink scene is when having configured PUSCH and PUCCH in up dicode word flow transmission and the up-link carrier and transmitting simultaneously, the ascending power of the PUSCH of subframe i is the difference of the transmitting power of the maximum transmitting power that allows of PUSCH and PUCCH on this carrier wave and the smaller value of PUSCH rated output, and wherein the rated output of PUSCH is by the resource size of the PUSCH on this carrier wave, the minimum emissive power of UE when not considering on this carrier wave satisfies transmission and require when path loss affects, part path loss penalty coefficient on this carrier wave, the descending circuit loss value that UE measures, Delta TF parameter on this carrier wave and the UE close-loop power control parameter on this carrier wave;

$P_{\mathrm{PUSCH},c}\left(i\right)=\min \left\{\begin{array}{c}{10\log }_{10}({\hat{P}}_{\mathrm{CMAX},c}\left(i\right)-{\hat{P}}_{\mathrm{PUCCH}}\left(i\right)),\\ {10\log }_{10}\left(M_{\mathrm{PUSCH},c}\left(i\right)\right)+P_{O\_\mathrm{PUSCH},c}\left(j\right)+{\mathrm{\α}}_c\left(j\right)\·{\mathrm{PL}}_c+{\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)+f_c\left(i\right)\end{array}\right\}.$

9. method according to claim 1 is characterized in that, the selection mode that described UE determines by predefined rule is chosen one of them streams of code words, and concrete selection mode comprises one of following manner;

Fixedly choose first streams of code words in two streams of code words;

Fixedly choose second streams of code words in two streams of code words;

Select the larger streams of code words of BPRE;

Select the less streams of code words of BPRE;

Select the more streams of code words of carrying bit number;

Select the less streams of code words of carrying bit number;

Select to distribute the more streams of code words of RE number;

Select to distribute the less streams of code words of RE number.

10. method according to claim 1 is characterized in that, described UE can also send the system signaling indication by reception eNB and be configured selection, and concrete signal deployment mode comprises one of following manner;

By high-level signaling, the streams of code words that configuration UE is selected;

By the physical layer dynamic signaling, the streams of code words that notice UE selects;

By high-level signaling, configuration UE is selected streams of code words according to one of above-mentioned predefine rule;

By the physical layer dynamic signaling, configuration UE is selected streams of code words according to one of above-mentioned predefine rule.

11. described either method is characterized in that according to claim 9-10, after certain streams of code words of described selection, the preparation method of the BPRE of equal value of two streams of code words can be one of following manner:

The BPRE of equal value of two streams of code words equal selecteed streams of code words BPRE L doubly;

Wherein L is positive number.

12. the user terminal of the uplink power control of a multiaerial system is characterized in that, comprises receiving processing module, acquisition module;

Receiving processing module, when being used for the up dicode word flow transmission of UE receiving system configuration, the carrying bit number of two streams of code words of described UE transmission and the RE quantity of two streams of code words;

Or described UE sends the system signaling indication by predefined rules selection mode or reception eNB and is configured selection;

Acquisition module is used for the BPRE of equal value by the corresponding two streams of code words of BPRE acquisition of two streams of code words;

Wherein, described BPRE of equal value is the bits of user data quantity sum of up two streams of code words carrying, or control information amount of bits sum, or bits of user data quantity and the control information amount of bits sum RE quantity sum of distributing divided by described up two streams of code words.

13. user terminal according to claim 12 is characterized in that, described UE sends the system signaling indication by predefined rules selection mode or reception eNB and is configured selection, chooses one of them streams of code words of dicode subflow.

14. user terminal according to claim 12, it is characterized in that, the bits of user data quantity sum of described up two streams of code words carrying, for when described up pair of streams of code words the transmitting user data, the bits of user data quantity of up pair of streams of code words carrying is the coded block size sum of all encoding blocks of the data of corresponding up two streams of code words.The number of data bits of carrying when wherein, up streams of code words is transmitted for the first time.

15. user terminal according to claim 12, it is characterized in that, described control information bit sum, for when described up pair of streams of code words the transmission of control signals, the control signal bit number sum of up pair of streams of code words carrying is the control signal bit number sum of up streams of code words carrying when transmitting for the first time.

16. user terminal according to claim 12, it is characterized in that, described bits of user data and control information amount of bits sum, for working as streams of code words transmitting user data of up pair of streams of code words, during another one codeword transmission control signal, with the bits of user data quantity transmitted in the streams of code words and the amount of bits sum of another one codeword transmission control signal.

17. user terminal according to claim 12 is characterized in that, the RE quantity sum that described up two streams of code words are distributed, and system is the RE quantity sum of its distribution when transmitting for the first time for up pair of streams of code words.

18. user terminal according to claim 12 is characterized in that, described UE chooses one of them streams of code words by predefined rules selection mode, and concrete selection mode comprises one of following manner;

Fixedly choose first streams of code words in two streams of code words;

Fixedly choose second streams of code words in two streams of code words;

Select the larger streams of code words of BPRE;

Select the less streams of code words of BPRE;

Select the more streams of code words of carrying bit number;

Select the less streams of code words of carrying bit number;

Select to distribute the more streams of code words of RE number;

Select to distribute the less streams of code words of RE number.

19. user terminal according to claim 12 is characterized in that, described UE can also send the system signaling indication by reception eNB and be configured selection, and concrete signal deployment mode comprises one of following manner;

By high-level signaling, the streams of code words that configuration UE is selected;

By the physical layer dynamic signaling, the streams of code words that notice UE selects;

By high-level signaling, configuration UE is selected streams of code words according to one of above-mentioned predefine rule;

By the physical layer dynamic signaling, configuration UE is selected streams of code words according to one of above-mentioned predefine rule.

20. described user terminal is characterized in that according to claim 18-19, after one of them streams of code words of described selection, the preparation method of the BPRE of equal value of two streams of code words is:

The BPRE of equal value of two streams of code words equal selecteed streams of code words BPRE L doubly, wherein, L is positive number.

21. user terminal according to claim 12, it is characterized in that, acquisition module also comprises the parameter determination module, be used for obtaining Delta TF parameter by the BPRE of equal value of described pair of streams of code words, described transformat Delta TF parameter is determined the upward signal power of UE transmit physical Uplink Shared Channel PUSCH among the subframe i.

22. user terminal according to claim 21 is characterized in that, described Delta TF parameter is that the power of the product of 2 BPRE and KS subtracts after 1 and the user data on the PUSCH and the side-play amount of control information again

Product

${\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)={10\log }_{10}((2^{\mathrm{BPRE}\·K_s}-1)\·{\mathrm{\β}}_{\mathrm{offset}}^{\mathrm{PUSCH}})$

Wherein, Δ _{TF, c}(i) be Delta TF.

23. user terminal according to claim 21 is characterized in that, the upward signal power of UE emission PUSCH (Physical Uplink Shared Channel) is one of following formula among described definite subframe i

When UE uplink scene is up dicode word flow transmission, the ascending power of the PUSCH of subframe i is the maximum transmitting power that allows of PUSCH and the smaller value of PUSCH rated output on this carrier wave, wherein the rated output of PUSCH by on the resource size of the PUSCH on this carrier wave, this carrier wave do not consider that path loss affects the time minimum emissive power, descending circuit loss value, Delta TF parameter on this carrier wave and the UE close-loop power control parameter on this carrier wave of part path loss penalty coefficient, UE measurement on this carrier wave of UE when satisfying transmission and requiring;

$P_{\mathrm{PUSCH},c}\left(i\right)=\min \left\{\begin{array}{c}{P}_{\mathrm{CMAX},c}\left(i\right),\\ {10\log }_{10}\left(M_{\mathrm{PUSCH},c}\left(i\right)\right)+P_{O\_\mathrm{PUSCH},c}\left(j\right)+{\mathrm{\α}}_c\left(j\right)\·{\mathrm{PL}}_c+{\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)+f_c\left(i\right)\end{array}\right\}$

Or;

When UE uplink scene is when having configured PUSCH and PUCCH in up dicode word flow transmission and the up-link carrier and transmitting simultaneously, the ascending power of the PUSCH of subframe i is the difference of the transmitting power of the maximum transmitting power that allows of PUSCH and PUCCH on this carrier wave and the smaller value of PUSCH rated output, and wherein the rated output of PUSCH is by the resource size of the PUSCH on this carrier wave, the minimum emissive power of UE when not considering on this carrier wave satisfies transmission and require when path loss affects, part path loss penalty coefficient on this carrier wave, the descending circuit loss value that UE measures, Delta TF parameter on this carrier wave and the UE close-loop power control parameter on this carrier wave;

$P_{\mathrm{PUSCH},c}\left(i\right)=\min \left\{\begin{array}{c}{10\log }_{10}({\hat{P}}_{\mathrm{CMAX},c}\left(i\right)-{\hat{P}}_{\mathrm{PUCCH}}\left(i\right)),\\ {10\log }_{10}\left(M_{\mathrm{PUSCH},c}\left(i\right)\right)+P_{O\_\mathrm{PUSCH},c}\left(j\right)+{\mathrm{\α}}_c\left(j\right)\·{\mathrm{PL}}_c+{\mathrm{\Δ}}_{\mathrm{TF},c}\left(i\right)+f_c\left(i\right)\end{array}\right\}.$

Images