CN101778475A - Hopping resource allocation method and device - Google Patents

Abstract

The invention discloses a hopping resource allocation method and device, relating to the technical field of communication and solving the problem that the receiving terminals can not obtain diversity gain of the frequency domain of inter sub-band hopping during every retransmission and first transmission in the prior art. The method comprises the following steps: firstly obtaining the current times of transmission of the data sub-frames or slots; then computing the inter sub-band hopping parameter and/or intra sub-band hopping parameter in each resource block in the data sub-frames or slots according to the current times of transmission; and determining the hopping band of each resource block in the data sub-frames or slots according to the inter sub-band hopping parameter and/or intra sub-band hopping parameter. The embodiment of the invention is mainly used in the wireless communication systems, especially the LTE system in 3GPP (3rd Generation Partnership Project), such as TDD system or FDD system.

Description

Frequency hopping resource allocation method and device

Technical field

The present invention relates to communication system, relate in particular to frequency hopping resource allocation method and device in the communication system.

Background technology

At third generation partner program (3rd Generation Partnership Project, 3GPP) Long Term Evolution (Long Term Evolution, LTE) Ji Hua FDD (Frequency Division Duplex, frequency division multiplexing) in the system, a radio frames comprises 10 subframes (sub-frame), the duration (sub-frame) that subframe takies is 1ms, and is divided into two time slots (slot).(Resource Block RB) takies the duration of a time slot on time domain for Resource Block.Owing to there is the situation of frequency division multiplexing, in the duration of a time slot, can tell a lot of Resource Block according to the difference of place frequency range, generally speaking, the interior Resource Block of time slot duration can number consecutively nVRB be 0,1 by frequency range from low to high,

Wherein

It is the RB number of up-link bandwidth correspondence.

Existing frequency hopping mainly comprises between frequency hopping between subframe (inter sub-frame hopping) and subframe and the interior frequency hopping (intra and inter sub-frame hopping) of subframe among the 3GPP.Specifically see Fig. 1 and Fig. 2, wherein, shown in Figure 1 is the schematic diagram of frequency hopping between subframe, that is: can adopt different frequencies to communicate in same transmission link between the different subframes; Fig. 2 is the schematic diagram of frequency hopping between interior frequency hopping of subframe and subframe, that is: can adopt different frequencies to communicate in same transmission link between the different subframes, and different time-gap also can adopt different frequencies to communicate in the same subframe.

The frequency-hopping method of type 2 is as follows:

In the 3GPP system, the Resource Block in the physics frequency range is assigned in a plurality of subbands fifty-fifty, the RB number in each subband Account form is as follows:

Wherein, N _SbBe the subband number of up-link bandwidth correspondence,

Be the RB number of up-link bandwidth correspondence,

It is the bias of PUSCH (Physical Uplink Shared Channel) frequency hopping.

No matter be frequency hopping between interior frequency hopping of subframe or subframe, during communication frequency after calculating each time slot or subframe frequency hopping, mainly can adopt the intersubband frequency hopping or/and the mirror image frequency hopping in the subband, and can calculate the numbering of Resource Block in subband after each time slot or the subframe frequency hopping by following frequency hopping formula

${\tilde{n}}_{\mathrm{PRB}}\left(n_s\right)=({\tilde{n}}_{\mathrm{VRB}}+f_{\mathrm{hop}}\left(i\right)\·N_{\mathrm{RB}}^{\mathrm{sb}}+((N_{\mathrm{RB}}^{\mathrm{sb}}-1)-2\left({\tilde{n}}_{\mathrm{VRB}}\mathrm{mod}{N}_{\mathrm{RB}}^{\mathrm{sb}}\right))\·f_m\left(i\right))\mathrm{mod}(N_{\mathrm{RB}}^{\mathrm{sb}}\·N_{\mathrm{sb}})$

Wherein, n _sBe the time-gap number of a radio frames the inside, numbering is from 0～19; f _Hop(i) be the formula of intersubband frequency hopping, f _m(i) be the interior mirror image frequency hopping formula of subband; I is the numbering of output time, wherein i and n _sRelation as follows:

From i and n _sRelation as can be seen, when adopting between subframe frequency hopping, i just is the subframe numbers of a radio frames the inside, corresponding span puppet 0～9, in adopting subframe/frequency hopping, i is exactly the timeslot number of a radio frames the inside, corresponding span is 0～19.

Aforementioned calculation

Formula in n _VRBBe the RB numbering that terminal distribution is given in the base station, wherein n _VRBWith

Between relation as follows:

The formula f of above-mentioned intersubband frequency hopping _Hop(i) specific as follows:

$f_{\mathrm{hop}}\left(i\right)=\left\{\begin{array}{cc}0& N_{\mathrm{sb}}=1\\ (f_{\mathrm{hop}}(i-1)+1)\mathrm{mod}{N}_{\mathrm{sb}}& N_{\mathrm{sb}}=2\\ (f_{\mathrm{hop}}(i-1)+(\underset{k=i\·10+1}{\overset{i\·10+9}{\mathrm{\Σ}}}c\left(k\right)\×2^{k-(i\·10+1)})\mathrm{mod}(N_{\mathrm{sb}}-1)+1)\mathrm{mod}{N}_{\mathrm{sb}}& N_{\mathrm{sb}}>2\end{array}\right.$ (formula 5)

Wherein, f _Hop(1)=0.

Above-mentioned image frequency hopping formula f _m(i) specific as follows:

$f_m\left(i\right)=\left\{\begin{array}{cc}i\mathrm{mod}2& N_{\mathrm{sb}}=1\mathrm{and\; intra\; and\; inter}-\mathrm{subframe\; hopping}\\ \mathrm{CURRENT}\_\mathrm{TX}\_\mathrm{NB}\mathrm{mod}2& N_{\mathrm{sb}}=1\mathrm{and\; inter}-\mathrm{subframe\; hopping}\\ c(i\·10)& N_{\mathrm{sb}}>1\end{array}\right.$

Wherein, CURRENT_TX_NB is the current the number of transmissions of a HARQ process, if the transmission first time, CURRENT_TX_NB=0 so; C (i10) is a pseudo random sequence, and concrete formula is as follows:

c(n)＝(x ₁(n+N _C)+x ₂(n+N _C))mod2

x ₁(n+31)＝(x ₁(n+3)+x ₁(n))mod2

x ₂(n+31)＝(x ₂(n+3)+x ₂(n+2)+x ₂(n+1)+x ₂(n))mod2

Wherein, N _C=1600, first sequence initialization value is x ₁(0)=1, x ₁(n)=0, n=1,2 ..., 30. the 2nd sequence initialization values are

Be sub-district ID.

State in realization in the process of hopping scheme, the inventor finds that there are the following problems at least in the prior art:

For winding time (Round Trip Time, RRT) be 10ms up-downgoing proportion relation, because RTT is 10ms, that is to say the k time of HARQ process transmission and transmit for the k+1 time between the time interval be 10ms, this time span just is the time span of a radio frames, and the i when being equivalent at every turn transmit in the frequency hopping formula is identical.By the formula of top intersubband frequency hopping and mirror image frequency hopping formula as can be known, for N _SbUnder＞1 the situation, no matter adopt the intersubband frequency hopping still to adopt the mirror image frequency hopping, if the i when transmitting in the frequency hopping formula is identical at every turn, the frequency of each subframe or time slot correspondence is identical in the time of will causing transmitting at every turn, thereby causes receiving terminal can not obtain each the re-transmission and the frequency diversity gain of the intersubband frequency hopping of transmission first.

Summary of the invention

Embodiments of the invention provide a kind of frequency hopping resource allocation method and device, make receiving terminal can obtain each the re-transmission and the frequency diversity gain of the intersubband frequency hopping of transmission first.

For achieving the above object, embodiments of the invention adopt following technical scheme:

A kind of frequency hopping resource allocation method comprises:

Obtain the current the number of transmissions of data burst or time slot;

Calculate frequency parameter in the intersubband frequency parameter of each Resource Block in described data burst or the time slot and/or the subband according to described current the number of transmissions;

Determine the frequency hopping frequency range of each Resource Block in described data burst or the time slot according to frequency parameter in described intersubband frequency parameter and/or the subband.

For achieving the above object, embodiments of the invention adopt following technical scheme:

A kind of frequency-hopping resource distributor comprises:

Acquiring unit is used to obtain the current the number of transmissions of data burst or time slot;

Computing unit is used for calculating frequency parameter in the intersubband frequency parameter of described data burst or each Resource Block of time slot and/or the subband according to described current the number of transmissions;

Processing unit is used for determining according to frequency parameter in described intersubband frequency parameter and/or the subband frequency hopping frequency range of described data burst or each Resource Block of time slot.

For achieving the above object, embodiments of the invention adopt following technical scheme:

A kind of frequency hopping resource allocation method comprises:

Parameter when obtaining the striding of data burst or time slot, parameter is specially current System Frame Number during wherein said striding, and perhaps is specially the odd even attribute of current System Frame Number;

Frequency parameter in the intersubband frequency parameter of each Resource Block and/or the subband in described data burst of calculation of parameter or the time slot during according to described striding;

Determine the frequency hopping frequency range of each Resource Block in described data burst or the time slot according to frequency parameter in described intersubband frequency parameter and/or the subband.

For achieving the above object, embodiments of the invention adopt following technical scheme:

A kind of frequency-hopping resource distributor comprises:

Acquiring unit, parameter when being used to obtain the striding of data burst or time slot, parameter is specially current System Frame Number during wherein said striding, perhaps the odd even attribute of current System Frame Number;

Computing unit, frequency parameter in the intersubband frequency parameter of the described data burst of calculation of parameter or each Resource Block of time slot and/or the subband when being used for according to described striding;

Processing unit is used for determining according to frequency parameter in described intersubband frequency parameter and/or the subband frequency hopping frequency range of described data burst or each Resource Block of time slot.

Frequency hopping resource allocation method that the embodiment of the invention provides and device, the interior frequency parameter of the intersubband frequency parameter of each Resource Block and/or subband is according to current the number of transmissions in data burst or the time slot, current System Frame Number, perhaps the odd even property calculation of current System Frame Number is come out, if the current the number of transmissions of data burst or time slot, current System Frame Number, the perhaps odd even attribute difference of current System Frame Number, frequency parameter also can there are differences in intersubband frequency parameter that then calculates and/or the subband, so also can be different according to the determined frequency hopping frequency range of frequency parameter in intersubband frequency parameter and/or the subband, and then there is some difference when each the re-transmission to make the frequency hopping frequency range of some data bursts or each Resource Block of time slot.The frequency of each subframe or time slot correspondence is that there is some difference when that is to say each the transmission, as long as the frequency of correspondence there are differences during each the transmission, the data that can not correctly receive when then receiving terminal transmits in front might be correct receptions in this transmission just, improve the efficient of this data re-transmission success, also made receiving terminal can obtain each the re-transmission and the frequency diversity gain of the intersubband frequency hopping of transmission first.

Description of drawings

In order to be illustrated more clearly in the embodiment of the invention or technical scheme of the prior art, to do to introduce simply to the accompanying drawing of required use in embodiment or the description of the Prior Art below, apparently, accompanying drawing in describing below only is some embodiments of the present invention, for those of ordinary skills, under the prerequisite of not paying creative work, can also obtain other accompanying drawing according to these accompanying drawings.

Fig. 1 is the schematic diagram of prior art neutron interframe frequency hopping;

Fig. 2 is the schematic diagram of frequency hopping in prior art neutron interframe frequency hopping and the subframe;

Fig. 3 is the flow chart of frequency hopping resource allocation method in the embodiment of the invention;

Fig. 4 is the block diagram of frequency-hopping resource distributor in the embodiment of the invention;

Fig. 5 is the flow chart of frequency hopping resource allocation method in the embodiment of the invention 1;

Fig. 6 is the schematic diagram of the embodiment of the invention 1 neutron interframe frequency hopping;

Fig. 7 is the flow chart of frequency hopping resource allocation method in the embodiment of the invention 2;

Fig. 8 is the schematic diagram of frequency hopping in the embodiment of the invention 2 neutron interframe frequency hoppings and the subframe;

Fig. 9 is the block diagram of a kind of frequency-hopping resource distributor in the embodiment of the invention 3;

Figure 10 is the block diagram of another kind of frequency-hopping resource distributor in the embodiment of the invention 3;

Figure 11 is the flow chart of embodiment frequency hopping resource allocation method for the present invention;

Figure 12 is the flow chart of a kind of frequency hopping resource allocation method in the embodiment of the invention 4;

Figure 13 is the flow chart of the frequency hopping resource allocation method after a kind of quick switching in the embodiment of the invention 5.；

Figure 14 is the block diagram of frequency-hopping resource distributor in the embodiment of the invention.

Embodiment

The embodiment of the invention provides a kind of frequency hopping resource allocation method, and as shown in Figure 3, this method comprises:

301, obtain the current the number of transmissions of data burst or time slot, transmit data burst or time slot for the first time in general, current the number of transmissions value is 0, each later on these data that retransmit, and then the current the number of transmissions with these data adds 1 successively.

302, calculate frequency parameter in the intersubband frequency parameter of each Resource Block in described data burst or the time slot and/or the subband according to described current the number of transmissions.

303, in order to obtain the concrete frequency range that adopts of each Resource Block, determine the frequency hopping frequency range of each Resource Block in described data burst or the time slot according to frequency parameter in described intersubband frequency parameter and/or the subband, because frequency parameter is influenced by current the number of transmissions in intersubband frequency parameter and/or the subband, so the last frequency hopping frequency range of determining is also relevant with current the number of transmissions, when making each data retransmission, each subframe in the Frame or the frequency range that time slot adopted can there are differences because of the difference of current the number of transmissions.

Also a kind of frequency-hopping resource distributor of the embodiment of the invention, as shown in Figure 4, this device comprises: acquiring unit 41, computing unit 42 and processing unit 43.

Wherein, acquiring unit 41 is used to obtain the current the number of transmissions of data burst or time slot; Computing unit 42 is used for calculating frequency parameter in the intersubband frequency parameter of described data burst or each Resource Block of time slot and/or the subband according to described current the number of transmissions; Processing unit 43 is used for determining according to frequency parameter in described intersubband frequency parameter and/or the subband frequency hopping frequency range of described data burst or each Resource Block of time slot.

By foregoing description as can be known, during each data retransmission, each subframe in data burst or the time slot or the frequency range that time slot adopted can there are differences because of the difference of current the number of transmissions, the data that can not correctly receive when then receiving terminal transmits in front might be correct receptions in this transmission just, improve the efficient of data re-transmission success, also made receiving terminal can obtain each the re-transmission and the frequency diversity gain of the intersubband frequency hopping of transmission first.

Below in conjunction with the accompanying drawing in the embodiment of the invention, the technical scheme in the embodiment of the invention is clearly and completely described, obviously, described embodiment only is the present invention's part embodiment, rather than whole embodiment.Based on the embodiment among the present invention, those of ordinary skills belong to the scope of protection of the invention not making the every other embodiment that is obtained under the creative work prerequisite.

Embodiment 1:

Frequency-hopping mode between subframe is adopted in the hypothesis sub-district in the embodiment of the invention, that is: different subframes can adopt different frequency ranges in Frame, but two time slots in the same subframe are identical frequency ranges.If the Resource Block sum that is comprised in each time slot in the up-link bandwidth

And the sub band number Nsb=4 that each time slot marks off, the bias of PUSCH frequency hopping

Can calculate the number of RB in each subband according to following formula

Last result of calculation is

The embodiment of the invention provides a kind of frequency hopping resource allocation method, can handle but is not limited to the distribution of frequency-hopping resource under the said circumstances, and as shown in Figure 5, this method comprises:

501, obtain the current the number of transmissions of data burst, transmit data for the first time in general, current the number of transmissions CURRENT_TX_NB value is 0, each later on these data that retransmit, and then the current the number of transmissions with these data adds 1 successively.

Represent subframe numbers in this Frame with i in the present embodiment, and calculate since 0.Suppose that in transmission (CURRENT_TX_NB=0) first the base station is that numbering i is that 3 Resource Block is n in this subframe of terminal distribution _VRB(3)={ 3,4}, present embodiment is serving as that for the second time to transmit these data (CURRENT_TX_NB=1) be example in this case, suppose that winding time RTT is 10ms, the subframe numbers i of CURRENT_TX_NB=1 correspondence also is 3 so, and being presented in subframe numbers i in detail is the resource block assignments process of 3 (CURRENT_TX_NB=1).

502, need simultaneously in the embodiment of the invention to calculate frequency parameter in intersubband frequency parameter and the subband, and specifically described current the number of transmissions is carried out frequency hopping calculation of parameter in intersubband frequency parameter and the subband as operational factor according to current the number of transmissions.

Below the in detail concrete process of calculating frequency parameter in intersubband frequency parameter and the subband:

The first, adopt following formula to carry out intersubband frequency parameter f _Hop(3) calculate:

$f_{\mathrm{hop}}\left(i\right)=\left\{\begin{array}{cc}0& N_{\mathrm{sb}}=1\\ (f_{\mathrm{hop}}(i-1)+1+\mathrm{CURRENT}\_\mathrm{TX}\_\mathrm{NB})\mathrm{mod}{N}_{\mathrm{sb}}& N_{\mathrm{sb}}=2\\ (f_{\mathrm{hop}}(i-1)+(\underset{k=j\·10+1}{\overset{j\·10+9}{\mathrm{\Σ}}}c\left(k\right)\×2^{k-(j\·10+1)})\mathrm{mod}(N_{\mathrm{sb}}-1)+1)\mathrm{mod}{N}_{\mathrm{sb}}& N_{\mathrm{sb}}>2\end{array}\right.$

Wherein CURRENT_TX_NB represents current the number of transmissions, and the CURRENT_TX_NB value is 1 in the present embodiment, j=i+CURRENT_TX_NB=3+1=4.

By the aforementioned calculation formula as can be known, be 1 o'clock in sub band number, all intersubband frequency parameter f _Hop(i) all value is 0; When sub band number is 2, pass through f _Hop(i)=(f _Hop(i-1)+1+CURRENT_TX_NB) mod2 carries out intersubband frequency parameter f _Hop(i) calculating, wherein, f _Hop(1)=0; As sub band number N _SbSurpass at 2 o'clock, can pass through

Carry out intersubband frequency parameter f _Hop(i) calculating, wherein, c (k) is a pseudo random sequence, and f _Hop(1)=0.

Because the sub band number N in the present embodiment _SbBe 4, so, need to adopt following formula to calculate f _Hop(i):

$f_{\mathrm{hop}}\left(i\right)=(f_{\mathrm{hop}}(i-1)+(\underset{k=j\·10+1}{\overset{j\·10+9}{\mathrm{\Σ}}}c\left(k\right)\×2^{k-(j\·10+1)})\mathrm{mod}(N_{\mathrm{sb}}-1)+1)\mathrm{mod}{N}_{\mathrm{sb}}$

C wherein (k) is a pseudo random sequence, and concrete formula is as follows:

c(n)＝(x ₁(n+N _C)+x ₂(n+N _C))mod2

x ₁(n+31)＝(x ₁(n+3)+x ₁(n))mod2

x ₂(n+31)＝(x ₂(n+3)+x ₂(n+2)+x ₂(n+1)+x ₂(n))mod2

Wherein, N _C=1600, first sequence initialization value is x ₁(0)=1, x ₁(n)=0, n=1,2 ..., 30. the 2nd sequence initialization values are

For sub-district ID, suppose

Value is that 161. formula according to aforementioned calculation c (k) can obtain:

c(n)＝1 0 1 1 1 1 0 0 0 1 1 1 1 1

0 1 0 1 1 1 1 1 0 1 1 1 1 0

1 0 1 1 1 0 1 1 0 1 0 1 1 0

0 0 1 0 1 1 1 1 1 0 0 1 1 1

1 0 1 0 0 1 1 0 1 1 1 1 0 0

1 1 0 0 1 0 0 1 0 1 0 0 0 0

0 0 0 1 0 1 1 0 0 1 1 0 0 1

0 1…

n＝0，1，2…

Can find c (41) → c (49)=000101111 from the result of calculation of top c (k), so

$(\underset{k=j\&CenterDot;10+1}{\overset{j\&CenterDot;10+9}{\mathrm{\&Sigma;}}}c\left(k\right)\&times;2^{k-(j\&CenterDot;10+1)})\mathrm{mod}(N_{\mathrm{sb}}-1)=(\underset{k=41}{\overset{49}{\mathrm{\&Sigma;}}}c\left(k\right)\&times;2^{k-41})\mathrm{<figure-callout\; id="3"\; label="mod"\; filenames="H2009100033004E0000051.png"\; state="\{\{state\}\}">mod</figure-callout>}3=(2^3{+2}^5+2^6+2^7+2^8)\mathrm{<figure-callout\; id="3"\; label="mod"\; filenames="H2009100033004E0000051.png"\; state="\{\{state\}\}">mod</figure-callout>}3=2$

Then by Can derive f _Hop(i)=(f _Hop(i-1)+2+1) mod4 with this computing formula of relevant parameters substitution, can draw a series of result of calculation, is specially: f _Hop(0)=(f _Hop(1)+2+1) mod4=3, f _Hop(1)=(f _Hop(0)+2+1) mod4=2, f _Hop(2)=(f _Hop(1)+2+1) mod4=1, f _Hop(3)=(f _Hop(2)+2+1) mod4=0.

The second, adopt following formula to carry out frequency hopping parameter f in the subband _m(3) calculate:

$f_m\left(i\right)=\left\{\begin{array}{cc}i\mathrm{mod}2& N_{\mathrm{sb}}=1\mathrm{and\; intra\; and\; inter}-\mathrm{subframe\; hopping}\\ \mathrm{CURRENT}\_\mathrm{TX}\_\mathrm{NB}\mathrm{mod}2& N_{\mathrm{sb}}=1\mathrm{and\; inter}-\mathrm{subframe\; hopping}\\ c(j\&CenterDot;10)& N_{\mathrm{sb}}>1\end{array}\right.$

Wherein CURRENT_TX_NB represents current the number of transmissions, and the CURRENT_TX_NB value is 1 in the present embodiment, j=i+CURRENT_TX_NB=3+1=4.

By the aforementioned calculation formula as can be known, be 1 o'clock in sub band number, frequency hopping parameter f in all subbands _m(i) adopt existing account form; When sub band number greater than 1 the time, pass through f _m(i)=c (j10) carries out frequency hopping parameter f in the subband _m(i) calculating, wherein, c (k) is a pseudo random sequence.

Intersubband frequency parameter process is the same with calculating, and supposes

Value is that 161. formula according to calculating c (k) can obtain:

c(n)＝1 0 1 1 1 1 0 0 0 1 1 1 1 1

0 1 0 1 1 1 1 1 0 1 1 1 1 0

1 0 1 1 1 0 1 1 0 1 0 1 1 0

0 0 1 0 1 1 1 1 1 0 0 1 1 1

1 0 1 0 0 1 1 0 1 1 1 1 0 0

1 1 0 0 1 0 0 1 0 1 0 0 0 0

0 0 0 1 0 1 1 0 0 1 1 0 0 1

0 1…

n＝0，1，2…

So, f _m(3)=c (10 * 4)=1.

503, in order to determine the frequency hopping frequency range of each Resource Block in data burst or the time slot smoothly, can also give the numbering n of terminal distribution according to the base station in the present embodiment _VRBCalculate the numbering of Resource Block in subband

Concrete computing formula is as follows:

Because the base station is that numbering i is that the Resource Block of 3 (CURRENT_TX_NB=0) is n in this Frame of terminal distribution _VRB(3)={ 3,4} can be drawn by above-mentioned formula

504, after finishing above-mentioned computational process, it is the numbering of Resource Block in subband after the subframe frequency hopping of 3 (CURRENT_TX_NB=1) that the following frequency hopping formula of aforementioned calculation substitution is as a result calculated numbering i

${\tilde{n}}_{\mathrm{PRB}}\left(n_s\right)=({\tilde{n}}_{\mathrm{VRB}}+f_{\mathrm{hop}}\left(i\right)\&CenterDot;N_{\mathrm{RB}}^{\mathrm{sb}}+((N_{\mathrm{RB}}^{\mathrm{sb}}-1)-2\left({\tilde{n}}_{\mathrm{VRB}}\mathrm{mod}{N}_{\mathrm{RB}}^{\mathrm{sb}}\right))\&CenterDot;f_m\left(i\right))\mathrm{mod}(N_{\mathrm{RB}}^{\mathrm{sb}}\&CenterDot;N_{\mathrm{sb}})$

Last result of calculation is

With above-mentioned numbering i the numbering of Resource Block in subband after the subframe frequency hopping of 3 (CURRENT_TX_NB=1)

The following formula of substitution, can calculate numbering i is the numbering n of Resource Block on whole physics frequency range after the subframe frequency hopping of 3 (CURRENT_TX_NB=1) _PRB:

Last result of calculation is

This is illustrated in the subframe that is numbered 3 (CURRENT_TX_NB=1) of this Frame, the frequency range that adopts be numbered 6 and 5, concrete frequency hopping schematic diagram is as shown in Figure 6.

502,503 processes among above-mentioned Fig. 5 do not have clear and definite sequencing, and 503 processes of can carrying out are earlier carried out 502 processes again, can 502 and 503 processes carry out simultaneously yet.

Because the embodiment of the invention is when each data retransmission, the frequency range that each subframe in the Frame adopted can there are differences because of the difference of current the number of transmissions, the data that can not correctly receive when then receiving terminal transmits in front might be correct receptions in this transmission just, improve the efficient of this data re-transmission success, also made receiving terminal can obtain each the re-transmission and the frequency diversity gain of the intersubband frequency hopping of transmission first.

Frequency parameter and intersubband frequency parameter all need to utilize current the number of transmissions to calculate in the subband in the present embodiment, when concrete utilization, can be just utilize current the number of transmissions to calculate one of them of frequency parameter in the subband and intersubband frequency parameter, and another frequency parameter adopts other modes to calculate, can guarantee so also to make that the frequency range that each subframe adopted can there are differences because of the difference of current the number of transmissions, and then improve the efficient of this data re-transmission success, also make receiving terminal can obtain each the re-transmission and the frequency diversity gain of the intersubband frequency hopping of transmission first.

Present embodiment can be used in FDD system and TDD (Time Division Duplex, time division multiplexing) system simultaneously, helps simplifying the realization of FDD and TDD system common mode.

The embodiment of the invention can also provide a kind of mode of accommodation to calculate the intersubband frequency parameter, and concrete computing formula is as follows:

$f_{\mathrm{hop}}\left(i\right)=\left\{\begin{array}{cc}0& N_{\mathrm{sb}}=1\\ (f_{\mathrm{hop}}(i-1)+(\underset{k=j\&CenterDot;10+1}{\overset{j\&CenterDot;10+9}{\mathrm{\&Sigma;}}}c\left(k\right)\&times;2^{k-(j\&CenterDot;10+1)})\mathrm{mod}(N_{\mathrm{sb}}-1)+1)\mathrm{mod}{N}_{\mathrm{sb}}& N_{\mathrm{sb}}>1\end{array}\right.$

Wherein CURRENT_TX_NB represents current the number of transmissions, and the CURRENT_TX_NB value is 1 in the present embodiment, j=i+CURRENT_TX_NB=3+1=4.

That is: be 1 o'clock in sub band number, all intersubband frequency parameter f _Hop(i) all value is 0; When sub band number greater than 1 the time, by

Carry out intersubband frequency parameter f _Hop(i) calculating, wherein, c (k) is a pseudo random sequence, and f _Hop(1)=0.

Only need be in the present embodiment with the operational factor of current the number of transmissions as frequency parameter in intersubband frequency parameter and the subband, there is some difference along with the difference of current the number of transmissions can to make the frequency range of determining at last, and then the raising retransmission efficiency, also make receiving terminal can obtain each the re-transmission and the frequency diversity gain of the intersubband frequency hopping of transmission first.

Embodiment 2:

Frequency-hopping mode in the frequency hopping and subframe is adopted between subframe in the hypothesis sub-district in the embodiment of the invention, that is: two time slots in the same subframe can adopt different frequency ranges in Frame, also can adopt different frequency ranges between subframe.If the Resource Block sum that is comprised in each time slot in the up-link bandwidth

And the sub band number N that each time slot marks off _Sb=4, the bias of PUSCH frequency hopping

Can calculate the number of RB in each subband according to following formula

Last result of calculation is

The embodiment of the invention provides a kind of frequency hopping resource allocation method, can handle but is not limited to the distribution of frequency-hopping resource under the said circumstances, and as shown in Figure 7, this method comprises:

701, obtain the current the number of transmissions of data slot, transmit data for the first time in general, current the number of transmissions CURRENT_TX_NB value is 0, each later on these data that retransmit, and then the current the number of transmissions with these data adds 1 successively.

Represent timeslot number (value of every frame i is 0 to 19) in this Frame with i in the present embodiment.Suppose that in transmission (CURRENT_TX_NB=0) first the base station is that the time-gap number i of terminal distribution is that 3 Resource Block is n _VRB(3)={ 3,4}, present embodiment describes the detailed process of distribution in detail to serve as that to transmit for the first time these data (CURRENT_TX_NB=0) be 4 resource block assignments process and to transmit these data (CURRENT_TX_NB=1) for the second time be that 3 and 4 resource block assignments process is an example at timeslot number i at timeslot number i in this case.

702, need simultaneously in the embodiment of the invention to calculate frequency parameter in the subband, and specifically described current the number of transmissions is carried out frequency hopping calculation of parameter in the subband as operational factor according to current the number of transmissions.

Below the in detail concrete process of calculating frequency parameter in the subband, adopt following formula to carry out that frequency hopping parameter f m (3) calculates in the subband:

$f_m\left(i\right)=\left\{\begin{array}{cc}i\mathrm{mod}2& N_{\mathrm{sb}}=1\mathrm{and\; intra\; and\; inter}-\mathrm{subframe\; hopping}\\ \mathrm{CURRENT}\_\mathrm{TX}\_\mathrm{NB}\mathrm{mod}2& N_{\mathrm{sb}}=1\mathrm{and\; inter}-\mathrm{subframe\; hopping}\\ c(i\&CenterDot;10)& N_{\mathrm{sb}}>1\mathrm{for\; FDD}\\ c(\mathrm{CURRENT}\_\mathrm{TX}\_\mathrm{NB}\&CenterDot;10)& N_{\mathrm{sb}}>1\mathrm{for\; TDD}\end{array}\right.$

Wherein CURRENT_TX_NB represents current the number of transmissions, and in the present embodiment, the CURRENT_TX_NB value is 0, is 4 for timeslot number i, j=i+CURRENT_TX_NB=4+0=4.The CURRENT_TX_NB value is 1, is 3 for timeslot number i, and j=i+CURRENT_TX_NB=3+1=4 is 4 for timeslot number i, j=i+CURRENT_TX_NB=4+1=5.

By the aforementioned calculation formula as can be known, be 1 o'clock in sub band number, frequency hopping parameter f in all subbands _m(i) adopt existing account form; When sub band number greater than 1 and when being the TDD system, pass through f _m(i)=c (j10) carries out frequency hopping parameter f in the subband _m(i) calculating, wherein, c (k) is a pseudo random sequence.

The same with the embodiment 1 operator interband frequency parameter process of falling into a trap, suppose Value is that 161. formula according to calculating c (k) can obtain:

c(n)＝1 0 1 1 1 1 0 0 0 1 1 1 1 1

0 1 0 1 1 1 1 1 0 1 1 1 1 0

1 0 1 1 1 0 1 1 0 1 0 1 1 0

0 0 1 0 1 1 1 1 1 0 0 1 1 1

1 0 1 0 0 1 1 0 1 1 1 1 0 0

1 1 0 0 1 0 0 1 0 1 0 0 0 0

0 0 0 1 0 1 1 0 0 1 1 0 0 1

0 1…

n＝0，1，2…

So the CURRENT_TX_NB value is 0, be 4 for timeslot number i, f _m(4)=c (10 * 4)=1.

The CURRENT_TX_NB value is 1, is 3 for timeslot number i, f _m(3)=and c (10 * 4)=1, be 4 for timeslot number i, f _m(4)=c (10 * 5)=0.

703, owing to when definite frequency hopping frequency range, also need to use the intersubband frequency parameter, so present embodiment also need calculate intersubband frequency parameter f according to other modes _Hop(3), concrete formula is:

$f_{\mathrm{hop}}\left(i\right)=\left\{\begin{array}{cc}0& N_{\mathrm{sb}}=1\\ (f_{\mathrm{hop}}(i-1)+1)\mathrm{mod}{N}_{\mathrm{sb}}& N_{\mathrm{sb}}=2\\ (f_{\mathrm{hop}}(i-1)+(\underset{k=i\&CenterDot;10+1}{\overset{i\&CenterDot;10+9}{\mathrm{\&Sigma;}}}c\left(k\right)\&times;2^{k-(i\&CenterDot;10+1)})\mathrm{mod}(N_{\mathrm{sb}}-1)+1)\mathrm{mod}{N}_{\mathrm{sb}}& N_{\mathrm{sb}}>2\end{array}\right.$

By the aforementioned calculation formula as can be known, be 1 o'clock in sub band number, all intersubband frequency parameter f _Hop(i) all value is 0; When sub band number is 2, pass through f _Hop(i)=(f _Hop(i-1)+1) mod2 carries out intersubband frequency parameter f _Hop(i) calculating, wherein, f _Hop(1)=0; As sub band number N _SbSurpass at 2 o'clock, can pass through

Carry out intersubband frequency parameter f _Hop(i) calculating, wherein, c (k) is a pseudo random sequence, and f _Hop(1)=0.

Because the sub band number N in the present embodiment _SbBe 4, so, need to adopt following formula to calculate f _Hop(i):

$f_{\mathrm{hop}}\left(i\right)=(f_{\mathrm{hop}}(i-1)+(\underset{k=i\&CenterDot;10+1}{\overset{i\&CenterDot;10+9}{\mathrm{\&Sigma;}}}c\left(k\right)\&times;2^{k-(i\&CenterDot;10+1)})\mathrm{mod}(N_{\mathrm{sb}}-1)+1)\mathrm{mod}{N}_{\mathrm{sb}}$

The same with the embodiment 1 operator interband frequency parameter situation of falling into a trap, suppose

Value is that 161. formula according to aforementioned calculation c (k) can obtain:

c(n)＝1 0 1 1 1 1 0 0 0 1 1 1 1 1

0 1 0 1 1 1 1 1 0 1 1 1 1 0

1 0 1 1 1 0 1 1 0 1 0 1 1 0

0 0 1 0 1 1 1 1 1 0 0 1 1 1

1 0 1 0 0 1 1 0 1 1 1 1 0 0

1 1 0 0 1 0 0 1 0 1 0 0 0 0

0 0 0 1 0 1 1 0 0 1 1 0 0 1

0 1…

n＝0，1，2…

Can find from the result of calculation of top c (k), the CURRENT_TX_NB value is 0, is 4 for timeslot number i, c (41) → c (49)=000101111, so

$(\underset{k=i\&CenterDot;10+1}{\overset{i\&CenterDot;10+9}{\mathrm{\&Sigma;}}}c\left(k\right)\&times;2^{k-(i\&CenterDot;10+1)})\mathrm{mod}(N_{\mathrm{sb}}-1)=(\underset{k=41}{\overset{49}{\mathrm{\&Sigma;}}}c\left(k\right)\&times;2^{k-41})\mathrm{<figure-callout\; id="3"\; label="mod"\; filenames="H2009100033004E0000051.png"\; state="\{\{state\}\}">mod</figure-callout>}3=(2^3{+2}^5+2^6+2^7+2^8)\mathrm{<figure-callout\; id="3"\; label="mod"\; filenames="H2009100033004E0000051.png"\; state="\{\{state\}\}">mod</figure-callout>}3=2.$

Then by

Can derive f _Hop(i)=(f _Hop(i-1)+2+1) mod4 with this computing formula of relevant parameters substitution, can draw a series of result of calculation, is specially: f _Hop(0)=(f _Hop(1)+2+1) mod4=3, f _Hop(1)=(f _Hop(0)+2+1) mod4=2, f _Hop(2)=(f _Hop(1)+2+1) mod4=1, f _Hop(3)=(f _Hop(2)+2+1) mod4=0, f _Hop(4)=(f _Hop(3)+2+1) mod4=3.

The CURRENT_TX_NB value is 1, is 3 for timeslot number i, c (31) → c (39)=110110101, so

$(\underset{k=i\&CenterDot;10+1}{\overset{i\&CenterDot;10+9}{\mathrm{\&Sigma;}}}c\left(k\right)\&times;2^{k-(i\&CenterDot;10+1)})\mathrm{mod}(N_{\mathrm{sb}}-1)=(\underset{k=31}{\overset{39}{\mathrm{\&Sigma;}}}c\left(k\right)\&times;2^{k-31})\mathrm{<figure-callout\; id="3"\; label="mod"\; filenames="H2009100033004E0000051.png"\; state="\{\{state\}\}">mod</figure-callout>}3=(1+2^1+2^3{+2}^4+2^6+2^8)\mathrm{<figure-callout\; id="3"\; label="mod"\; filenames="H2009100033004E0000051.png"\; state="\{\{state\}\}">mod</figure-callout>}3=2.$

Then by

Can derive f _Hop(i)=(f _Hop(i-1)+2+1) mod4 with this computing formula of relevant parameters substitution, can draw a series of result of calculation, is specially: f _Hop(0)=(f _Hop(1)+2+1) mod4=3, f _Hop(1)=(f _Hop(0)+2+1) mod4=2, f _Hop(2)=(f _Hop(1)+2+1) mod4=1, f _Hop(3)=(f _Hop(2)+2+1) mod4=0.

The CURRENT_TX_NB value is 1, is 4 for timeslot number i, c (41) → c (49)=000101111, so

Then by Can derive f _Hop(i)=(f _Hop(i-1)+2+1) mod4 with this computing formula of relevant parameters substitution, can draw a series of result of calculation, is specially: f _Hop(0)=(f _Hop(1)+2+1) mod4=1, f _Hop(1)=(f _Hop(0)+2+1) mod4=2, f _Hop(2)=(f _Hop(1)+2+1) mod4=3, f _Hop(3)=(f _Hop(2)+2+1) mod4=0, f _Hop(4)=(f _Hop(3)+2+1) mod4=3.

704, in order to determine the frequency hopping frequency range of each Resource Block in the time slot smoothly, can also give the numbering N of terminal distribution according to the base station in the present embodiment _VEBCalculate the numbering of Resource Block in subband

Concrete computing formula is as follows:

Because the base station is that numbering i is that the Resource Block of 3 (CURRENT_TX_NB=0) is n in this Frame of terminal distribution _VRB(3)={ 3,4} can be drawn by above-mentioned formula

705, after finishing above-mentioned computational process, it is the numbering of Resource Block in subband after the time slot frequency hopping of 4 (CURRENT_TX_NB=0) that the following frequency hopping formula of aforementioned calculation substitution is as a result calculated numbering i

${\tilde{n}}_{\mathrm{PRB}}\left(n_s\right)=({\tilde{n}}_{\mathrm{VRB}}+f_{\mathrm{hop}}\left(i\right)\&CenterDot;N_{\mathrm{RB}}^{\mathrm{sb}}+((N_{\mathrm{RB}}^{\mathrm{sb}}-1)-2\left({\tilde{n}}_{\mathrm{VRB}}\mathrm{mod}{N}_{\mathrm{RB}}^{\mathrm{sb}}\right))\&CenterDot;f_m\left(i\right))\mathrm{mod}(N_{\mathrm{RB}}^{\mathrm{sb}}\&CenterDot;N_{\mathrm{sb}})$

Last result of calculation is

With above-mentioned numbering i the numbering of Resource Block in subband after 4 the time slot frequency hopping

The following formula of substitution, can calculate numbering i is the numbering n of Resource Block on whole physics frequency range after 4 the time slot frequency hopping _PRB:

Last result of calculation is

This is illustrated in being numbered in 4 the time slot of this Frame, the frequency range that adopts be numbered 18 and 17.

It is the numbering of Resource Block in subband after the time slot frequency hopping of 3 and 4 (CURRENT_TX_NB=1) that the following frequency hopping formula of aforementioned calculation substitution is as a result calculated numbering i

${\tilde{n}}_{\mathrm{PRB}}\left(n_s\right)=({\tilde{n}}_{\mathrm{VRB}}+f_{\mathrm{hop}}\left(i\right)\&CenterDot;N_{\mathrm{RB}}^{\mathrm{sb}}+((N_{\mathrm{RB}}^{\mathrm{sb}}-1)-2\left({\tilde{n}}_{\mathrm{VRB}}\mathrm{mod}{N}_{\mathrm{RB}}^{\mathrm{sb}}\right))\&CenterDot;f_m\left(i\right))\mathrm{mod}(N_{\mathrm{RB}}^{\mathrm{sb}}\&CenterDot;N_{\mathrm{sb}})$

Last result of calculation is

With above-mentioned numbering i the numbering of Resource Block in subband after 3 and 4 the time slot frequency hopping

The following formula of substitution, can calculate numbering i is the numbering n of Resource Block on whole physics frequency range after 3 and 4 the time slot frequency hopping _PRB:

Last result of calculation is

This is illustrated in being numbered in 3 the time slot of this Frame (CURRENT_TX_NB=1), the frequency range that adopts be numbered 6 and 5, being numbered in 4 the time slot of this Frame (CURRENT_TX_NB=1), the frequency range that adopts be numbered 15 and 16, concrete frequency hopping schematic diagram is as shown in Figure 8.

702,703,704 processes among above-mentioned Fig. 7 do not have clear and definite sequencing, can 702,703 and 704 processes carry out simultaneously, can carry out above-mentioned 702,703,704 processes according to certain sequencing yet.

Because the embodiment of the invention is when each data retransmission, the frequency range that each time slot in the Frame adopted can there are differences because of the difference of current the number of transmissions, the data that can not correctly receive when then receiving terminal transmits in front might be correct receptions in this transmission just, improve the efficient of this data re-transmission success, also made receiving terminal can obtain each the re-transmission and the frequency diversity gain of the intersubband frequency hopping of transmission first.

In the present embodiment only at sub band number in the TDD system greater than 1 situation, frequency hopping formula in the subband is revised, be applicable to the efficient that in the TDD system, improves this data re-transmission success, also make receiving terminal can obtain each the re-transmission and the frequency diversity gain of the intersubband frequency hopping of transmission first.

When practice, the formula of frequency parameter can also carry out accommodation in the aforementioned calculation subband, for example, adopts following formula to calculate:

$f_m\left(i\right)=\left\{\begin{array}{cc}i\mathrm{mod}2& N_{\mathrm{sb}}=1\mathrm{and\; intra\; and\; inter}-\mathrm{subframe\; hopping}\\ \mathrm{CURRENT}\_\mathrm{TX}\_\mathrm{NB}\mathrm{mod}2& N_{\mathrm{sb}}=1\mathrm{and\; inter}-\mathrm{subframe\; hopping}\\ c(i\&CenterDot;10)& N_{\mathrm{sb}}>1\\ c(\left(\mathrm{CURRENT}\_\mathrm{TX}\_\mathrm{NB}+i\right)\&CenterDot;10)& N_{\mathrm{sb}}>1\left(\mathrm{only\; for\; TDD}\right)\end{array}\right.$

Wherein, CUURRENT_TX_NB is current the number of transmissions.

The frequency hopping frequency range that the aforementioned calculation mode draws at last, also can make the frequency range that each time slot adopted there are differences because of the difference of current the number of transmissions, the data that can not correctly receive when then receiving terminal transmits in front might be correct receptions in this transmission just, improve the efficient of this data re-transmission success, also made receiving terminal can obtain each the re-transmission and the frequency diversity gain of the intersubband frequency hopping of transmission first.

The computing formula that is adopted among the foregoing description 1 and the embodiment 2 both can be used between subframe and calculate under the frequency-hopping mode, also can be used between subframe with under the interior frequency-hopping mode of subframe to calculate.Frequency parameter and intersubband frequency parameter are not defined as the computing formula among the foregoing description 1 and the embodiment 2 in the present embodiment subband, can also adopt other flexible formula, only need be in calculating subband add current the number of transmissions in the computing of frequency parameter and intersubband frequency parameter and get final product as operational factor.

Embodiment 3:

Also a kind of frequency-hopping resource distributor of the embodiment of the invention, as shown in Figure 9, this device comprises: acquiring unit 91, computing unit 92 and processing unit 93.

Wherein, acquiring unit 91 is used to obtain the current the number of transmissions of data burst or time slot; Computing unit 92 is used for calculating frequency parameter in the intersubband frequency parameter of described data burst or each Resource Block of time slot and/or the subband according to described current the number of transmissions; Processing unit 93 is used for determining according to frequency parameter in described intersubband frequency parameter and/or the subband frequency hopping frequency range of described data burst or each Resource Block of time slot.

Aforementioned calculation unit 92 carries out the intersubband frequency parameter with described current the number of transmissions as operational factor and calculates, and computing unit 92 carries out frequency hopping calculation of parameter in the subband with described current the number of transmissions as operational factor.The computing formula that concrete computing unit 92 is adopted can referring to but the formula that provided among embodiment 1 and the embodiment 2 is provided.

Particularly, as shown in Figure 9, described computing unit 92 is carrying out the intersubband frequency parameter when calculating, and can adopt but is not limited to following implementation:

The first, computing unit 92 comprises first computing module 921, and the subband number that this first computing module 921 is used in the up-link bandwidth is 2 o'clock, and the formula that carries out the calculating of intersubband frequency parameter is: f _Hop(i)=(f _Hop(i-1)+1+CURRENT_TX_NB) mod2, wherein, i is subframe numbers or the timeslot number in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, CURRENT_TX_NB is current the number of transmissions, and f _Hop(1)=0.

The second, computing unit 92 comprises second computing module 922, and this second computing module 922 was used for subband number in the up-link bandwidth greater than 2 o'clock, carries out the formula that the intersubband frequency parameter calculates to be:

Wherein, N _SbBe the subband number, c (k) is a pseudo random sequence, and i is subframe numbers or the timeslot number in the radio frames, and j equals i and adds current the number of transmissions, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0.

Three, computing unit 92 comprises that the 3rd computing module 923, the three computing modules 923 were used for subband number in the up-link bandwidth greater than 1 o'clock, carries out the formula that the intersubband frequency parameter calculates to be:

Wherein, N _SbBe the subband number, c (k) is a pseudo random sequence, and i is subframe numbers or the timeslot number in the radio frames, and j equals i and adds current the number of transmissions, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0.

In order complete computation to go out in each intersubband frequency parameter under the situation, the described computing unit 92 in the present embodiment also comprises the 4th computing module 924, and the subband number that is used in the up-link bandwidth is 1 o'clock, is 0 with intersubband frequency parameter assignment.

As shown in figure 10, described computing unit 92 can adopt but is not limited to following implementation in carrying out subband during the frequency hopping calculation of parameter:

The first, this computing unit 92 comprises the 5th computing module 925, and the subband number that is used in the up-link bandwidth is to surpass at 1 o'clock, and the formula that carries out frequency hopping calculation of parameter in the subband is: f _m(i)=and c (j10), wherein, c (j10) is a pseudo random sequence, i is subframe numbers or the timeslot number in the radio frames, f _m(i) be the interior frequency parameter of subband of i subframe or time slot, j equals i and adds current the number of transmissions.

The second, this computing unit 92 comprises that the subband number that the 6th computing module 926, the six computing modules 926 are used in the up-link bandwidth is to surpass at 1 o'clock, and the formula that carries out frequency hopping calculation of parameter in the subband is: f _m(i)=and c (CURRENT_TX_NB10), wherein, c (CURRENT_TX_NB10) is a pseudo random sequence, i is subframe numbers or the timeslot number in the radio frames, f _m(i) be the interior frequency parameter of subband of i subframe or time slot, CURRENT_TX_NB is current the number of transmissions.

In order complete computation to go out in each under the situation frequency parameter in the subband, the described computing unit 92 in the present embodiment also comprises the 7th computing module 927, and the subband number that is used in the up-link bandwidth is 1 o'clock, and the formula that carries out frequency hopping calculation of parameter in the subband is: f _m(i)=and imod2, wherein i is subframe numbers or the timeslot number in the radio frames; Perhaps the 8th computing module 928, the subband number that is used in the up-link bandwidth is 1 o'clock, the formula that carries out frequency hopping calculation of parameter in the subband is: f _m(i)=and CURRENT_TX_NBmod2, wherein, CURRENT_TX_NB is current the number of transmissions.

By foregoing description as can be known, during each data retransmission, each subframe in data burst or the time slot or the frequency range that time slot adopted can there are differences because of the difference of current the number of transmissions, the data that can not correctly receive when then receiving terminal transmits in front might be correct receptions in this transmission just, improve the efficient of data re-transmission success, also made receiving terminal can obtain each the re-transmission and the frequency diversity gain of the intersubband frequency hopping of transmission first.

The embodiment of the invention is mainly used in wireless communication system, the calculated LTE of 3GPP system particularly, for example: TDD system or FDD system.

A kind of frequency hopping resource allocation method of the embodiment of the invention as shown in figure 11, comprising:

Step 1101, parameter when obtaining the striding of data burst or time slot, parameter is specially current System Frame Number during wherein said striding, and perhaps is specially the odd even attribute of current System Frame Number;

Step 1102, frequency parameter in the intersubband frequency parameter of each Resource Block and/or the subband in described data burst of calculation of parameter or the time slot during according to described striding;

Step 1103 is determined the frequency hopping frequency range of each Resource Block in described data burst or the time slot according to frequency parameter in described intersubband frequency parameter and/or the subband.

Wherein the subband number in the up-link bandwidth is 2 o'clock, described during according to described striding the formula of the described intersubband frequency parameter of calculation of parameter be: f _Hop(i)=(f _Hop(i-1)+1+P) mod2, wherein, i is subframe numbers or the timeslot number in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, P parameter when striding, and f _Hop(1)=0, parameter P is specially current System Frame Number n during wherein said striding _f, perhaps be specially the odd even attribute n of current System Frame Number _fMod2.

Wherein in the subband number of up-link bandwidth greater than 2 o'clock, described during according to described striding the formula of the described intersubband frequency parameter of calculation of parameter be:

Wherein, N _SbBe the subband number, wherein c (k) is a pseudo random sequence, and wherein i is subframe numbers or the timeslot number in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P when striding, and parameter P is specially current System Frame Number n during wherein said striding _f, perhaps be specially the odd even attribute n of current System Frame Number _fMod2; Perhaps wherein i is a subframe numbers in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P10 when striding, and parameter P is specially current System Frame Number n during wherein said striding _fPerhaps wherein i is a timeslot number in the radio frames, and j equals i and adds parameter P20 when striding, and parameter P is specially current System Frame Number n during wherein said striding _f

Wherein in the subband number of up-link bandwidth greater than 1 o'clock, described during according to described striding the formula of calculation of parameter intersubband frequency parameter be:

Wherein, N _SbBe the subband number, wherein c (k) is a pseudo random sequence, and wherein i is subframe numbers or the timeslot number in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P when striding, and parameter P is specially current System Frame Number n during wherein said striding _f, perhaps be specially the odd even attribute n of current System Frame Number _fMod2; Perhaps wherein i is a subframe numbers in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P10 when striding, and parameter P is specially current System Frame Number n during wherein said striding _fPerhaps wherein i is a timeslot number in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P20 when striding, and parameter P is specially current System Frame Number n during wherein said striding _f

Wherein the subband number in the up-link bandwidth is 1 o'clock, and described intersubband frequency parameter is 0.

Wherein in the subband number of up-link bandwidth for surpassing at 1 o'clock, described during according to described striding in the calculation of parameter subband formula of frequency parameter be: f _m(i)=and c (j10), wherein, c (j10) is a pseudo random sequence, i is subframe numbers or the timeslot number in the radio frames, f _m(i) be the interior frequency parameter of subband of i subframe or time slot, j equals i and adds parameter P when striding; Perhaps f _m(i)=and c (P10), wherein, c (P10) is a pseudo random sequence, i is subframe numbers or the timeslot number in the radio frames, f _m(i) be the interior frequency parameter of subband of i subframe or time slot.Parameter P is specially current System Frame Number n during wherein said striding _f, perhaps be specially the odd even attribute n of current System Frame Number _fMod2.

Wherein the subband number in the up-link bandwidth is 1 o'clock, described during according to described striding in the calculation of parameter subband formula of frequency parameter be: f _m(i)=and Pmod2, wherein, i is subframe numbers or the timeslot number in the radio frames, P parameter when striding is specially current System Frame Number n _fPerhaps f _m(i)=and P, wherein, i is subframe numbers or the timeslot number in the radio frames, P parameter when striding is specially the odd even attribute n of current System Frame Number _fMod2.

Wherein when the user did not obtain System Frame Number, base station configuration user used the Type1 frequency-hopping method.

Embodiment 4:

Frequency-hopping mode between subframe is adopted in the hypothesis sub-district in the embodiment of the invention, that is: different subframes can adopt different frequency ranges in Frame, but two time slots in the same subframe are identical frequency ranges.If the Resource Block sum that is comprised in each time slot in the up-link bandwidth

And the sub band number N that each time slot marks off _Sb=4, the bias of PUSCH frequency hopping Can calculate the number of RB in each subband according to following formula Last result of calculation is

The embodiment of the invention provides a kind of frequency hopping resource allocation method, can handle but is not limited to the distribution of frequency-hopping resource under the said circumstances, and as shown in figure 12, this method comprises:

1201, obtain the current System Frame Number n of data burst _f, suppose current System Frame Number n _f=0, every 10ms, n so of crossing _fCan increase by 1 successively.

Represent subframe numbers in this Frame with i in the present embodiment, and calculate since 0.Suppose that at System Frame Number be 0 (n _f=0), the base station is that numbering i is that 3 Resource Block is n in this subframe of terminal distribution _VRB(3)=3,4} is transmission first, and present embodiment supposes that to serve as to transmit this data instance for the second time in this case winding time RTT is 10ms, and the subframe numbers i that transmits these data so for the second time also is 3, and System Frame Number n _f=1, being presented in subframe numbers i in detail is 3 (n _f=1) resource block assignments process.

1202, need simultaneously in the embodiment of the invention according to current System Frame Number n _f=1 calculates frequency parameter in intersubband frequency parameter and the subband, and specifically with described current System Frame Number n _fCarry out frequency hopping calculation of parameter in intersubband frequency parameter and the subband as operational factor.

Below the in detail concrete process of calculating frequency parameter in intersubband frequency parameter and the subband:

The first, adopt following formula to carry out intersubband frequency parameter f _Hop(3) calculate:

$f_{\mathrm{hop}}\left(i\right)=\left\{\begin{array}{cc}0& N_{\mathrm{sb}}=1\\ (f_{\mathrm{hop}}(i-1)+1+n_f)\mathrm{mod}{N}_{\mathrm{sb}}& N_{\mathrm{sb}}=2\\ (f_{\mathrm{hop}}(i-1)+(\underset{k=j\&CenterDot;10+1}{\overset{j\&CenterDot;10+9}{\mathrm{\&Sigma;}}}c\left(k\right)\&times;2^{k-(j\&CenterDot;10+1)})\mathrm{mod}(N_{\mathrm{sb}}-1)+1)\mathrm{mod}{N}_{\mathrm{sb}}& N_{\mathrm{sb}}>2\end{array}\right.$

N wherein _fRepresent current System Frame Number, in the present embodiment System Frame Number n _f=1, j=i+n _f=3+1=4.

By the aforementioned calculation formula as can be known, be 1 o'clock in sub band number, all intersubband frequency parameter f _Hop(i) all value is 0; When sub band number is 2, pass through f _Hop(i)=(f _Hop(i-1)+1+n _f) mod2 carries out intersubband frequency parameter f _Hop(i) calculating, wherein, f _Hop(1)=0; As sub band number N _SbSurpass at 2 o'clock, can pass through

Carry out intersubband frequency parameter f _Hop(i) calculating, wherein, c (k) is a pseudo random sequence, and f _Hop(1)=0.

Because the sub band number N in the present embodiment _SbBe 4, so, need to adopt following formula to calculate f _Hop(i):

$f_{\mathrm{hop}}\left(i\right)=(f_{\mathrm{hop}}(i-1)+(\underset{k=j\&CenterDot;10+1}{\overset{j\&CenterDot;10+9}{\mathrm{\&Sigma;}}}c\left(k\right)\&times;2^{k-(j\&CenterDot;10+1)})\mathrm{mod}(N_{\mathrm{sb}}-1)+1)\mathrm{mod}{N}_{\mathrm{sb}}$

C wherein (k) is a pseudo random sequence, and concrete formula is as follows:

c(n)＝(x ₁(n+N _C)+x ₂(n+N _C))mod2

x ₁(n+31)＝(x ₁(n+3)+x ₁(n))mod2

x ₂(n+31)＝(x ₂(n+3)+x ₂(n+2)+x ₂(n+1)+x ₂(n))mod2

Wherein, N _C=1600, first sequence initialization value is x1 (0)=1, x ₁(n)=0, n=1,2 ..., 30. the 2nd sequence initialization values are

For sub-district ID, suppose

Value is that 161. formula according to aforementioned calculation c (k) can obtain:

c(n)＝1 0 1 1 1 1 0 0 0 1 1 1 1 1

0 1 0 1 1 1 1 1 0 1 1 1 1 0

1 0 1 1 1 0 1 1 0 1 0 1 1 0

0 0 1 0 1 1 1 1 1 0 0 1 1 1

1 0 1 0 0 1 1 0 1 1 1 1 0 0

1 1 0 0 1 0 0 1 0 1 0 0 0 0

0 0 0 1 0 1 1 0 0 1 1 0 0 1

0 1…

n＝0，1，2…

Can find c (41) → c (49)=000101111 from the result of calculation of top c (k), so

$(\underset{k=j\&CenterDot;10+1}{\overset{j\&CenterDot;10+9}{\mathrm{\&Sigma;}}}c\left(k\right)\&times;2^{k-j\&CenterDot;10+1)})\mathrm{mod}(N_{\mathrm{sb}}-1)=(\underset{k=41}{\overset{49}{\mathrm{\&Sigma;}}}c\left(k\right)\&times;2^{k-41})\mathrm{<figure-callout\; id="3"\; label="mod"\; filenames="H2009100033004E0000051.png"\; state="\{\{state\}\}">mod</figure-callout>}3=(2^3{+2}^5+2^6+2^7+2^8)\mathrm{<figure-callout\; id="3"\; label="mod"\; filenames="H2009100033004E0000051.png"\; state="\{\{state\}\}">mod</figure-callout>}3=2$

Then by

Can derive f _Hop(i)=(f _Hop(i-1)+2+1) mod4 with this computing formula of relevant parameters substitution, can draw a series of result of calculation, is specially: f _Hop(0)=(f _Hop(1)+2+1) mod4=3, f _Hop(1)=(f _Hop(0)+2+1) mod 4=2, f _Hop(2)=(f _Hop(1)+2+1) mod4=1, f _Hop(3)=(f _Hop(2)+2+1) mod4=0.

The second, adopt following formula to carry out frequency hopping parameter f in the subband _m(3) calculate:

$f_m\left(i\right)=\left\{\begin{array}{cc}i\mathrm{mod}2& N_{\mathrm{sb}}=1\mathrm{and\; intra\; and\; inter}-\mathrm{subframe\; hopping}\\ n_f\mathrm{mod}2& N_{\mathrm{sb}}=1\mathrm{and\; inter}-\mathrm{subframe\; hopping}\\ c(j\&CenterDot;10)& N_{\mathrm{sb}}>1\end{array}\right.$

N in the present embodiment _fValue is 1, j=i+n _f=3+1=4.

By the aforementioned calculation formula as can be known, be 1 o'clock in sub band number, frequency hopping parameter f in all subbands _m(i) adopt existing account form; When sub band number greater than 1 the time, pass through f _m(i)=c (j10) carries out frequency hopping parameter f in the subband _m(i) calculating, wherein, c (k) is a pseudo random sequence.

Intersubband frequency parameter process is the same with calculating, and supposes

Value is that 161. formula according to calculating c (k) can obtain:

c(n)＝1 0 1 1 1 1 0 0 0 1 1 1 1 1

0 1 0 1 1 1 1 1 0 1 1 1 1 0

1 0 1 1 1 0 1 1 0 1 0 1 1 0

0 0 1 0 1 1 1 1 1 0 0 1 1 1

1 0 1 0 0 1 1 0 1 1 1 1 0 0

1 1 0 0 1 0 0 1 0 1 0 0 0 0

0 0 0 1 0 1 1 0 0 1 1 0 0 1

0 1…

n＝0，1，2…

So, f _m(3)=c (104)=1.

1203, in order to determine the frequency hopping frequency range of each Resource Block in data burst or the time slot smoothly, can also give the numbering n of terminal distribution according to the base station in the present embodiment _VRBCalculate the numbering of Resource Block in subband

Concrete computing formula is as follows:

Because the base station is that numbering i is 3 (n in this Frame of terminal distribution _f=0) Resource Block is n _VRB(3)={ 3,4} can be drawn by above-mentioned formula

1204, after finishing above-mentioned computational process, it is 3 (n that the following frequency hopping formula of aforementioned calculation substitution is as a result calculated numbering i _f=1) numbering of Resource Block in subband after the subframe frequency hopping

${\tilde{n}}_{\mathrm{PRB}}\left(n_s\right)=({\tilde{n}}_{\mathrm{VRB}}+f_{\mathrm{hop}}\left(i\right)\&CenterDot;N_{\mathrm{RB}}^{\mathrm{sb}}+((N_{\mathrm{RB}}^{\mathrm{sb}}-1)-2\left({\tilde{n}}_{\mathrm{VRB}}\mathrm{mod}{N}_{\mathrm{RB}}^{\mathrm{sb}}\right))\&CenterDot;f_m\left(i\right))\mathrm{mod}(N_{\mathrm{RB}}^{\mathrm{sb}}\&CenterDot;N_{\mathrm{sb}})$

Last result of calculation is

With above-mentioned numbering i is 3 (n _f=1) numbering of Resource Block in subband after the subframe frequency hopping

The following formula of substitution, can calculate numbering i is 3 (n _f=1) the numbering n of Resource Block on whole physics frequency range after the subframe frequency hopping _PRB:

Last result of calculation is

This is illustrated in the 3 (n that are numbered of this Frame _f=1) in the subframe, the frequency range that adopts be numbered 6 and 5.

1202,1203 processes among above-mentioned Figure 12 do not have clear and definite sequencing, and 1203 processes of can carrying out are earlier carried out 1202 processes again, can 1202 and 1203 processes carry out simultaneously yet.

Because the embodiment of the invention is when each data retransmission, the frequency range that each subframe in the Frame adopted can there are differences because of the difference of current System Frame Number, the data that can not correctly receive when then receiving terminal transmits in front might be correct receptions in this transmission just, improve the efficient of this data re-transmission success, also made receiving terminal can obtain each the re-transmission and the frequency diversity gain of the intersubband frequency hopping of transmission first.

Frequency parameter and intersubband frequency parameter all need to utilize current System Frame Number to calculate in the subband in the present embodiment, when concrete utilization, can be just utilize current the number of transmissions to calculate one of them of frequency parameter in the subband and intersubband frequency parameter, and another frequency parameter adopts other modes to calculate, can guarantee so also to make that the frequency range that each subframe adopted can there are differences because of the difference of current System Frame Number, and then improve the efficient of this data re-transmission success, also make receiving terminal can obtain each the re-transmission and the frequency diversity gain of the intersubband frequency hopping of transmission first.

Present embodiment can be used in FDD system and TDD (Time Division Duplex, time division multiplexing) system simultaneously, helps simplifying the realization of FDD and TDD system common mode.

The embodiment of the invention can also provide a kind of mode of accommodation to calculate the intersubband frequency parameter, and concrete computing formula is as follows:

$f_{\mathrm{hop}}\left(i\right)=\left\{\begin{array}{cc}0& N_{\mathrm{sb}}=1\\ (f_{\mathrm{hop}}(i-1)+1+n_f)\mathrm{mod}{N}_{\mathrm{sb}}& N_{\mathrm{sb}}=2\\ (f_{\mathrm{hop}}(i-1)+(\underset{k=j\&CenterDot;10+1}{\overset{j\&CenterDot;10+9}{\mathrm{\&Sigma;}}}c\left(k\right)\&times;2^{k-j\&CenterDot;10+1)})\mathrm{mod}(N_{\mathrm{sb}}-1)+1)\mathrm{mod}{N}_{\mathrm{sb}}& N_{\mathrm{sb}}>2\end{array}\right.$

Wherein, j=i+n _fMod2 or

The embodiment of the invention can also provide a kind of mode of accommodation to calculate the intersubband frequency parameter, and concrete computing formula is as follows:

$f_{\mathrm{hop}}\left(i\right)=\left\{\begin{array}{cc}0& N_{\mathrm{sb}}=1\\ (f_{\mathrm{hop}}(i-1)+(\underset{k=j\&CenterDot;10+1}{\overset{j\&CenterDot;10+9}{\mathrm{\&Sigma;}}}c\left(k\right)\&times;2^{k-(j\&CenterDot;10+1)})\mathrm{mod}(N_{\mathrm{sb}}-1)+1)\mathrm{mod}{N}_{\mathrm{sb}}& N_{\mathrm{sb}}>1\end{array}\right.$

Wherein, j=i+n _f, or j=i+n _fMod2 or

That is: be 1 o'clock in sub band number, all intersubband frequency parameter f _Hop(i) all value is 0; When sub band number greater than 1 the time, by

Carry out intersubband frequency parameter f _Hop(i) calculating, wherein, c (k) is a pseudo random sequence, and f _Hop(1)=0.

Only need be in the present embodiment with the operational factor of current System Frame Number as frequency parameter in intersubband frequency parameter and the subband, there is some difference along with the difference of current System Frame Number can to make the frequency range of determining at last, and then the raising retransmission efficiency, also make receiving terminal can obtain each the re-transmission and the frequency diversity gain of the intersubband frequency hopping of transmission first.

Embodiment 5:

The following frequency-hopping method of describing type 1 earlier,

At first,

Wherein

RBSTART is the RB numbering that the base station distributes for this user,

It is the bias of PUSCH (Physical Uplink Shared Channel) frequency hopping.

Then, determine according to table 1 formula

For example, when

N _{UL_hop}=0, adopt the frequency-hopping method of type 1 exactly, When

N _{UL_hop}=00, also be the frequency-hopping method that adopts type 1,

When N _{UL_hop}=01, also be the frequency-hopping method that adopts type 1,

When N _{UL_hop}=10, also be the frequency-hopping method that adopts type 1,

Wherein

At last,

Table 1: the frequency hopping bit N that the base station is distributed to the user _{UL_hop}The content of indication

Clearly, the frequency-hopping method of type 1 and System Frame Number are irrelevant.

Hypothesis owing to can't obtain the main broadcast channel of target BS, therefore can't obtain to be carried on the System Frame Number in the Target cell broadcast channel in the embodiment of the invention after carrying out the fast cell switching, can only adopt the type1 mode to carry out frequency hopping; After UE successfully obtained the Target cell broadcast channel, behind the System Frame Number that obtains to carry in the Target cell broadcast, the frequency hopping mode of UE just can be used type2 frequency hopping mode, or continued to use type1 frequency hopping mode to carry out up shared data Channel Transmission.

Particularly, as shown in figure 13, behind the described fast cell handoff procedure, can adopt but be not limited to following implementation:

When system adopts the scheme of embodiment 4 to carry out the transmission of PUSCH type2 frequency hopping, if terminal carries out needing to carry out following steps after switch fast adjacent sub-district:

Step 1301, when the UE successful switch behind Target cell, do not obtain the main broadcast channel of target BS, but terminal just can only be carried out the ascending resource transmission of type1 frequency hopping mode.

After step 1302, terminal correctly obtained the Target cell broadcast channel, terminal can obtain the System Frame Number that carries in the Target cell broadcast.

Step 1303, after terminal is obtained the Target cell System Frame Number, target BS can be terminal configuration type2 frequency hopping mode or type1 frequency hopping mode.Target BS can judge whether terminal has correctly received the broadcast of Target cell according to the time (or other parameters) that terminal inserts the sub-district, and the base station judges when can give terminal configuration type2 frequency hopping according to terminal turn-on time.When judging that terminal can be correctly after the receiving target cell broadcast information, can be terminal configuration type2 frequency hopping mode.The signaling of the indication type2 mode that terminal issues according to the base station, and adopt the scheme of embodiment 4 and the ascending resource transmission location that the ascending resource indication signaling need to obtain transmission.The signaling and the ascending resource indication signaling of the type1 frequency hopping that terminal also can issue according to the base station are indicated the ascending resource transmission location that needs transmission.

According to this scheme, terminal can adopt the scheme of embodiment 4 to carry out the type2 frequency-hopping method.

A kind of frequency-hopping resource distributor of the embodiment of the invention, as shown in figure 14, this device 140 comprises:

Acquiring unit 141, parameter when being used to obtain the striding of data burst or time slot, parameter is specially current System Frame Number during wherein said striding, perhaps the odd even attribute of current System Frame Number;

Computing unit 142, frequency parameter in the intersubband frequency parameter of the described data burst of calculation of parameter or each Resource Block of time slot and/or the subband when being used for according to described striding;

Processing unit 142 is used for determining according to frequency parameter in described intersubband frequency parameter and/or the subband frequency hopping frequency range of described data burst or each Resource Block of time slot.

Wherein this computing unit 142 comprises:

First computing module, the subband number that is used in the up-link bandwidth is 2 o'clock, the formula that carries out the calculating of intersubband frequency parameter is: f _Hop(i)=(f _Hop(i-1)+1+P) mod2, wherein, i is subframe numbers or the timeslot number in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, P parameter when striding, and f _Hop(1)=0, parameter P is specially current wireless frame number n during wherein said striding _f, perhaps be specially the odd even attribute n of current wireless frame number _fMod2; Perhaps second computing module was used for subband number in the up-link bandwidth greater than 2 o'clock, carried out the formula that the intersubband frequency parameter calculates to be:

Wherein, N _SbBe the subband number, wherein c (k) is a pseudo random sequence, and wherein i is subframe numbers or the timeslot number in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P when striding, and parameter P is specially current System Frame Number n during wherein said striding _f, perhaps be specially the odd even attribute n of current System Frame Number _fMod2; Perhaps wherein i is a subframe numbers in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P10 when striding, and parameter P is specially current System Frame Number n during wherein said striding _fPerhaps wherein i is a timeslot number in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P20 when striding, and parameter P is specially current System Frame Number n during wherein said striding _fPerhaps

The 3rd computing module was used for subband number in the up-link bandwidth greater than 1 o'clock, carried out the formula that the intersubband frequency parameter calculates to be:

Wherein, N _SbBe the subband number, wherein c (k) is a pseudo random sequence, and wherein i is subframe numbers or the timeslot number in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P when striding, and parameter P is specially current System Frame Number n during wherein said striding _f, perhaps be specially the odd even attribute n of current System Frame Number _fMod2; Perhaps wherein i is a subframe numbers in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P10 when striding, and parameter P is specially current System Frame Number n during wherein said striding _fPerhaps wherein i is a timeslot number in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P20 when striding, and parameter P is specially current System Frame Number n during wherein said striding _f

Wherein computing unit 142 also comprises: the 4th computing module, the subband number that is used in the up-link bandwidth is 1 o'clock, is 0 with intersubband frequency parameter assignment.

Wherein this computing unit 142 also comprises: the 5th computing module, and the subband number that is used in the up-link bandwidth is to surpass at 1 o'clock, the formula that carries out frequency hopping calculation of parameter in the subband is: f _m(i)=and c (j10), wherein, c (j10) is a pseudo random sequence, i is subframe numbers or the timeslot number in the radio frames, f _m(i) be the interior frequency parameter of subband of i subframe or time slot, j equals i and adds parameter P when striding; Perhaps

The 6th computing module, the subband number that is used in the up-link bandwidth is to surpass at 1 o'clock, the formula that carries out frequency hopping calculation of parameter in the subband is: f _m(i)=and c (P10), wherein, c (P10) is a pseudo random sequence, i is subframe numbers or the timeslot number in the radio frames, f _m(i) be the interior frequency parameter of subband of i subframe or time slot.Parameter P is specially current wireless frame number n during wherein said striding _f, perhaps be specially the odd even attribute n of current wireless frame number _fMod2.

Wherein this computing unit 142 also comprises: the 7th computing module, and the subband number that is used in the up-link bandwidth is 1 o'clock, the formula that carries out frequency hopping calculation of parameter in the subband is: f _m(i)=and Pmod2, wherein i is subframe numbers or the timeslot number in the radio frames, P parameter when striding is specially current wireless frame number n _fPerhaps

The 8th computing module, the subband number that is used in the up-link bandwidth is 1 o'clock, the formula that carries out frequency hopping calculation of parameter in the subband is: f _m(i)=and P, wherein i is subframe numbers or the timeslot number in the radio frames, P parameter when striding is specially the odd even attribute n of current wireless frame number _fMod2.

Wherein this device 140 also comprises, dispensing unit is used for when the user does not obtain radio frame number, and configure user is used the Type frequency-hopping method.

In addition, but this installs 140 concrete enforcement reference examples 4,5,6, and this no longer describes in detail.

Through the above description of the embodiments, the those skilled in the art can be well understood to the present invention and can realize by the mode that software adds essential common hardware, can certainly pass through hardware, but the former is better execution mode under a lot of situation.Based on such understanding, the part that technical scheme of the present invention contributes to prior art in essence in other words can embody with the form of software product, this computer software product is stored in the storage medium that can read, floppy disk as computer, hard disk or CD etc., comprise some instructions with so that computer equipment (can be personal computer, server, the perhaps network equipment etc.) carry out the described method of each embodiment of the present invention.

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

Claims (29)

1. a frequency hopping resource allocation method is characterized in that, comprising:

Obtain the current the number of transmissions of data burst or time slot;

Calculate frequency parameter in the intersubband frequency parameter of each Resource Block in described data burst or the time slot and/or the subband according to described current the number of transmissions;

Determine the frequency hopping frequency range of each Resource Block in described data burst or the time slot according to frequency parameter in described intersubband frequency parameter and/or the subband.

2. frequency hopping resource allocation method according to claim 1 is characterized in that, described intersubband frequency parameter calculates and is specially: described current the number of transmissions is carried out the intersubband frequency parameter as operational factor calculate.

3. frequency hopping resource allocation method according to claim 1 is characterized in that, the frequency hopping calculation of parameter is specially in the described subband: described current the number of transmissions is carried out frequency hopping calculation of parameter in the subband as operational factor.

4. frequency hopping resource allocation method according to claim 2 is characterized in that, is 2 o'clock in the subband number of up-link bandwidth, described current the number of transmissions is carried out the formula that the intersubband frequency parameter calculates as operational factor be:

f _Hop(i)=(f _Hop(i-1)+1+CURRENT_TX_NB) mod2, wherein, i is subframe numbers or the timeslot number in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, CURRENT_TX_NB is current the number of transmissions, and f _Hop(1)=0.

5. frequency hopping resource allocation method according to claim 2 is characterized in that,, described current the number of transmissions was carried out the formula that the intersubband frequency parameter calculates as operational factor is greater than 2 o'clock in the subband number of up-link bandwidth:

Wherein, N _SbBe the subband number, c (k) is a pseudo random sequence, and i is subframe numbers or the timeslot number in the radio frames, and j equals i and adds current the number of transmissions, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0.

6. frequency hopping resource allocation method according to claim 2 is characterized in that,, described current the number of transmissions was carried out the formula that the intersubband frequency parameter calculates as operational factor is greater than 1 o'clock in the subband number of up-link bandwidth:

Wherein, N _SbBe the subband number, c (k) is a pseudo random sequence, and i is subframe numbers or the timeslot number in the radio frames, and j equals i and adds current the number of transmissions, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0.

7. according to claim 2,4,5 or 6 described frequency hopping resource allocation methods, it is characterized in that, is 1 o'clock in the subband number of up-link bandwidth, and described intersubband frequency parameter is 0.

8. frequency hopping resource allocation method according to claim 3 is characterized in that, in the subband number of up-link bandwidth for surpassing at 1 o'clock, with described current the number of transmissions be as the formula that operational factor carries out frequency hopping calculation of parameter in the subband:

f _m(i)=and c (j10), wherein, c (j10) is a pseudo random sequence, i is subframe numbers or the timeslot number in the radio frames, f _m(i) be the interior frequency parameter of subband of i subframe or time slot, j equals i and adds current the number of transmissions; Perhaps

f _m(i)=and c (CURRENT_TX_NB10), wherein, c (CURRENT_TX_NB10) is a pseudo random sequence, i is subframe numbers or the timeslot number in the radio frames, f _m(i) be the interior frequency parameter of subband of i subframe or time slot, CURRENT_TX_NB is current the number of transmissions.

9. according to claim 3 or 8 described frequency hopping resource allocation methods, it is characterized in that, is 1 o'clock in the subband number of up-link bandwidth, and the formula that carries out frequency hopping calculation of parameter in the subband is:

f _m(i)=and imod2, wherein, i is subframe numbers or the timeslot number in the radio frames; Perhaps

f _m(i)=and CURRENT_TX_NBmod2, wherein, CURRENT_TX_NB is current the number of transmissions.

10. a frequency-hopping resource distributor is characterized in that, comprising:

Acquiring unit is used to obtain the current the number of transmissions of data burst or time slot;

Computing unit is used for calculating frequency parameter in the intersubband frequency parameter of described data burst or each Resource Block of time slot and/or the subband according to described current the number of transmissions;

Processing unit is used for determining according to frequency parameter in described intersubband frequency parameter and/or the subband frequency hopping frequency range of described data burst or each Resource Block of time slot.

11. frequency-hopping resource distributor according to claim 10 is characterized in that, described computing unit is used for described current the number of transmissions is carried out frequency hopping calculation of parameter in intersubband frequency parameter or the subband as operational factor.

12. frequency-hopping resource distributor according to claim 11 is characterized in that, described computing unit comprises:

First computing module, the subband number that is used in the up-link bandwidth is 2 o'clock, the formula that carries out the calculating of intersubband frequency parameter is: f _Hop(i)=(f _Hop(i-1)+1+CURRENT_TX_NB) mod2, wherein, i is subframe numbers or the timeslot number in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, CURRENT_TX_NB is current the number of transmissions, and f _Hop(1)=0; Perhaps

Second computing module was used for subband number in the up-link bandwidth greater than 2 o'clock, carried out the formula that the intersubband frequency parameter calculates to be:

Wherein, N _SbBe the subband number, c (k) is a pseudo random sequence, and i is subframe numbers or the timeslot number in the radio frames, and j equals i and adds current the number of transmissions, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0; Perhaps

The 3rd computing module was used for subband number in the up-link bandwidth greater than 1 o'clock, carried out the formula that the intersubband frequency parameter calculates to be:

Wherein, N _SbBe the subband number, c (k) is a pseudo random sequence, and i is subframe numbers or the timeslot number in the radio frames, and j equals i and adds current the number of transmissions, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0.

13., it is characterized in that described computing unit also comprises according to claim 11 or 12 described frequency-hopping resource distributors:

The 4th computing module, the subband number that is used in the up-link bandwidth is 1 o'clock, is 0 with intersubband frequency parameter assignment.

14. frequency-hopping resource distributor according to claim 11 is characterized in that, described computing unit comprises:

The 5th computing module, the subband number that is used in the up-link bandwidth is to surpass at 1 o'clock, the formula that carries out frequency hopping calculation of parameter in the subband is: f _m(i)=and c (j10), wherein, c (j10) is a pseudo random sequence, i is subframe numbers or the timeslot number in the radio frames, f _m(i) be the interior frequency parameter of subband of i subframe or time slot, j equals i and adds current the number of transmissions; Perhaps

The 6th computing module, the subband number that is used in the up-link bandwidth is to surpass at 1 o'clock, the formula that carries out frequency hopping calculation of parameter in the subband is: f _m(i)=and c (CURRENT_TX_NB10), wherein, c (CURRENT_TX_NB10) is a pseudo random sequence, i is subframe numbers or the timeslot number in the radio frames, f _m(i) be the interior frequency parameter of subband of i subframe or time slot, CURRENT_TX_NB is current the number of transmissions.

15., it is characterized in that described computing unit also comprises according to claim 11 or 14 described frequency-hopping resource distributors:

The 7th computing module, the subband number that is used in the up-link bandwidth is 1 o'clock, the formula that carries out frequency hopping calculation of parameter in the subband is: f _m(i)=and imod2, wherein i is subframe numbers or the timeslot number in the radio frames; Perhaps

The 8th computing module, the subband number that is used in the up-link bandwidth is 1 o'clock, the formula that carries out frequency hopping calculation of parameter in the subband is: f _m(i)=and CURRENT_TX_NBmod2, wherein, CURRENT_TX_NB is current the number of transmissions.

16. a frequency hopping resource allocation method is characterized in that, comprising:

Parameter when obtaining the striding of data burst or time slot, parameter is specially current System Frame Number during wherein said striding, and perhaps is specially the odd even attribute of current System Frame Number;

Frequency parameter in the intersubband frequency parameter of each Resource Block and/or the subband in described data burst of calculation of parameter or the time slot during according to described striding;

Determine the frequency hopping frequency range of each Resource Block in described data burst or the time slot according to frequency parameter in described intersubband frequency parameter and/or the subband.

17. frequency hopping resource allocation method according to claim 16 is characterized in that, is 2 o'clock in the subband number of up-link bandwidth, described during according to described striding the formula of the described intersubband frequency parameter of calculation of parameter be:

f _Hop(i)=(f _Hop(i-1)+1+P) mod2, wherein, i is subframe numbers or the timeslot number in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, P parameter when striding, and f _Hop(1)=0, parameter P is specially current System Frame Number n during wherein said striding _f, perhaps be specially the odd even attribute n of current System Frame Number _fMod2.

18. frequency hopping resource allocation method according to claim 16 is characterized in that, in the subband number of up-link bandwidth greater than 2 o'clock, described during according to described striding the formula of the described intersubband frequency parameter of calculation of parameter be:

Wherein, N _SbBe the subband number, wherein c (k) is a pseudo random sequence,

Wherein i is subframe numbers or the timeslot number in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P when striding, and parameter P is specially current System Frame Number n during wherein said striding _f, perhaps be specially the odd even attribute n of current System Frame Number _fMod2; Perhaps

Wherein i is the subframe numbers in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P10 when striding, and parameter P is specially current System Frame Number n during wherein said striding _fPerhaps

Wherein i is the timeslot number in the radio frames, and j equals i and adds parameter P20 when striding, and parameter P is specially current System Frame Number n during wherein said striding _f

19. frequency hopping resource allocation method according to claim 16 is characterized in that, in the subband number of up-link bandwidth greater than 1 o'clock, described during according to described striding the formula of calculation of parameter intersubband frequency parameter be:

Wherein, N _SbBe the subband number, wherein c (k) is a pseudo random sequence,

Wherein i is subframe numbers or the timeslot number in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P when striding, and parameter P is specially current System Frame Number n during wherein said striding _f, perhaps be specially the odd even attribute n of current System Frame Number _fMod2; Perhaps

Wherein i is the subframe numbers in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P10 when striding, and parameter P is specially current System Frame Number n during wherein said striding _fPerhaps

Wherein i is the timeslot number in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P20 when striding, and parameter P is specially current System Frame Number n during wherein said striding _f

20., it is characterized in that according to claim 17,18 or 19 described frequency hopping resource allocation methods, be 1 o'clock in the subband number of up-link bandwidth, described intersubband frequency parameter is 0.

21. frequency hopping resource allocation method according to claim 16 is characterized in that, in the subband number of up-link bandwidth for surpassing at 1 o'clock, described during according to described striding in the calculation of parameter subband formula of frequency parameter be:

f _m(i)=and c (j10), wherein, c (j10) is a pseudo random sequence, i is subframe numbers or the timeslot number in the radio frames, f _m(i) be the interior frequency parameter of subband of i subframe or time slot, j equals i and adds parameter P when striding; Perhaps

f _m(i)=and c (P10), wherein, c (P10) is a pseudo random sequence, i is subframe numbers or the timeslot number in the radio frames, f _m(i) be the interior frequency parameter of subband of i subframe or time slot.

Parameter P is specially current System Frame Number n during wherein said striding _f, perhaps be specially the odd even attribute n of current System Frame Number _fMod2.

22., it is characterized in that according to claim 16 or 21 described frequency hopping resource allocation methods, be 1 o'clock in the subband number of up-link bandwidth, described during according to described striding in the calculation of parameter subband formula of frequency parameter be:

f _m(i)=and Pmod2, wherein, i is subframe numbers or the timeslot number in the radio frames, P parameter when striding is specially current System Frame Number n _fPerhaps

f _m(i)=and P, wherein, i is subframe numbers or the timeslot number in the radio frames, P parameter when striding is specially the odd even attribute n of current System Frame Number _fMod2.

23. resource allocation methods according to claim 16 is characterized in that, this method also comprises,

When the user did not obtain System Frame Number, base station configuration user used the Type1 frequency-hopping method.

24. a frequency-hopping resource distributor is characterized in that, comprising:

Acquiring unit, parameter when being used to obtain the striding of data burst or time slot, parameter is specially current System Frame Number during wherein said striding, perhaps the odd even attribute of current System Frame Number;

Computing unit, frequency parameter in the intersubband frequency parameter of the described data burst of calculation of parameter or each Resource Block of time slot and/or the subband when being used for according to described striding;

Processing unit is used for determining according to frequency parameter in described intersubband frequency parameter and/or the subband frequency hopping frequency range of described data burst or each Resource Block of time slot.

25. frequency-hopping resource distributor according to claim 24 is characterized in that, described computing unit comprises:

First computing module, the subband number that is used in the up-link bandwidth is 2 o'clock, the formula that carries out the calculating of intersubband frequency parameter is: f _Hop(i)=(f _Hop(i-1)+1+P) mod2, wherein, i is subframe numbers or the timeslot number in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, P parameter when striding, and f _Hop(1)=0, parameter P is specially current wireless frame number n during wherein said striding _f, perhaps be specially the odd even attribute n of current wireless frame number _fMod2; Perhaps

Second computing module was used for subband number in the up-link bandwidth greater than 2 o'clock, carried out the formula that the intersubband frequency parameter calculates to be:

Wherein, N _SbBe the subband number, wherein c (k) is a pseudo random sequence,

Wherein i is subframe numbers or the timeslot number in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P when striding, and parameter P is specially current System Frame Number n during wherein said striding _f, perhaps be specially the odd even attribute n of current System Frame Number _fMod2; Perhaps

Wherein i is the subframe numbers in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P10 when striding, and parameter P is specially current System Frame Number n during wherein said striding _fPerhaps

Wherein i is the timeslot number in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P20 when striding, and parameter P is specially current System Frame Number n during wherein said striding _fPerhaps

The 3rd computing module was used for subband number in the up-link bandwidth greater than 1 o'clock, carried out the formula that the intersubband frequency parameter calculates to be:

Wherein, N _SbBe the subband number, wherein c (k) is a pseudo random sequence,

Wherein i is subframe numbers or the timeslot number in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P when striding, and parameter P is specially current System Frame Number n during wherein said striding _f, perhaps be specially the odd even attribute n of current System Frame Number _fMod2; Perhaps

Wherein i is the subframe numbers in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P10 when striding, and parameter P is specially current System Frame Number n during wherein said striding _fPerhaps

Wherein i is the timeslot number in the radio frames, f _Hop(i) be the intersubband frequency parameter of i subframe or time slot, and f _Hop(1)=0, j equals i and adds parameter P20 when striding, and parameter P is specially current System Frame Number n during wherein said striding _f

26. frequency-hopping resource distributor according to claim 25 is characterized in that, described computing unit also comprises:

The 4th computing module, the subband number that is used in the up-link bandwidth is 1 o'clock, is 0 with intersubband frequency parameter assignment.

27. frequency-hopping resource distributor according to claim 24 is characterized in that, described computing unit comprises:

The 5th computing module, the subband number that is used in the up-link bandwidth is to surpass at 1 o'clock, the formula that carries out frequency hopping calculation of parameter in the subband is: f _m(i)=and c (j10), wherein, c (j10) is a pseudo random sequence, i is subframe numbers or the timeslot number in the radio frames, f _m(i) be the interior frequency parameter of subband of i subframe or time slot, j equals i and adds parameter P when striding; Perhaps

The 6th computing module, the subband number that is used in the up-link bandwidth is to surpass at 1 o'clock, the formula that carries out frequency hopping calculation of parameter in the subband is: f _m(i)=and c (P10), wherein, c (P10) is a pseudo random sequence, i is subframe numbers or the timeslot number in the radio frames, f _m(i) be the interior frequency parameter of subband of i subframe or time slot.

Parameter P is specially current wireless frame number n during wherein said striding _f, perhaps be specially the odd even attribute n of current wireless frame number _fMod2.

28. frequency-hopping resource distributor according to claim 27 is characterized in that, described computing unit also comprises:

The 7th computing module, the subband number that is used in the up-link bandwidth is 1 o'clock, the formula that carries out frequency hopping calculation of parameter in the subband is: f _m(i)=and Pmod2, wherein i is subframe numbers or the timeslot number in the radio frames, P parameter when striding is specially current wireless frame number n _fPerhaps

The 8th computing module, the subband number that is used in the up-link bandwidth is 1 o'clock, the formula that carries out frequency hopping calculation of parameter in the subband is: f _m(i)=and P, wherein i is subframe numbers or the timeslot number in the radio frames, P parameter when striding is specially the odd even attribute n of current wireless frame number _fMod2.

29. resource allocation device according to claim 24 is characterized in that, described device also comprises,

Dispensing unit is used for when the user does not obtain radio frame number, and configure user is used the Type1 frequency-hopping method.

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