CN101166057A - A method and device for uplink synchronization control in a TD-SCDMA system - Google Patents

Abstract

The present invention provides an uplink synchronization control method and device in a TD-SCDMA system. The terminal responds to the synchronization offset command word generated by the base station according to the channel impulse response of the time slot with the best signal, and according to the first uplink time slot The timing advance is configured for each uplink time slot, so that the uplink synchronization control frequency of the uplink multi-slot service can be improved, and the problem of inaccurate configuration of the uplink time advance of the uplink multi-slot service is solved, reducing the time for the same uplink Mutual interference between slot channels. In addition, in the HSDPA service, the present invention configures the uplink timing advance of the dedicated physical channel DPCH or the shared information channel HS-SICH through the terminal responding to the synchronization offset command word sent by the base station, thereby solving the problem of HS-SICH uplink in the HSDPA service. The timing advance algorithm is complicated and the configuration is inaccurate, which improves the uplink synchronization control frequency of HS-SICH and accompanying DPCH, and reduces the mutual interference between channels in the same uplink time slot.

Description

A method and device for uplink synchronization control in a TD-SCDMA system

technical field

The invention relates to the communication field, in particular to an uplink synchronization control method and device in a TD-SCDMA system.

Background technique

In Time-Division Synchronization Code Division-Multiple-Access (TD-SCDMA, Time-Division Synchronization Code Division-Multiple-Access) system, since the time advance of each uplink time slot of the uplink multi-slot service is independently controlled, different time slots are configured with different Time advance, so the terminal implementation is more complicated. In addition, when the terminal has no uplink data or the data is not full, it only sends data in some uplink time slots, so that the base station cannot generate a synchronization shift (SS, synchronous shift) command word according to the time slots without uplink data, thereby causing the terminal uplink time Misconfiguration of lead.

The high-speed downlink packet access (HSDPA, High Speed Downlink Package Access) service is accompanied by the dedicated physical channel (DPCH, Dedicated Physical Channel) and shared information channel (SICH, Shared Information Channel). When the Synchronization Control Channel (SCCH, Synchronization Control Channel) is discontinuous, the SICH uplink timing advance will respond to the SS command word of the DPCH. At present, there is no clear algorithm for SICH uplink synchronization control of HSDPA.

In the HSDPA service, the SICH uplink synchronously responds to the SS command word carried by the SCCH, the SCCH/SICH scheduling is discontinuous, and the SICH uplink timing advance control frequency is very low. According to the agreement, when the SCCH is discontinuous, the SICH response is accompanied by the SS command word of the DPCH, but In many cases, the SS command word accompanying the DPCH cannot be applied to the SICH timing advance control, which causes an error in the SICH uplink timing advance control.

Contents of the invention

The technical problem to be solved by the present invention is to provide an uplink synchronization control method and device in a TD-SCDMA system, which can simplify the configuration complexity of the uplink timing advance of the uplink multi-slot service and improve the accuracy.

The technical scheme that realizes the object of the present invention is as follows:

An uplink synchronization control method in a TD-SCDMA system, in which a terminal responds to a synchronization offset command word sent by a base station, and configures a time advance for each uplink time slot according to the time advance of the first uplink time slot.

Preferably, the timing advance is configured for each uplink time slot according to the following steps:

Determine whether the number of channel estimation windows in different time slots is the same. If they are the same, the uplink timing advance of each time slot is configured as the time advance of the first uplink time slot; if they are different, the uplink time advance of each time slot is configured as The timing advance of the first uplink time slot is increased by the corresponding offset value.

Preferably, the offset value is the difference between the channel impulse response time slot target value of the first uplink time slot and the Cir time slot target value of the nth uplink time slot.

Preferably, the Cir time slot target value of the nth uplink time slot is obtained according to the following steps:

其中，Cir_target(n)为第n上行时隙的Cir时隙目标值；函数

为向下取整，函数

为向上取整；

为第n上行时隙信道估计窗的长度；midamble_k(n)为第n上行时隙信道估计窗个数。

Wherein, Cir_target(n) is the Cir time slot target value of the nth uplink time slot; function

For rounding down, the function

is rounded up;

is the length of the channel estimation window of the nth uplink time slot; midamble_k(n) is the number of channel estimation windows of the nth uplink time slot.

Preferably, the synchronization offset command word is generated according to the channel impulse response of the time slot with the best signal.

Preferably, the time slot with the best signal is the time slot in which the signal-to-noise ratio or received signal power code of all uplink time slots is selected by the base station.

An uplink synchronization control device in a TD-SCDMA system, comprising:

The first judging unit is used to respond to the synchronization offset command word sent by the base station, and judge whether the number of channel estimation windows in different time slots is the same;

The first configuration unit is configured to configure a timing advance for each uplink time slot according to the timing advance of the first uplink time slot according to the judgment result fed back by the first judgment unit.

Preferably, the first configuration unit configures the timing advance for each uplink time slot as follows:

The first judgment unit feeds back the judgment result that the number of channel estimation windows in different time slots is the same, and the first configuration unit configures the uplink timing advance of each time slot as the time advance of the first uplink time slot;

The first judgment unit feeds back the judgment result that the number of channel estimation windows in different time slots is different, then the first configuration unit configures the uplink timing advance of each time slot as the timing advance of the first uplink time slot increases by a corresponding offset value.

Preferably, the offset value is the difference between the channel impulse response Cir time slot target value of the first uplink time slot and the Cir time slot target value of the nth uplink time slot.

Preferably, the Cir time slot target value of the nth uplink time slot is obtained as follows:

其中，Cir_target(n)为第n上行时隙的Cir时隙目标值；函数为向下取整，函数

为向上取整；

为第n上行时隙信道估计窗的长度；midamble_k(n)为第n上行时隙信道估计窗个数。

Wherein, Cir_target(n) is the Cir time slot target value of the nth uplink time slot; function For rounding down, the function

is rounded up;

is the length of the channel estimation window of the nth uplink time slot; midamble_k(n) is the number of channel estimation windows of the nth uplink time slot.

Preferably, the synchronization offset command word is generated by the base station according to the channel impulse response of the time slot with the best signal.

Preferably, the time slot with the best signal is the time slot in which the signal-to-noise ratio or received signal power code of all uplink time slots is selected by the base station.

In addition, the present invention further provides an uplink synchronization control method in a TD-SCDMA system for HSDPA services. The terminal responds to the synchronization offset command word sent by the base station, and configures the uplink associated with the dedicated physical channel DPCH or the shared information channel HS-SICH. Timing advance.

Preferably, if there is only accompanying DPCH, the synchronization offset command word is generated according to the channel impulse response accompanying DPCH.

Preferably, if there is only HS-SICH, the synchronization offset command word is generated according to the channel impulse response of HS-SICH.

Preferably, if there are accompanying DPCH and HS-SICH at the same time, the synchronization offset command word is generated according to the channel impulse response with a large signal-to-noise ratio of DPCH or HS-SICH; or according to the reception of DPCH or HS-SICH The channel impulse response of the signal power code is large.

Preferably, the uplink timing advance is configured for DPCH and HS-SICH according to the following steps:

Judging whether the time slots of the accompanying DPCH and HS-SICH and the corresponding channel estimation windows are the same, if the HS-SICH and the accompanying DPCH are in the same uplink time slot, or not in the same uplink time slot but the time slots where the two are located If the number of channel estimation windows is the same, the uplink timing advance of HS-SICH is configured as the timing advance of DPCH;

If the HS-SICH and the accompanying DPCH are not in the same uplink time slot and the number of channel estimation windows of the time slots where the two are located is different, then configure the timing advance of the HS-SICH to increase the corresponding offset value to the timing advance of the accompanying DPCH .

Preferably, the offset value is the difference between the target Cir time slot value of the uplink time slot where the DPCH is located and the target Cir time slot value of the uplink time slot where the HS-SICH is located.

An uplink synchronization control device in a TD-SCDMA system, comprising:

The second judging unit is used to respond to the synchronization offset command word sent by the base station, and judge whether the time slots of the accompanying DPCH and the HS-SICH and the corresponding channel estimation windows are the same;

The second configuring unit is configured to configure the uplink timing advance accompanying the dedicated physical channel DPCH or the shared information channel HS-SICH according to the judging result of the judging unit.

Preferably, in the case of only accompanying DPCH, the synchronization offset command word is generated by the base station according to the channel impulse response accompanying DPCH.

Preferably, in the case of only HS-SICH, the synchronization offset command word is generated by the base station according to the channel impulse response of HS-SICH.

Preferably, in the case of simultaneous DPCH and HS-SICH, the synchronization offset command word is generated by the base station according to the channel impulse response of DPCH or HS-SICH with a large signal-to-noise ratio.

Preferably, in the case of accompanying DPCH and HS-SICH at the same time, the synchronization offset command word is generated by the base station according to a channel impulse response with a large received signal power code of DPCH or HS-SICH.

Preferably, the second configuration unit configures the uplink timing advance for DPCH and HS-SICH in the following manner:

The second judging unit judges that the HS-SICH and the accompanying DPCH are in the same uplink time slot, or not in the same uplink time slot but the number of channel estimation windows of the time slots where the two are located is the same, then the second configuration unit sets the HS-SICH -The uplink timing advance of SICH is configured as the timing advance of DPCH;

The second judgment unit judges that the HS-SICH and the accompanying DPCH are not in the same uplink time slot and the number of channel estimation windows of the time slots where the two are located is different, then the second configuration unit configures the timing advance of the HS-SICH as The timing advance of the accompanying DPCH is increased by a corresponding offset value.

Preferably, the offset value is the difference between the target Cir time slot value of the uplink time slot where the DPCH is located and the target Cir time slot value of the uplink time slot where the HS-SICH is located.

Compared with the prior art, the technical solution provided by the present invention has the following beneficial effects:

1. Each uplink time slot of the multi-slot service is independently controlled. Compared with the existing multi-slot service, the present invention realizes the synchronization generated by the terminal according to the channel impulse response of the time slot with the best signal in the uplink multi-slot service. Offset command word, the time advance of each uplink time slot is configured with reference to the time advance of the first uplink time slot, so that the uplink synchronization control frequency of the uplink multi-slot service can be improved, and the uplink time advance of the uplink multi-slot service can also be solved The problem of inaccurate volume configuration reduces the mutual interference between channels in the same uplink time slot.

2. In addition, the present invention also solves the problem that the HS-SICH uplink time advance algorithm is complicated and the configuration is inaccurate in the HSDPA service, thereby improving the uplink synchronization control frequency of the HS-SICH and accompanying DPCH, and reducing the same uplink time slot Interference between channels.

The present invention will be further described below in conjunction with the accompanying drawings and specific embodiments.

Description of drawings

Fig. 1 is the uplink synchronization control flow chart of the uplink multi-slot service base station of the present invention;

Fig. 2 is a flow chart of uplink synchronization control of an uplink multi-slot service terminal in the present invention;

Fig. 3 is the flow chart of uplink synchronization control of the HSDPA service base station of the present invention;

Fig. 4 is the flow chart of the uplink synchronization control of the HSDPA service terminal of the present invention;

Fig. 5 is a block diagram of an uplink synchronization control device for an uplink multi-slot service according to the present invention;

Fig. 6 is a block diagram of an HSDPA service uplink synchronization control device according to the present invention.

Detailed ways

The invention is used to solve the problems of complicated realization of uplink timing advance of terminal configuration of DPCH and SICH in uplink multi-slot service or HSDPA service in TD-SCDMA system, error-prone and low adjustment frequency. The following will be described in detail through specific embodiments.

For the uplink multi-slot service, the uplink synchronization control process is described from the perspectives of the base station and the terminal.

As shown in Figure 1, the uplink synchronization control process of the uplink multi-slot service base station is as follows:

Step 101, the base station establishes an uplink multi-slot service;

Step 102, the base station selects a time slot with the best uplink signal according to the signal-to-noise ratio (SNR, Signal to Noise Ratio) or received signal power code (RSCP, received signal code power) of all uplink time slots, usually SNR or RSCP A large uplink signal is better; then generate the SS command word according to the channel impulse response of the uplink time slot;

Step 103, the base station sends the generated SS command word through the DPCH.

As shown in Figure 2, the uplink synchronization control process of the uplink multi-slot service terminal is as follows:

Step 201, the terminal establishes an uplink multi-slot service;

Step 202, the terminal responds to the SS command word sent by the base station through the DPCH for each subframe;

Step 203, judge whether the midamble_k (the number of channel estimation windows of different time slots, that is, the midamble of 128chip is divided into several channel estimation windows) is the same, if it is the same, then proceed to step 204; if it is different, then proceed to step 205;

Step 204, if the midamble_k of different time slots is the same, the uplink timing advance of each time slot is configured as the timing advance of the first uplink time slot;

Step 205. If midamble_k is different in different time slots, configure the timing advance of the nth uplink time slot as:

TAn=TA1+(Cir_target(1)-Cir_target(n))

Among them: TA1 represents the timing advance of the first uplink time slot, TAn represents the time advance of the nth uplink time slot, and Cir_target(n) represents the channel impulse response (Cir) time slot target of the nth uplink time slot value.

In step 206, the terminal implements the configuration of the timing advance in a corresponding manner.

As shown in FIG. 5, the device for uplink synchronization control on the terminal side includes: a first judgment unit 51, and a first configuration unit 52, wherein:

Whether the midamble_k of different time slots is judged by the first judging unit 51 is the same, if it is the same, the judgment result is fed back to the first configuration unit 52, and the uplink timing advance of each time slot is configured as the time of the first uplink time slot Amount of advance; if different time slots midamble_k are different, then the judgment result is fed back to the first configuration unit 52, and the time advance of the nth uplink time slot is configured as:

TAn=TA1+(Cir_target(1)-Cir_target(n))

Among them: TA1 represents the timing advance of the first uplink time slot, TAn represents the time advance of the nth uplink time slot, and Cir_target(n) represents the channel impulse response (Cir) time slot target of the nth uplink time slot value.

It should be noted:

The length of the channel estimation window of the nth uplink time slot can be obtained by the following formula:

为向下取整；where: function

is rounded down;

The CIR target value of the nth uplink time slot is:

为向上取整。where: function

is rounded up.

For example: if midamble_k=8, then calculate Cir_target=6chip;

If midamble_k=16, then Cir_target=3chip.

In addition, for the HSDPA service, the uplink synchronization control process is described from the perspectives of the base station and the terminal.

As shown in Figure 3, the uplink synchronization control process of the HSDPA service base station is as follows:

Step 301, the base station establishes an HSDPA service;

Step 302, in the HSDPA service, the base station generates the SS command word in conjunction with the channel impulse response of the DPCH and the HS-SICH, which is specifically divided into the following three situations:

If the uplink of a certain subframe is only accompanied by DPCH, then generate the SS command word according to the channel impulse response accompanied by DPCH;

If there is only HS-SICH uplink in a certain subframe, generate the SS command word according to the channel impulse response of HS-SICH;

If a subframe has both DPCH and HS-SICH uplink, a channel with a high SNR or RSCP must be selected, and the SS command word is generated according to the channel impulse response of the channel;

Step 303, the base station sends the SS command word generated in step 302 in the subsequent downlink associated DPCH or HS-SCCH.

As shown in Figure 4, the uplink synchronization control process of the HSDPA service terminal is as follows:

Step 401, the terminal establishes an HSDPA service;

Step 402, the terminal adjusts the timing advance of the accompanying DPCH and HS-SICH in conjunction with the SS command word accompanying the DPCH and HS-SCCH, and the three situations corresponding to the base station generating the SS command word are as follows:

If the downlink of a certain subframe is only accompanied by DPCH, adjust the timing advance according to the SS command word accompanied by DPCH;

If there is only HS-SCCH, adjust the timing advance according to the SS command word carried by HS-SCCH;

If a certain subframe has both accompanying DPCH and HS-SCCH, adjust the timing advance according to the soft decision results of the two SS command words, which can increase the synchronization control frequency accompanying DPCH and HS-SICH;

Step 403, judging whether the midamble_k of the time slot where the HS-SICH and the accompanying DPCH are located are the same:

If the HS-SICH and the accompanying DPCH are in the same uplink time slot or not in the same uplink time slot, but the midamble_k of the time slot where the HS-SICH and the accompanying DPCH are located are the same, go to step 404;

If the HS-SICH and the accompanying DPCH are not in the same uplink time slot and the midamble_k of the two time slots is different, then go to step 405;

Step 404, the uplink timing advance of HS-SICH is configured as the timing advance of DPCH;

Step 405, configuring the SICH timing advance as:

TA _SICH = TA _DPCH + (Cir_target(DPCH)-Cir_target(SICH))

Among them: TA _SICH represents the timing advance of HS-SICH, TA _DPCH represents the timing advance of accompanying DPCH, Cir_target(DPCH) represents the Cir time slot target value of the uplink time slot accompanying DPCH, Cir_target(SICH) represents the location of HS-SICH Cir slot target value of the uplink slot.

As shown in FIG. 6, the device for uplink synchronization control on the terminal side includes: a second judgment unit 61, and a second configuration unit 62, wherein:

The second judging unit 61 responds to the synchronization offset command word sent by the base station. If a subframe is only accompanied by DPCH in the downlink, then adjust the timing advance according to the SS command word accompanied by DPCH; The SS command word adjusts the timing advance; if a subframe has both accompanying DPCH and HS-SCCH, the timing advance is adjusted according to the soft decision results of the two SS command words, which can improve the synchronization of accompanying DPCH and HS-SICH control frequency;

And judge whether the midamble_k of the time slot where the HS-SICH and the accompanying DPCH are located are the same:

If the HS-SICH and the accompanying DPCH are in the same uplink time slot or not in the same uplink time slot, but the midamble_k of the time slot where the HS-SICH and the accompanying DPCH are located are the same, the uplink timing advance of the HS-SICH is configured as the time of the accompanying DPCH advance amount;

If the HS-SICH and accompanying DPCH are not in the same uplink time slot and the midamble_k of the two time slots is different, configure the SICH timing advance as:

TA _SICH = TA _DPCH + (Cir_target(DPCH)-Cir_target(SICH))

Among them: TA _SICH represents the timing advance of HS-SICH, TA _DPCH represents the timing advance of accompanying DPCH, Cir_target(DPCH) represents the Cir time slot target value of the uplink time slot accompanying DPCH, Cir_target(SICH) represents the location of HS-SICH Cir slot target value of the uplink slot.

The embodiments of the present invention described above are not intended to limit the protection scope of the present invention. Any modifications, equivalent replacements and improvements made within the spirit and principles of the present invention shall be included within the protection scope of the claims of the present invention.

Claims (26)

1. the ascending synchronous control method in the TD-SCDMA system is characterized in that, the simultaneous bias order word that the terminal response base station sends is each ascending time slot lead setup time according to the Timing Advance of first ascending time slot.

2. the method for claim 1 is characterized in that, is each ascending time slot lead setup time according to following steps:

Whether the channel estimation window number of judging different time-gap is identical, if identical, then the up Timing Advance of each time slot is configured to the Timing Advance of first ascending time slot; If different, then the up Timing Advance of each time slot Timing Advance that is configured to first ascending time slot increases corresponding deviant.

3. method as claimed in claim 2 is characterized in that, described deviant is Cir time slot desired value poor of the channel impulse response Cir time slot desired value of first ascending time slot and n ascending time slot.

4. method as claimed in claim 3 is characterized in that, the Cir time slot desired value of described n ascending time slot obtains according to following steps:

Wherein, Cir_target (n) is the Cir time slot desired value of n ascending time slot; Function

For rounding function downwards

For rounding up;

Be the length of n ascending time slot channel estimation window; Midamble_k (n) is a n ascending time slot channel estimation window number.

5. the method for claim 1 is characterized in that, described simultaneous bias order word is to produce according to the channel impulse response of the best time slot of signal.

6. method as claimed in claim 5 is characterized in that, the best time slot of described signal is the signal to noise ratio of base station selected all ascending time slots or the big time slot of signal power sign indicating number of reception.

7. the uplink synchronous control device in the TD-SCDMA system is characterized in that, comprising:

First judging unit is used to respond the simultaneous bias order word that the base station sends, and judges whether the channel estimation window number of different time-gap is identical;

First dispensing unit is used for the judged result according to first judging unit feedback, is each ascending time slot lead setup time according to the Timing Advance of first ascending time slot.

8. device as claimed in claim 7 is characterized in that, described first dispensing unit is each ascending time slot lead setup time in the following manner:

The identical judged result of channel estimation window number of described first judging unit feedback different time-gap, then first dispensing unit is configured to the up Timing Advance of each time slot the Timing Advance of first ascending time slot;

The channel estimation window number judged result inequality of described first judging unit feedback different time-gap, then first dispensing unit increases corresponding deviant with the Timing Advance that the up Timing Advance of each time slot is configured to first ascending time slot.

9. device as claimed in claim 8 is characterized in that, described deviant is Cir time slot desired value poor of the channel impulse response Cir time slot desired value of first ascending time slot and n ascending time slot.

10. device as claimed in claim 9 is characterized in that, the Cir time slot desired value of described n ascending time slot obtains in the following manner:

Wherein, Cir_target (n) is the Cir time slot desired value of n ascending time slot; Function

For rounding function downwards

For rounding up;

Be the length of n ascending time slot channel estimation window; Midamble_k (n) is a n ascending time slot channel estimation window number.

11. device as claimed in claim 7 is characterized in that, described simultaneous bias order word is to be produced by the channel impulse response of base station according to the best time slot of signal.

12. device as claimed in claim 11 is characterized in that, the best time slot of described signal is the signal to noise ratio of base station selected all ascending time slots or the big time slot of signal power sign indicating number of reception.

13. the ascending synchronous control method in the TD-SCDMA system, it is characterized in that, in the HSDPA business, the simultaneous bias order word that the terminal response base station sends, the up Timing Advance of configuration following special physical channel DPCH or shared information channel HS-SICH.

14. method as claimed in claim 13 is characterized in that, if only follow DPCH, then described simultaneous bias order word is to produce according to the channel impulse response of following DPCH.

15. method as claimed in claim 13 is characterized in that, if having only HS-SICH, then described simultaneous bias order word is to produce according to the channel impulse response of HS-SICH.

16. method as claimed in claim 13 is characterized in that, if follow DPCH and HS-SICH simultaneously, then described simultaneous bias order word is to produce according to the big channel impulse response of the signal to noise ratio of DPCH or HS-SICH.

17. method as claimed in claim 13 is characterized in that, if follow DPCH and HS-SICH simultaneously, then described simultaneous bias order word is to produce according to the big channel impulse response of the received signal power sign indicating number of DPCH or HS-SICH.

18., it is characterized in that, be DPCH and HS-SICH collocating uplink Timing Advance according to following steps as claim 14 or 15 or 16 or 17 described methods:

Whether judgement follows DPCH identical with the channel estimation window number of HS-SICH place time slot and correspondence thereof, if HS-SICH and follow DPCH at same ascending time slot, perhaps but the channel estimation window number at same ascending time slot both place time slots is not identical, and then the up Timing Advance of HS-SICH is configured to follow the Timing Advance of DPCH;

The channel estimation window number at same ascending time slot and both place time slots is not different if HS-SICH is with following DPCH, and then the Timing Advance with HS-SICH is configured to follow the Timing Advance of DPCH to increase corresponding deviant.

19. method as claimed in claim 18 is characterized in that, described deviant is to follow Cir time slot desired value poor of the Cir time slot desired value of DPCH place ascending time slot and HS-SICH place ascending time slot.

20. the uplink synchronous control device in the TD-SCDMA system is characterized in that, in the HSDPA business, comprising:

Second judging unit is used to respond the simultaneous bias order word that the base station sends, and whether judgement follows DPCH identical with the channel estimation window number of HS-SICH place time slot and correspondence thereof;

Second dispensing unit is used for the judged result according to second judging unit, the up Timing Advance of configuration following special physical channel DPCH or shared information channel HS-SICH.

21. device as claimed in claim 20 is characterized in that, under the situation of only following DPCH, described simultaneous bias order word is that the base station produces according to the channel impulse response of following DPCH.

22. device as claimed in claim 20 is characterized in that, is having only under the situation of HS-SICH, described simultaneous bias order word is the channel impulse response generation of base station according to HS-SICH.

23. device as claimed in claim 20 is characterized in that, has at the same time under the situation of following DPCH and HS-SICH, described simultaneous bias order word is that the base station produces according to the big channel impulse response of the signal to noise ratio of DPCH or HS-SICH.

24. device as claimed in claim 20 is characterized in that, has at the same time under the situation of following DPCH and HS-SICH, described simultaneous bias order word is that the base station produces according to the big channel impulse response of the received signal power sign indicating number of DPCH or HS-SICH.

25., it is characterized in that described second dispensing unit is DPCH and HS-SICH collocating uplink Timing Advance in the following manner as claim 21 or 22 or 23 or 24 described devices:

The described second judgment unit judges HS-SICH and follow DPCH at same ascending time slot, perhaps but the channel estimation window number at same ascending time slot both place time slots is not identical, and then described second dispensing unit is configured to the up Timing Advance of HS-SICH to follow the Timing Advance of DPCH;

The channel estimation window number at same ascending time slot and both place time slots is not different with following DPCH for the described second judgment unit judges HS-SICH, and then described second dispensing unit is configured to follow the Timing Advance of DPCH to increase corresponding deviant the Timing Advance of HS-SICH.

26. device as claimed in claim 25 is characterized in that, described deviant is to follow Cir time slot desired value poor of the Cir time slot desired value of DPCH place ascending time slot and HS-SICH place ascending time slot.

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