CN101610546B - Blind detection dispatching method and blind detection dispatching equipment for time division-synchronous code division multiple access system - Google Patents

Blind detection dispatching method and blind detection dispatching equipment for time division-synchronous code division multiple access system Download PDF

Info

Publication number
CN101610546B
CN101610546B CN2008100435239A CN200810043523A CN101610546B CN 101610546 B CN101610546 B CN 101610546B CN 2008100435239 A CN2008100435239 A CN 2008100435239A CN 200810043523 A CN200810043523 A CN 200810043523A CN 101610546 B CN101610546 B CN 101610546B
Authority
CN
China
Prior art keywords
blind check
subscriber equipment
blind
network
frequency
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Active
Application number
CN2008100435239A
Other languages
Chinese (zh)
Other versions
CN101610546A (en
Inventor
师延山
周加铳
石璟
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Spreadtrum Communications Shanghai Co Ltd
Original Assignee
Spreadtrum Communications Shanghai Co Ltd
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Spreadtrum Communications Shanghai Co Ltd filed Critical Spreadtrum Communications Shanghai Co Ltd
Priority to CN2008100435239A priority Critical patent/CN101610546B/en
Publication of CN101610546A publication Critical patent/CN101610546A/en
Application granted granted Critical
Publication of CN101610546B publication Critical patent/CN101610546B/en
Active legal-status Critical Current
Anticipated expiration legal-status Critical

Links

Images

Classifications

    • Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
    • Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
    • Y02D—CLIMATE CHANGE MITIGATION TECHNOLOGIES IN INFORMATION AND COMMUNICATION TECHNOLOGIES [ICT], I.E. INFORMATION AND COMMUNICATION TECHNOLOGIES AIMING AT THE REDUCTION OF THEIR OWN ENERGY USE
    • Y02D30/00—Reducing energy consumption in communication networks
    • Y02D30/70—Reducing energy consumption in communication networks in wireless communication networks

Landscapes

  • Mobile Radio Communication Systems (AREA)

Abstract

The invention relates to a time division-synchronous code division multiple access system, and discloses a blind detection dispatching method and blind detection dispatching equipment for the time division-synchronous code division multiple access system. The method and the equipment can save the electric energy of a terminal under the condition of ensuring the service transmission. The method comprises the following steps: measuring preset blind detection parameters of specific user equipment first; and if the measuring result meets the preset conditions, changing the density of blind detection frequency and blind detection resources of the user equipment.

Description

Blind check dispatching method and equipment in the TDS-CDMA system
Technical field
The present invention relates to TDS-CDMA system, particularly the blind check technology in the TDS-CDMA system.
Background technology
Along with the development of the communication technology and the user day by day raising to quality of service requirement, the message transmission rate that reaches as high as 2Mbit/s that third generation partner program (3rd Generation Partnership Project, be called for short " 3GPP ") standard defined before Release 4 versions can not satisfy the user gradually to the demand of high-speed data service.In the case, 3GPP has introduced high speed downlink packet access (High Speed Downlink Packet Access is called for short " HSDPA ") technology in Release 5 standards.
HSDPA is a kind of enhanced scheme that 3GPP Release 5 proposes, main purpose is the high speed support to Packet data service, and obtaining lower time delay, higher throughput of system and stronger service quality (Quality of Service is called for short " QoS ") guarantees.From technical standpoint, HSDPA is by introducing high-speed downlink shared channel (High Speed Downlink SharedChannel, be called for short " HS-DSCH ") the enhancing air interface, and in universal mobile telecommunications system grounding wireless access network (UMTS Terrestrial Radio Access Network is called for short " UTRAN "), strengthen corresponding functional entity.From bottom, mainly be to introduce mixed self-adapting repeat requests (Hybrid Automatic Repeat Request, be called for short " HARQ ") and adaptive modulation and coding (AdaptiVe Modulation and Coding, abbreviation " AMC ") technology increase data throughout.
The HARQ system is at HARQ (Automatic Repeat Request, abbreviation " ARQ ") introduces a forward error correction (Forward Error Correction in the system, be called for short " FEC ") subsystem, be used for correcting the error pattern of frequent appearance to reduce number of retransmissions, namely in the error correcting capability scope, automatically correct a mistake, exceed the error correction scope and then require transmitting terminal to resend data, this has increased reliability and the efficiency of transmission of system.That is to say that the channel condition that H-ARQ can adapt to moment automatically provides trickle data rate adjustment.The AMC technology makes system in the scope of restriction, can adjust adaptively modulation and coded system according to the change of channel quality.In an AMC system, those channel conditions that sit pretty are user (normally those users very near apart from the base station) preferably, can be endowed the modulation system of high-order and the coded system of two-forty (such as 16QAM and 1/2 Turbo encoding rate); And the relatively poor user's (normally those are in the user of cell boarder) of those channel conditions that are in unfavorable position then is endowed the modulation system of low order and the coded system of low rate (such as QPSK and 1/3 Turbo encoding rate).
Fig. 1 shows the physical layer procedure of existing HSDPA.See also Fig. 1, the physical layer procedure of HSDPA mainly may further comprise the steps.
Step S101: subscriber equipment (User Equipment, abbreviation " UE ") detects one's own High-Speed Shared Control Channel (High Speed-Shared Control Channel, be called for short " HS-SCCH ") message, receive this message and demodulation, this message is indicated the information such as the resource allocation conditions of next HS-DSCH transmission and modulation system.UE is also sometimes referred to as terminal.
Step S102:UE receives HS-DSCH according to information such as the resource allocation conditions of HS-SCCH indication and modulation systems.
Step S103:UE measures accordingly to HS-DSCH.
Step S104: according to the measurement result to HS-DSCH, UE selects suitable transmission block size and modulation system, and produce channel quality indication (Channel Quality Indicator, be called for short " CQI "), wherein the channel quality indication comprises recommendation modulation system RMF and recommends transmission block size RTBS.
The CQI that step S105:UE produces is at corresponding high-speed shared information channel (High SpeedShared Information Channel, abbreviation " HS-SICH ") reports to base-station node (Node BaseStation, be called for short " Node B "), Node B is also sometimes referred to as the base station.
Step S106:Node B sends to UE with new control information by HS-SCCH, returns step S101.
HS-SCCH is the down control channel that TD-HSDPA (being TD-SCDMA HSDPA) uses, and is a physical channel, and it is used for all relevant bottom control information of carrying.That is to say that under existing protocol, UE receives the data of HS-DSCH channel and must just can finish under the cooperation of HS-SCCH control information.HS-SCCH is shared by all UE that initiate the HSDPA business, but to single HS-DSCH Transmission Time Interval Transmission Time Interval (Transmission Timing Interval, be called for short " TTI "), each HS-SCCH can only be a relevant downlink signaling of UE carrying HS-DSCH.
HS-DSCH is service carrying channel, is mapped on this physical channel of high-speed physical downlink shared channel (HS-PDSCH) (HighSpeed-Physical Downlink Shared Channel is called for short " HS-PDSCH ").
In 3GPP, two kinds of dual-modes are arranged, one is time division duplex (Time Division Duplex is called for short " TDD "), one is Frequency Division Duplexing (FDD) (Frequency Division Duplex is called for short " FDD ").The HSDPA process of two kinds of access technologies is basically identical, but the sequential relationship of each interchannel that HSDPA relates to is different.
Fig. 2 shows among the TD-SCDMA, the sequential relationship of HS-SCCH, HS-PDSCH and HS-SICH interchannel.In this illustrated example, do not draw the special time slot in the TD-SCDMA frame structures such as DwPTS, UpPTS, 7 common time slots only are shown, HS-SCCH, HS-PDSCH and HS-SICH are distributed in respectively time slot 3,5 and 1; And HS-PDSCH only distributes and has taken a time slot, so this time slot is the first HS-PDSCH time slot of HS-DSCH channel, also is its last HS-PDSCH time slot simultaneously.
Correspondence is effectively HS-PDSCH distribution next time, the corresponding gap information of HS-DSCH carries at HS-SCCH, this information provides according to a restriction: to an appointment UE, between the HS-DSCH (on the time) of the HS-SCCH that carries the HS-DSCH corresponding information and first indication a n is arranged HS-SCCHThe skew of 〉=3 time slots.In this restriction, do not consider DwPTS and UpPTS.The corresponding gap information of HS-DSCH does not refer to two subframes subsequently, but always points to together or next subframe.
UE effectively follows HS-SICH to send the corresponding ACK/NACK of HS-DSCH at the next one need to following restriction: to an appointment UE, a n is arranged between the HS-PDSCH of a distribution (on the time) and the HS-SICH in the end HS-SICHThe skew of 〉=9 time slots.In this restriction, do not consider DwPTS and UpPTS.Therefore, the HS-SICH transmission needs always carrying out in a subframe behind the HS-DSCH.
Specific to Fig. 2, the first HS-PDSCH time slot that the HS-SCCH 201 of n subframe dispatches not is the HS-PDSCH 204 of this subframe, and should is the HS-PDSCH 202 of n+1 subframe, satisfies n because the latter is first HS-SCCHThe skew of 〉=3 time slots.Equally, the corresponding HS-SICH of the HS-PDSCH202 of n+1 subframe is not to be the HS-SICH 205 of n+2 subframe, and should be the HS-SICH 203 of n+3 subframe, satisfies n because the latter is first HS-SICHThe skew of 〉=9 time slots.
In existing protocol, each time HS-DSCH transmission must just can be finished under the cooperation of HS-SCCH signaling.With respect to large data packet traffic transmission, the expense of HS-SCCH signaling is less, yet the transmission for the small data packets business, such as packet voice (Voice over IP, be called for short " VoIP ") and so on internet protocol multimedia subsystem (IP Multimedia Subsystem, be called for short " IMS ") real time business, it is considerable that the expense of HS-SCCH signaling just seems, therefore must manage to reduce signaling consumption.
For adapting to the transmission of small data packets business such as VoIP, in the FDD-HSDPA system, introduced HS-SCCH Less operation, generally, be exactly that each transmission block transmits first and do not need HS-SCCH indication, but according to the configuration of high-level signaling, terminal is carried out blind check to predefined HS-PDSCH and is received the row cache of going forward side by side; And when first bust this retransmits, using new HS-SCCH type to cooperate transmission, control terminal merges the HS-PDSCH data of re-transmission and the data of blind check time institute buffer memory, thereby reaches the purpose of saving the HS-SCCH signaling.
Blind check comprises the detection that the relevant parameter (such as transmission block size, modulation system, coded system etc.) to receive data carries out, and (or) whether receive data sent to self detection.In FDD, terminal will use maximum 4 kinds of transmission block sizes to decoding data, to detect the transmission block parameter of receive data; And use the terminal iidentification of self that CRC (cyclic redundancy check (CRC)) result is carried out mask calculating, whether send to terminal self to detect data.
Fig. 3 shows a HS-SCCH Less process in the FDD system.
Step S401: terminal begins to receive HS-SCCH; After receiving Part 1, beginning step S402 and S403.
Whether the entrained UE sign of step S402: terminal judges HS-SCCH Part 1 points to self, if execution in step S407 then; Execution in step S403 then if not.
Step S403: the HS-PDSCH channel that terminal begins to receive and blind check is predetermined; Execution in step S404 afterwards.
Step S404: whether the predetermined HS-PDSCH channel of terminal judges has carried the UE sign of pointing to self, and whether CRC is correct.If, execution in step S405 then; Execution in step S406 then if not.
Step S405: terminal sends ACK and confirms to the base station.Afterwards, finish this operation.
Step S406: the data of terminal after with blind check are delivered in the BUFFER buffer memory of reservation.Afterwards, finish this operation.
Step S407: judge the whether novel HS-SCCH channel HS-SCCH channel of HS-SCCH Less operation (namely for) of HS-SCCH channel, if, execution in step S408 then; If not, execution in step S409 then.
Step S408: according to the indication of novel HS-SCCH, receive HS-PDSCH, and indicated with this HS-SCCH, the data that before are buffered among the BUFFER merge, decoding.Execution in step S410 afterwards.
Step S409: receive the indicated HS-PDSCH of conventional H S-SCCH channel, receive and carry out conventional HS-DSCH process.Afterwards, finish this operation.
Step S410: whether the HS-PDSCH CRC that terminal judges receives is correct.If, execution in step S411 then; Execution in step S412 then if not.
Step S411: terminal sends ACK to network, and finishes this operation.
Step S412: whether for the first time terminal judges retransmits, if, execution in step S413 then; If not, execution in step S414 then.
Step S413: the HS-PDSCH business datum after terminal will merge is cached among the BUFFER, and sends NACK to network.Finish afterwards this operation.
Step S414: terminal abandons the HS-PDSCH business datum that receives, and sends NACK to network.Finish afterwards this operation.
With reference to the FDD-HSDPA system, the TD-HSDPA system also can introduce above-mentioned HS-SCCHLess process, to reduce the HS-SCCH signaling consumption under some business.But because TD-HSDPA and FDD-HSDPA's is different, introduce this process, need to suitably revise.
Different from the FDD terminal, employed spreading code is shorter among the TD-SCDMA, and terminal need to be used joint detection algorithm, and the amount of calculation of this algorithm is larger, and then brings more power consumptions.Therefore, for the HS-SCCH Less process among the TD-HSDPA, if network is indicated on the predefine HS-PDSCH resource to terminal, the business datum that sends to the terminal of carrying out blind check of carrying is very few, namely, by the terminal predefined resource of blind check repeatedly, and it is very few to use this resource really to send to the number of times of this terminal, to cause this terminal to carry out too much insignificant blind check, then must cause the waste of terminal electric energy, because terminal is not to have sent on oneself the data to detecting to energy charge.
Therefore, there is scheme to propose, in TD-HSDPA, introduce the discontinuous distribution of HS-SCCH Less predefine blind detection resource, namely the TD-SCDMA terminal is not that each subframe is all carried out blind check, but by the requirement of disposing, within the cycle of certain-length, only require terminal blind check part subframe wherein.The blind check pattern that namely has been terminal configuration, terminal can be carried out the blind check operation by pattern, and is not configured to the subframe in the pattern, and terminal need not blind check.Network is only undertaken by terminal on discrete subframe of blind check at these, sends data to these terminals; For example, can configurating terminal in the first subframe blind check predefine resource of per 4 subframes, and need not blind check in other 3 subframes.Although this scheme has limited network and has sent the randomness of data to certain terminal, as long as parameter arranges rationally, just can be under the prerequisite of the professional real-time performance of assurance, reduce as much as possible terminal to being not the data that send to self are carried out blind check.
Simultaneously, be similar to HS-SCCH Less discontinuous reception (Discontinuous Reception, abbreviation " DRX ") process also is suggested, mainly tackle between professional quiet period, for example the terminal use is during speaking, its data receiver direction is mourned in silence substantially, because the other user is mainly listening.This DRX process allows terminal not detect data in blind check repeatedly, and when dispatch by HS-SCCH, carries out blind check within the cycle of a lengthening, namely reduces the frequency of execution blind check, thereby reaches the purpose of more power saving.And the state conversion between normal frequency, the low frequency blind check also can be controlled UE by signaling by network.
In addition, network also can pass through signaling, stops, starting the blind check operation of terminal, or reconfigure the predefine resource that terminal need to be carried out blind check.
At this, network has sent data to UE on a predefine resource, the data of this UE that have been called as this predefine resource " carrying "; If network sends data to UE a predefine resource, then be called as this predefine resource and " zero load " data of this UE.UE blind check on the predefine resource has detected the data that send to this UE, is called as UE and " detects " on this resource; If UE blind check on the predefine resource does not detect the data that send to this UE, be called as UE " inspection is empty " on this resource.
Easily see, on a predefine resource, " carrying " the UE data, might not " be detected " by this UE, and may " inspection empty "; And " zero load " data of UE, then almost " detected " by UE scarcely, and can be by " inspection is empty ".
In the total degree of UE blind check, unloaded number of times can directly have influence on the power consumption of UE.Usually, the operating current of UE radio frequency part is about 40～50 milliamperes during reception, is about 300 milliamperes during emission; The baseband portion electric current is generally about 80～120 milliamperes.Except main devices such as display screens, this two-part power consumption is the key factor that affects the UE duration of call.
From above-mentioned data as seen, power consumption accounts for 1/4～1/3 of the whole power consumptions of transmitting-receiving during this two parts accepting state.If VoIP is symmetrical service, it is impartial namely to receive and dispatch shared duration, can obtain simple assessment result, if do not consider the re-transmission factor, when unloaded number of times account for total blind check number of times 50% the time, power consumption increases about 25%; If account for 10% of total blind check number of times, power consumption increases about 3%.
From above-mentioned analysis as seen, network can dispose, control, change the blind check operation of UE, comprises the predefine resource of its blind check, the frequency of blind check, the start-stop of blind check etc.
But in existing communication agreement, the scheme that proposes, but do not control clearer and more definite regulation for the state of " carrying ", " zero load " of foundation UE in blind check operation, " detecting ", " inspection sky ", especially on be " zero load " number of times account for total blind check number of times proportion this affect the factor of UE power consumption, do not have clear and definite regulation.This will cause existing HS-SCCH Less process, can some the time bring business datum to transmit situation untimely or that the UE power consumption increases.
For example, network is after having disposed the blind check pattern of UE, if within a long period (for example a hundreds of subframe, several seconds even tens seconds), even if adopted the operations such as discontinuous distribution, HS-SCCH LessDRX, the bandwidth of resource that UE carries out blind check is during much larger than professional actual bandwidth, should network be adjusted blind check pattern or the blind check state of UE? a similar scene is, two users carry out first video calling, do not interrupt afterwards having closed video and having proceeded voice call in the situation of traffic.If at this moment network is not adjusted the blind check pattern of UE, will cause the bandwidth of UE blind detection resource much larger than practical business speed.
Equally, opposite with above-mentioned situation, with respect to a blind check pattern, when service rate improved within the long period (for example a hundreds of subframe, several seconds even tens seconds), for example, the user switches to visual telephone by the voice voip phone, then can cause the bandwidth of UE blind detection resource much smaller than practical business speed, if untimely adjustment then can cause the business datum transmission lag.
Summary of the invention
The object of the present invention is to provide blind check dispatching method and equipment in a kind of TDS-CDMA system, can in the situation that guarantees professional transmission, save the electric energy of terminal.
For solving the problems of the technologies described above, embodiments of the present invention provide blind check dispatching method in a kind of TDS-CDMA system, may further comprise the steps:
Predetermined blind check parameter to subscriber equipment is measured;
, measurement result changes the blind check frequency of this subscriber equipment and the density of blind detection resource if satisfying predetermined condition.
Embodiments of the present invention also provide a kind of network equipment of TDS-CDMA system, comprising:
Measuring unit is used for the predetermined blind check parameter of subscriber equipment is measured;
Judging unit is used for judging whether the measurement result of measuring unit gained satisfies predetermined condition;
Scheduling unit is used for changing the blind check frequency of subscriber equipment and the density of blind detection resource when judging unit judges that measurement result satisfies predetermined condition.
Embodiment of the present invention compared with prior art, the main distinction and effect thereof are:
By in the blind check process of TD-SCDMA, introducing scheduling operation, the physical resource of having avoided UE not carry data accounts for the excessive situation of whole blind detection resource proportions, avoided UE that electric energy is too much expended in the blind check to the predefine resource that do not send data to self, thereby in the situation that guarantees professional transmission, reach the purpose of saving the UE electric energy.
Further, determined the adjustment step-length of blind check frequency by the desired value that presets thresholding and load-carry duty, can larger adjusting range be arranged when larger presetting thresholding and desired value gap, hour less adjusting range be arranged presetting thresholding and desired value gap, thereby realize adjusting the self adaptation of step-length.
Further, dispatched by aerial signaling by network, the content of scheduling is more flexible, and the state of network and UE can be synchronous preferably.Trigger scheduling by UE according to pre-configured specified conditions, can need not the mutual of aerial signaling, save radio resources.
Description of drawings
Fig. 1 is the physical layer procedure schematic diagram of HSDPA in the prior art;
Fig. 2 be HS-SCCH time slot in the existing TDD system, HS-PDSCH time slot, and the HS-SICH time slot between sequential chart;
Fig. 3 is a HS-SCCH Less process schematic diagram in the existing FDD system;
Fig. 4 is blind check dispatching method schematic flow sheet in the TD-SCDMA system in the first embodiment of the invention;
Fig. 5 is the TDD system dynamic blind check scheduling process example flow diagram in the first embodiment of the invention.
Embodiment
In the following description, in order to make the reader understand the application better many ins and outs have been proposed.But, persons of ordinary skill in the art may appreciate that even without these ins and outs with based on many variations and the modification of following each execution mode, also can realize each claim of the application technical scheme required for protection.
For making the purpose, technical solutions and advantages of the present invention clearer, below in conjunction with accompanying drawing embodiments of the present invention are described in further detail.
In the present invention, network or communication protocol are carried out the configuration of the physical resource of blind check to UE in specific sub-frame (or frame, TTI, cycle), are called " blind check pattern " or " predefine pattern "; If the HS-PDSCH that HS-SCCH dispatches is positioned at i subframe (or frame, TTI), then be called UE in i subframe (or frame, TTI) " being dispatched by HS-SCCH "; In HS-SCCH Less process, by the HS-SCCH scheduling, send data retransmission, be called as HS-SCCH " retransfer scheduling "; The blind check frequency refers to the number of times of UE blind check within a period of time, is used for weighing the frequent degree of UE blind check operation.
First embodiment of the invention relates to blind check dispatching method in a kind of TD-SCDMA system, and its flow process as shown in Figure 4.
In step 401, the parameter that network configuration is relevant with HS-SCCH Less process and the trigger condition of scheduling can be the part or all of of following information:
In the N1.HS-SCCH Less process, the parameter of measuring employed parameter and need measuring in the present embodiment is called these parameters predetermined blind check parameter.Predetermined blind check parameter comprises one of following or its combination in any:
N1.1 measurement window w is used for the related time span of configuration one-shot measurement; W can take the time cycle as unit, such as subframe, frame, TTI, blind check cycle etc.; Also can express with the blind check number of times, this moment, its implication was consistent with " UE carries out the number of times m of blind check " among the N1.2, and the real time width of measurement window is equivalent to the corresponding time span of UE m blind check of execution;
In the corresponding time span of N1.2 measurement window, UE carries out the number of times m of blind check;
N1.3 sends the number of times c of data to UE on the predefine resource, namely in m the blind check of N1.2, network is to the number of times of UE transmission data, that is the number of times of carrying;
N1.4 does not send the number of times k of data to UE on the predefine resource, namely in m the blind check of N1.2, network does not send the number of times of data to UE, that is unloaded number of times;
N1.5 receives the number of times s that HS-SICH is correctly fed back in the UE blind check, and namely in m the blind check of N1.2, network receives the number of times that HS-SICH is correctly fed back in the UE blind check;
N1.6 is on the subframe (or frame, TTI) of UE blind check pattern, the number of times r that is dispatched by HS-SCCH is namely in the corresponding time span of measurement window, if do not dispatched by HS-SCCH, the blind check number of times that UE should carry out, and the difference between the actual blind check number of times m.
In the N2.HS-SCCH Less process, the condition that need to dispatch the blind check of UE, and to the target that the blind check of UE is dispatched, comprise following parameters partly or entirely:
N2.1. network need be heightened the threshold value Ta of UE blind check frequency, and Ta is called again first and presets thresholding in the embodiment of the present invention;
N2.2. network need be turned down the threshold value Tb of UE blind check frequency, and Tb is called again second and presets thresholding in the embodiment of the present invention;
N2.3. network is adjusted the desired target G that reaches of UE blind check frequency;
G can be load-carry duty, namely in the number of times of UE blind check, carry the number of times proportion of these UE data, or the number of times that carries these UE data and the ratio that does not carry the number of times of these UE data, or based on above-mentioned proportion or ratio calculation and one with the numerical value that carries the number of times proportion and be directly proportional;
G also can be no-load ratio, namely in the number of times of UE blind check, do not carry the number of times proportion of these UE data, or the ratio of the number of times that does not carry these UE data and the number of times of these UE data of carrying, or based on above-mentioned proportion or ratio calculation and a numerical value that is directly proportional with unloaded number of times proportion.
N2.4. network need be adjusted the trigger condition of UE blind check frequency.
After this enter step 402, the predetermined blind check parameter of UE is measured.
When measuring, the corresponding time span of step-length of network slip measurement window w can be a subframe, frame, TTI, blind check cycle etc.Be network in current subframe, frame, TTI, on the blind check cycle, statistics comprise this subframe, frame, TTI, blind check cycle before result in the corresponding time span of w, comprise statistics blind check number of times m, carrying number of times c, unloaded number of times k etc., obtain measurement result; Afterwards, the moment that next time obtains measurement result is, after the corresponding time span of step-length of next subframe, frame, TTI, blind check cycle or w.
After this enter step 403, whether measurement result satisfies predetermined condition, if yes then enter step 404, measures otherwise get back to step 402 next time.
In step 404, UE is dispatched, wherein key is to change the blind check frequency of this UE and the density of blind detection resource.After this get back to step 402 measures next time.
By in the blind check process of TD-SCDMA, introducing scheduling operation, the physical resource of having avoided UE not carry data accounts for the excessive situation of whole blind detection resource proportions, avoided UE that electric energy is too much expended in the blind check to the predefine resource that do not send data to self, thereby in the situation that guarantees professional transmission, reach the purpose of saving the UE electric energy.
Specifically, in the present embodiment, load-carry duty is defined as c/m or c/w or c/k, and predetermined condition and corresponding scheduling actions are as follows:
If load-carry duty, is then heightened the blind check frequency of UE and the density of blind detection resource greater than Ta.In the better example of effect of the present invention, when load-carry duty was c/m, Ta was 95%, and when load-carry duty was c/k, Ta was 19.
If load-carry duty, is then turned down the blind check frequency of UE and the density of blind detection resource less than Tb.In the better example of effect of the present invention, when load-carry duty was c/m, Tb was 50%, and when load-carry duty was c/k, Tb was 1.
In some examples of the invention, in the above-mentioned predetermined condition " greater than " can replace with " more than or equal to ", " less than " can replace with " less than or equal to ".
When load-carry duty was c/m, the step-length of at every turn heightening the blind check frequency was: Ta/G-1.The step-length of at every turn turning down the blind check frequency is: 1-Tb/G.In the better example of effect of the present invention, G is 85%.
Determined the adjustment step-length of blind check frequency by the desired value G that presets thresholding and load-carry duty, can larger adjusting range be arranged when larger presetting thresholding and desired value gap, hour less adjusting range is arranged presetting thresholding and desired value gap, thereby realize adjusting the self adaptation of step-length.
The adjustment step-length that is appreciated that the blind check frequency also can be a fixed value, or based on a variable value of other formula.
When changing the blind check frequency of UE, one of can be in the following manner or its combination in any realize heightening or turning down of blind check frequency:
1. network is carried out the subframe of blind check or the number of frame or TTI by blind check cycle, the blind check cycle planted agent that aerial signaling reconfigures UE, and aerial signaling comprises the RRC signaling, the scheduling of HS-SCCH, the scheduling of HS-SCCH order etc.; Can be by strengthening the blind check cycle of UE, and/or reduce the number of son that blind check cycle planted agent carries out blind check, frame, TTI, to reduce the blind check frequency; Also can be by reducing the blind check cycle of UE, and/or increase the number of son that blind check cycle planted agent carries out blind check, frame, TTI, to improve the blind check frequency.
2. network is periodically dispatched UE by aerial signaling and is entered or withdraw from HS-SCCH Less state, and aerial signaling comprises the RRC signaling, the scheduling of HS-SCCH, the scheduling of HS-SCCH order etc.
3.UE according to the configuration of network, when the proportion that accounts for the blind check number of times at the number of times of these UE data of carrying is lower than predetermined threshold, the automatic pause blind check, or carry out blind check with pre-configured lower blind check frequency.
4.UE according to the configuration of network, when being dispatched by HS-SCCH, automatically improve within a predetermined period of time the blind check frequency.
UE is dispatched by aerial signaling by network, the content of scheduling is more flexible, and the state of network and UE can be synchronous preferably.Trigger scheduling by UE according to pre-configured specified conditions, can need not the mutual of aerial signaling, save radio resources.
For present embodiment is described better, figure 5 illustrates an example of the dynamic dispatching process of the HS-SCCH Less state that the is in UE blind check in the TD-HSDPA system.
S501. network configuration enters S502 afterwards about the following information of HS-SCCH Less process; These information comprise:
W=100 blind check of measurement window namely judged the every blind check of UE 100 times, exports a measurement result;
Network should be heightened the threshold value Ta=load-carry duty 95% of UE blind check frequency, i.e. the every blind check of UE 100 times has 95 times in the data of this UE of predefine resource bearing;
Network should be turned down the threshold value Tb=load-carry duty 50% of UE blind check frequency, i.e. the every blind check of UE 100 times has 50 times in the data of this UE of predefine resource bearing;
Network is adjusted the target G=85% of UE blind check frequency, and the every blind check of UE 100 times has 85 times in the data of this UE of predefine resource bearing;
S502. network measure is in the UE of HS-SCCH Less state, judges whether UE should carry out blind check, and statistics sends the number of times c of data to UE on the number of times of UE blind check, when the every blind check of UE 100 times, exports one time statistics; Enter afterwards step S503;
S503. the load-carry duty of this UE of network calculations is c/w; Enter afterwards step S504;
S504. whether network judges load-carry duty greater than Ta, if, execution in step S505 then; If not, execution in step S506 then;
S505. network improves approximately (Ta/G-1) (being about 12% in this example) with the blind check frequency of UE, and the peak of blind check frequency is continuous blind check, and namely each subframe of UE all should be carried out blind check; Namely, should be carried out subframe, the frame of blind check the blind check cycle of UE, the number of TTI improves about 12%; Afterwards, enter step S506;
S506. whether network judges load-carry duty less than Tb, if, execution in step S507 then; If not, execution in step S508 then;
S507. network reduces approximately (1-Tb/G) (being about 41% in this example) with the blind check frequency of UE, and the minimum of blind check frequency is time-out blind check state, or UE does not carry out blind check continuously; Namely, should be carried out subframe, the frame of blind check the blind check cycle of UE, the number of TTI reduces about 41%; Afterwards, enter step S508;
S508. network judges whether UE also is in HS-SCCH Less state, if, execution in step S502 then; If not, execution in step S509 then;
S509. network finishes the adjustment to the blind check process of the UE that withdraws from HS-SCCH Less state.
In the above-mentioned S502 step, network judges that the method whether UE carries out blind check is, when network configuration UE has entered HS-SCCH Less state, and carry out on the predefine resource of blind check distributing to UE, if on the subframe at this resource place, frame, TTI network not the HS-SCCH by before dispatch, judge that then UE should carry out blind check on this subframe, frame, TTI.
From above-mentioned steps as seen, when network is judged, in per 100 blind checks of UE, more than the data of all carrying this UE 95 times, then network configuration UE improves the frequency of blind check, avoids because when a large amount of IP bags occurring and arriving out of the blue, postponing appears in transmission; In per 100 blind checks of UE, when being less than the data of carrying this UE 50 times, then network configuration UE reduces the frequency of blind check, avoids UE to expend too much electric energy.The target that network expection reaches is, the every blind check of UE 100 times has the data of carrying this UE 85 times.
Second embodiment of the invention relates to blind check dispatching method in a kind of TD-SCDMA system.The second execution mode and the first execution mode are basic identical, and difference mainly is:
Describe predetermined condition with load-carry duty in the first execution mode, and describe predetermined condition with no-load ratio in the second execution mode, wherein no-load ratio is defined as k/m or k/w or k/c.
In the second execution mode, predetermined condition and corresponding scheduling actions are as follows:
If no-load ratio, is then heightened the blind check frequency of UE and the density of blind detection resource less than Ta, in the better example of effect of the present invention, when load-carry duty was c/m, Ta was 5%, and when load-carry duty was c/k, Ta was 1/19.
If no-load ratio, is then turned down the blind check frequency of UE and the density of blind detection resource greater than Tb, in the better example of effect of the present invention, when load-carry duty was c/m, Tb was 50%, and when load-carry duty was c/k, Tb was 1.
Method execution mode of the present invention can be realized in software, hardware, firmware etc. mode.No matter the present invention realizes with software, hardware or firmware mode, instruction code can be stored in the memory of computer-accessible of any type (for example permanent or revisable, volatibility or non-volatile, solid-state or non-solid-state, medium fixing or that change etc.).Equally, memory can for example be programmable logic array (Programmable Array Logic, be called for short " PAL "), random access memory (Random Access Memory, be called for short " RAM "), programmable read only memory (Programmable Read Only Memory, be called for short " PROM "), read-only memory (Read-Only Memory, be called for short " ROM "), Electrically Erasable Read Only Memory (Electrically Erasable Programmable ROM, be called for short " EEPROM "), disk, CD, digital versatile disc (Digital Versatile Disc is called for short " DVD ") etc.
Third embodiment of the invention relates to the network equipment of a kind of TD-SCDMA system.This equipment comprises:
Measuring unit is used for the predetermined blind check parameter of UE is measured.Predetermined blind check parameter comprises one of following or its combination in any:
Measurement window w; In the corresponding time span of measurement window, UE carries out the number of times m of blind check; In m blind check, network sends the number of times c of data to UE; In m blind check, network does not send the number of times k of data to UE; In m blind check, network is received the number of times s of the correct feedback of UE blind check from HS-SICH; Be on subframe, frame or the TTI of UE blind check pattern the number of times r that is dispatched by HS-SCCH.
Judging unit is used for judging whether the measurement result of measuring unit gained satisfies predetermined condition.If judging unit judges that load-carry duty presets thresholding (Ta) greater than first, then indicate scheduling unit to heighten the blind check frequency of UE and the density of blind detection resource; If judging unit judges that load-carry duty presets thresholding (Tb) less than second, then indicate scheduling unit to turn down the blind check frequency of UE and the density of blind detection resource.Wherein load-carry duty is c/m or c/w or c/k.
Scheduling unit is used for changing the blind check frequency of UE and the density of blind detection resource when judging unit judges that measurement result satisfies predetermined condition.By introduce scheduling operation in the blind check process of TD-SCDMA, the physical resource of having avoided UE not carry data accounts for the excessive situation of whole blind detection resource proportions, thereby in the situation that guarantees professional transmission, reaches the purpose of saving the UE electric energy.
Scheduling unit one of can be in the following manner or its combination in any realize heightening or turning down of blind check frequency:
Blind check cycle, the blind check cycle planted agent who reconfigures UE by aerial signaling carries out the subframe of blind check or the number of frame or TTI;
Periodically dispatch UE by aerial signaling and enter or withdraw from HS-SCCH Less state;
UE is configured to, when the proportion that accounts for the blind check number of times at the number of times of these UE data of carrying is lower than predetermined threshold, the automatic pause blind check, or carry out blind check with pre-configured lower blind check frequency;
UE is configured to, when being dispatched by HS-SCCH, automatically improves within a predetermined period of time the blind check frequency.
The first execution mode is the method execution mode corresponding with present embodiment, present embodiment can with the enforcement of working in coordination of the first execution mode.The correlation technique details of mentioning in the first execution mode is still effective in the present embodiment, in order to reduce repetition, repeats no more here.Correspondingly, the correlation technique details of mentioning in the present embodiment also can be applicable in the first execution mode.
Four embodiment of the invention relates to the network equipment of a kind of TD-SCDMA system.
The 4th execution mode and the 3rd execution mode are basic identical, and difference mainly is: describe predetermined condition with load-carry duty in the 3rd execution mode, and describe predetermined condition with no-load ratio in the 4th execution mode, wherein no-load ratio is defined as k/m or k/w or k/c.
In the 4th execution mode, if judging unit judges that no-load ratio presets thresholding (Ta) less than first, then indicate scheduling unit to heighten the blind check frequency of UE and the density of blind detection resource; If judging unit judges that no-load ratio presets thresholding (Tb) greater than second, then indicate scheduling unit to turn down the blind check frequency of UE and the density of blind detection resource.
The second execution mode is the method execution mode corresponding with present embodiment, present embodiment can with the enforcement of working in coordination of the second execution mode.The correlation technique details of mentioning in the second execution mode is still effective in the present embodiment, in order to reduce repetition, repeats no more here.Correspondingly, the correlation technique details of mentioning in the present embodiment also can be applicable in the second execution mode.
Need to prove, each unit of mentioning in the present device execution mode (the 3rd, the 4th execution mode) all is logical block, physically, a logical block can be a physical location, it also can be the part of a physical location, can also realize that the physics realization mode of these logical blocks itself is not most important with the combination of a plurality of physical locations, the combination of the function that these logical blocks realize is the key that just solves technical problem proposed by the invention.In addition, for outstanding innovation part of the present invention, the said equipment execution mode of the present invention will not introduced not too close unit with solving technical problem relation proposed by the invention, and this does not show that there is not other unit in the said equipment execution mode.
Although pass through with reference to some of the preferred embodiment of the invention, the present invention is illustrated and describes, but those of ordinary skill in the art should be understood that and can do various changes to it in the form and details, and without departing from the spirit and scope of the present invention.

Claims (16)

1. blind check dispatching method in the TDS-CDMA system is characterized in that, may further comprise the steps:
Predetermined blind check parameter to subscriber equipment is measured;
, measurement result changes the blind check frequency of this subscriber equipment and the density of blind detection resource if satisfying predetermined condition;
Described predetermined blind check parameter comprises one of following or its combination in any:
Measurement window w;
In the corresponding time span of measurement window, subscriber equipment is carried out the number of times m of blind check;
In m blind check, network sends the number of times c of data to subscriber equipment;
In m blind check, network does not send the number of times k of data to subscriber equipment;
In m blind check, network is received the number of times s of the correct feedback of subscriber equipment blind check from high-speed shared information channel;
Be on subframe, frame or the Transmission Time Interval of subscriber equipment blind check pattern the number of times r that is dispatched by High-Speed Shared Control Channel;
The step that changes the density of the blind check frequency of this subscriber equipment and blind detection resource if described measurement result satisfies predetermined condition comprises following substep one or a combination set of:
If load-carry duty presets thresholding greater than first, then heighten the blind check frequency of described subscriber equipment and the density of blind detection resource;
If load-carry duty presets thresholding less than second, then turn down the blind check frequency of described subscriber equipment and the density of blind detection resource;
Wherein load-carry duty is c/m or c/w or c/k.
2. blind check dispatching method in the TDS-CDMA system according to claim 1 is characterized in that, when described load-carry duty was c/m, described the first preset gate was limited to 95%, and described the second preset gate is limited to 50%;
When described load-carry duty was c/k, described the first preset gate was limited to 19, and described the second preset gate is limited to 1.
3. blind check dispatching method in the TDS-CDMA system according to claim 2 is characterized in that, when described load-carry duty is c/m, and in the step of the blind check frequency of described this subscriber equipment of change,
The step-length of at every turn heightening the blind check frequency is: first presets the desired value-1 of thresholding/load-carry duty;
The step-length of at every turn turning down the blind check frequency is: 1-second presets the desired value of thresholding/load-carry duty.
4. blind check dispatching method in the TDS-CDMA system according to claim 3 is characterized in that, when described load-carry duty was c/m, the desired value of described load-carry duty was 85%.
5. blind check dispatching method in each described TDS-CDMA system in 4 according to claim 1, it is characterized in that, in the step of the blind check frequency of described change subscriber equipment, one of can be in the following manner or its combination in any realize heightening or turning down of blind check frequency:
Network is carried out the subframe of blind check or the number of frame or Transmission Time Interval by blind check cycle, the blind check cycle planted agent that aerial signaling reconfigures subscriber equipment;
Network by aerial signaling periodically scheduling user's set enter or withdraw from High-Speed Shared Control Channel Less state;
Subscriber equipment is according to the configuration of network, when the proportion that accounts for the blind check number of times at the number of times of this customer equipment data of carrying is lower than predetermined threshold, and the automatic pause blind check, or carry out blind check with pre-configured lower blind check frequency;
Subscriber equipment when being dispatched by High-Speed Shared Control Channel, improves the blind check frequency according to the configuration of network automatically within a predetermined period of time.
6. blind check dispatching method in the TDS-CDMA system according to claim 5 is characterized in that, described aerial signaling is one of following:
Radio resource control signaling, the scheduling of High-Speed Shared Control Channel, the scheduling of High-Speed Shared Control Channel order.
7. blind check dispatching method in the TDS-CDMA system according to claim 6, it is characterized in that, blind check cycle, the blind check cycle planted agent that described network reconfigures subscriber equipment by aerial signaling carries out in the mode of number of the subframe of blind check or frame or Transmission Time Interval
By strengthening the blind check cycle of subscriber equipment, and/or reduce the number of son that blind check cycle planted agent carries out blind check, frame, Transmission Time Interval, to reduce the blind check frequency;
By reducing the blind check cycle of subscriber equipment, and/or increase the number of son that blind check cycle planted agent carries out blind check, frame, Transmission Time Interval, to improve the blind check frequency.
8. blind check dispatching method in the TDS-CDMA system is characterized in that, may further comprise the steps:
Predetermined blind check parameter to subscriber equipment is measured;
, measurement result changes the blind check frequency of this subscriber equipment and the density of blind detection resource if satisfying predetermined condition;
Described predetermined blind check parameter comprises one of following or its combination in any:
Measurement window w;
In the corresponding time span of measurement window, subscriber equipment is carried out the number of times m of blind check;
In m blind check, network sends the number of times c of data to subscriber equipment;
In m blind check, network does not send the number of times k of data to subscriber equipment;
In m blind check, network is received the number of times s of the correct feedback of subscriber equipment blind check from high-speed shared information channel;
Be on subframe, frame or the Transmission Time Interval of subscriber equipment blind check pattern the number of times r that is dispatched by High-Speed Shared Control Channel;
The step that changes the density of the blind check frequency of this subscriber equipment and blind detection resource if described measurement result satisfies predetermined condition comprises following substep one or a combination set of:
If no-load ratio presets thresholding less than first, then heighten the blind check frequency of described subscriber equipment and the density of blind detection resource;
If no-load ratio presets thresholding greater than second, then turn down the blind check frequency of described subscriber equipment and the density of blind detection resource;
Wherein no-load ratio is k/m or k/w or k/c.
9. blind check dispatching method in the TDS-CDMA system according to claim 8 is characterized in that, when described no-load ratio was k/m, described the first preset gate was limited to 5%, and described the second preset gate is limited to 50%;
When described no-load ratio was k/c, described the first preset gate was limited to 1/19, and described the second preset gate is limited to 1.
10. blind check dispatching method according to claim 8 or in the 9 described TDS-CDMA system, it is characterized in that, in the step of the blind check frequency of described change subscriber equipment, one of can be in the following manner or its combination in any realize heightening or turning down of blind check frequency:
Network is carried out the subframe of blind check or the number of frame or Transmission Time Interval by blind check cycle, the blind check cycle planted agent that aerial signaling reconfigures subscriber equipment;
Network by aerial signaling periodically scheduling user's set enter or withdraw from High-Speed Shared Control Channel Less state;
Subscriber equipment is according to the configuration of network, when the proportion that accounts for the blind check number of times at the number of times of this customer equipment data of carrying is lower than predetermined threshold, and the automatic pause blind check, or carry out blind check with pre-configured lower blind check frequency;
Subscriber equipment when being dispatched by High-Speed Shared Control Channel, improves the blind check frequency according to the configuration of network automatically within a predetermined period of time.
11. the blind check dispatching method is characterized in that in the TDS-CDMA system according to claim 10, described aerial signaling is one of following:
Radio resource control signaling, the scheduling of High-Speed Shared Control Channel, the scheduling of High-Speed Shared Control Channel order.
12. blind check dispatching method in the TDS-CDMA system according to claim 10, it is characterized in that, blind check cycle, the blind check cycle planted agent that described network reconfigures subscriber equipment by aerial signaling carries out in the mode of number of the subframe of blind check or frame or Transmission Time Interval
By strengthening the blind check cycle of subscriber equipment, and/or reduce the number of son that blind check cycle planted agent carries out blind check, frame, Transmission Time Interval, to reduce the blind check frequency;
By reducing the blind check cycle of subscriber equipment, and/or increase the number of son that blind check cycle planted agent carries out blind check, frame, Transmission Time Interval, to improve the blind check frequency.
13. the network equipment of a TDS-CDMA system is characterized in that, comprising:
Measuring unit is used for the predetermined blind check parameter of subscriber equipment is measured;
Judging unit is used for judging whether the measurement result of described measuring unit gained satisfies predetermined condition;
Scheduling unit is used for judging that at described judging unit described measurement result changes the blind check frequency of described subscriber equipment and the density of blind detection resource when satisfying predetermined condition;
Described predetermined blind check parameter comprises one of following or its combination in any:
Measurement window w;
In the corresponding time span of measurement window, subscriber equipment is carried out the number of times m of blind check;
In m blind check, network sends the number of times c of data to subscriber equipment;
In m blind check, network does not send the number of times k of data to subscriber equipment;
In m blind check, network is received the number of times s of the correct feedback of subscriber equipment blind check from high-speed shared information channel;
Be on subframe, frame or the Transmission Time Interval of subscriber equipment blind check pattern the number of times r that is dispatched by High-Speed Shared Control Channel;
If described judging unit judges that load-carry duty presets thresholding greater than first, then described scheduling unit is heightened the blind check frequency of described subscriber equipment and the density of blind detection resource;
If described judging unit judges that load-carry duty presets thresholding less than second, then described scheduling unit is turned down the blind check frequency of described subscriber equipment and the density of blind detection resource;
Wherein load-carry duty is c/m or c/w or c/k.
14. the network equipment of TDS-CDMA system according to claim 13 is characterized in that, described scheduling unit one of can be in the following manner or its combination in any realize heightening or turning down of blind check frequency:
Blind check cycle, the blind check cycle planted agent who reconfigures subscriber equipment by aerial signaling carries out the subframe of blind check or the number of frame or Transmission Time Interval;
By aerial signaling periodically scheduling user's set enter or withdraw from High-Speed Shared Control Channel Less state;
With user device configuration be, when the proportion that accounts for the blind check number of times at the number of times of this customer equipment data of carrying is lower than predetermined threshold, the automatic pause blind check, or carry out blind check with pre-configured lower blind check frequency;
Be when being dispatched by High-Speed Shared Control Channel, automatically to improve within a predetermined period of time the blind check frequency with user device configuration.
15. the network equipment of a TDS-CDMA system is characterized in that, comprising:
Measuring unit is used for the predetermined blind check parameter of subscriber equipment is measured;
Judging unit is used for judging whether the measurement result of described measuring unit gained satisfies predetermined condition;
Scheduling unit is used for judging that at described judging unit described measurement result changes the blind check frequency of described subscriber equipment and the density of blind detection resource when satisfying predetermined condition;
Described predetermined blind check parameter comprises one of following or its combination in any:
Measurement window w;
In the corresponding time span of measurement window, subscriber equipment is carried out the number of times m of blind check;
In m blind check, network sends the number of times c of data to subscriber equipment;
In m blind check, network does not send the number of times k of data to subscriber equipment;
In m blind check, network is received the number of times s of the correct feedback of subscriber equipment blind check from high-speed shared information channel;
Be on subframe, frame or the Transmission Time Interval of subscriber equipment blind check pattern the number of times r that is dispatched by High-Speed Shared Control Channel;
If described judging unit judges that no-load ratio presets thresholding less than first, then described scheduling unit is heightened the blind check frequency of described subscriber equipment and the density of blind detection resource;
If described judging unit judges that no-load ratio presets thresholding greater than second, then described scheduling unit is turned down the blind check frequency of described subscriber equipment and the density of blind detection resource;
Wherein no-load ratio is k/m or k/w or k/c.
16. the network equipment of TDS-CDMA system according to claim 15 is characterized in that, described scheduling unit one of can be in the following manner or its combination in any realize heightening or turning down of blind check frequency:
Blind check cycle, the blind check cycle planted agent who reconfigures subscriber equipment by aerial signaling carries out the subframe of blind check or the number of frame or Transmission Time Interval;
By aerial signaling periodically scheduling user's set enter or withdraw from High-Speed Shared Control Channel Less state;
With user device configuration be, when the proportion that accounts for the blind check number of times at the number of times of this customer equipment data of carrying is lower than predetermined threshold, the automatic pause blind check, or carry out blind check with pre-configured lower blind check frequency;
Be when being dispatched by High-Speed Shared Control Channel, automatically to improve within a predetermined period of time the blind check frequency with user device configuration.
CN2008100435239A 2008-06-19 2008-06-19 Blind detection dispatching method and blind detection dispatching equipment for time division-synchronous code division multiple access system Active CN101610546B (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CN2008100435239A CN101610546B (en) 2008-06-19 2008-06-19 Blind detection dispatching method and blind detection dispatching equipment for time division-synchronous code division multiple access system

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN2008100435239A CN101610546B (en) 2008-06-19 2008-06-19 Blind detection dispatching method and blind detection dispatching equipment for time division-synchronous code division multiple access system

Publications (2)

Publication Number Publication Date
CN101610546A CN101610546A (en) 2009-12-23
CN101610546B true CN101610546B (en) 2013-10-30

Family

ID=41484072

Family Applications (1)

Application Number Title Priority Date Filing Date
CN2008100435239A Active CN101610546B (en) 2008-06-19 2008-06-19 Blind detection dispatching method and blind detection dispatching equipment for time division-synchronous code division multiple access system

Country Status (1)

Country Link
CN (1) CN101610546B (en)

Families Citing this family (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN103152814B (en) * 2011-12-06 2015-08-12 联芯科技有限公司 The confirmation method of synchronous code and device thereof

Citations (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN1355621A (en) * 2000-11-25 2002-06-26 深圳市中兴通讯股份有限公司 Switching method based on dual-window measurement of mobile station
CN101022639A (en) * 2007-03-15 2007-08-22 中兴通讯股份有限公司 Method for enhancing mobile terminal measuring ability
CN101119277A (en) * 2006-08-03 2008-02-06 北京三星通信技术研究有限公司 Device and method for transmitting control signalling

Patent Citations (3)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN1355621A (en) * 2000-11-25 2002-06-26 深圳市中兴通讯股份有限公司 Switching method based on dual-window measurement of mobile station
CN101119277A (en) * 2006-08-03 2008-02-06 北京三星通信技术研究有限公司 Device and method for transmitting control signalling
CN101022639A (en) * 2007-03-15 2007-08-22 中兴通讯股份有限公司 Method for enhancing mobile terminal measuring ability

Also Published As

Publication number Publication date
CN101610546A (en) 2009-12-23

Similar Documents

Publication Publication Date Title
US10015747B2 (en) Method and apparatus for providing efficient discontinuous communication
US9451547B2 (en) Coordinated signaling of scheduling information for uplink and downlink communications
US6745044B1 (en) Method and apparatus for determining available transmit power in a wireless communication system
CN101272233B (en) A method for scheduling of service data in downlink, a base station, a user terminal and a communication network therefor
CN100442915C (en) Dispatching method for high speed data transmission in mobile communication system
US6993343B2 (en) Base station device and wireless communication method
CN101646202B (en) Realizing method of semi-static dispatching downlink transmission
EP3247155A1 (en) Paging method and apparatus for communication of m2m/mtc device operating in high power saving reception mode in a mobile communication system, and system thereof
US20100080176A1 (en) Method and apparatus for scheduling downlink transmissions in an orthogonal frequency division multiplexing communication system
US7945258B2 (en) Wireless device operable to manipulate high-speed shared control channel (HSSCCH) quality control through channel quality indication report manipulation
CN101843012A (en) Method of controlling power in wireless communication system
JP2001519123A (en) Method and apparatus for scheduling data transfer in a communication network
Polignano et al. Power savings and QoS impact for VoIP application with DRX/DTX feature in LTE
JP2005027306A (en) Method and apparatus for improving scheduler performance in wireless packet data system
US8780733B2 (en) Radio communication system for supporting hybrid automatic repeat request (HARQ) and data transmission method
US20070165575A1 (en) Mobile station, base station, communication system, and communication method
US10924206B2 (en) Adaptive modulation and coding method and base station
US7599320B2 (en) Enhanced-transport format combination power margin for uplink
EP2525520A1 (en) Method and a radio communication node for data transmission when HARQ feedback and measurement gap collide
CN101610097B (en) Blind detection receiving/sending method and blind detection receiving/sending equipment in time division-synchronous code division multiple access system
CN101610546B (en) Blind detection dispatching method and blind detection dispatching equipment for time division-synchronous code division multiple access system
CN102123508B (en) Time slot resource allocation method and device
CN1984059A (en) Method and system for transmitting scheduling information in wireless network
CN101610574B (en) Receiving/sending method and receiving/sending equipment in time division-synchronous code division multiple access system
CN105830376A (en) Adaptive modulation and coding method and apparatus

Legal Events

Date Code Title Description
C06 Publication
PB01 Publication
C10 Entry into substantive examination
SE01 Entry into force of request for substantive examination
C14 Grant of patent or utility model
GR01 Patent grant
C41 Transfer of patent application or patent right or utility model
TR01 Transfer of patent right

Effective date of registration: 20170112

Address after: Room 32, building 3205F, No. 707, Zhang Yang Road, free trade zone,, China (Shanghai)

Patentee after: Xin Xin Finance Leasing Co.,Ltd.

Address before: 201203 Shanghai city Zuchongzhi road Pudong Zhangjiang hi tech park, Spreadtrum Center Building 1, Lane 2288

Patentee before: Spreadtrum Communications (Shanghai) Co.,Ltd.

TR01 Transfer of patent right

Effective date of registration: 20170707

Address after: 100033 room 2062, Wenstin Executive Apartment, 9 Financial Street, Beijing, Xicheng District

Patentee after: Xin Xin finance leasing (Beijing) Co.,Ltd.

Address before: Room 32, building 707, Zhang Yang Road, China (Shanghai) free trade zone, 3205F

Patentee before: Xin Xin Finance Leasing Co.,Ltd.

TR01 Transfer of patent right
EE01 Entry into force of recordation of patent licensing contract
EE01 Entry into force of recordation of patent licensing contract

Application publication date: 20091223

Assignee: SPREADTRUM COMMUNICATIONS (SHANGHAI) Co.,Ltd.

Assignor: Xin Xin finance leasing (Beijing) Co.,Ltd.

Contract record no.: 2018990000163

Denomination of invention: Blind detection dispatching method and blind detection dispatching equipment for time division-synchronous code division multiple access system

Granted publication date: 20131030

License type: Exclusive License

Record date: 20180626

TR01 Transfer of patent right

Effective date of registration: 20200309

Address after: 201203 Zuchongzhi Road, China (Shanghai) pilot Free Trade Zone, Pudong New Area, Shanghai 2288

Patentee after: SPREADTRUM COMMUNICATIONS (SHANGHAI) Co.,Ltd.

Address before: 100033 room 2062, Wenstin administrative apartments, 9 Financial Street B, Xicheng District, Beijing.

Patentee before: Xin Xin finance leasing (Beijing) Co.,Ltd.

TR01 Transfer of patent right
TR01 Transfer of patent right

Effective date of registration: 20200529

Address after: 361012 unit 05, 8 / F, building D, Xiamen international shipping center, No.97 Xiangyu Road, Xiamen area, China (Fujian) free trade zone, Xiamen City, Fujian Province

Patentee after: Xinxin Finance Leasing (Xiamen) Co.,Ltd.

Address before: 201203 Zuchongzhi Road, China (Shanghai) pilot Free Trade Zone, Pudong New Area, Shanghai 2288

Patentee before: SPREADTRUM COMMUNICATIONS (SHANGHAI) Co.,Ltd.

TR01 Transfer of patent right
EC01 Cancellation of recordation of patent licensing contract

Assignee: SPREADTRUM COMMUNICATIONS (SHANGHAI) Co.,Ltd.

Assignor: Xin Xin finance leasing (Beijing) Co.,Ltd.

Contract record no.: 2018990000163

Date of cancellation: 20210301

EC01 Cancellation of recordation of patent licensing contract
EE01 Entry into force of recordation of patent licensing contract

Application publication date: 20091223

Assignee: SPREADTRUM COMMUNICATIONS (SHANGHAI) Co.,Ltd.

Assignor: Xinxin Finance Leasing (Xiamen) Co.,Ltd.

Contract record no.: X2021110000010

Denomination of invention: Blind check scheduling method and equipment in time division synchronous code division multiple access system

Granted publication date: 20131030

License type: Exclusive License

Record date: 20210317

EE01 Entry into force of recordation of patent licensing contract
TR01 Transfer of patent right

Effective date of registration: 20230717

Address after: 201203 Shanghai city Zuchongzhi road Pudong New Area Zhangjiang hi tech park, Spreadtrum Center Building 1, Lane 2288

Patentee after: SPREADTRUM COMMUNICATIONS (SHANGHAI) Co.,Ltd.

Address before: 361012 unit 05, 8 / F, building D, Xiamen international shipping center, 97 Xiangyu Road, Xiamen area, China (Fujian) pilot Free Trade Zone, Xiamen City, Fujian Province

Patentee before: Xinxin Finance Leasing (Xiamen) Co.,Ltd.

TR01 Transfer of patent right