CN1852571A - High-speed downward grouped access-in flow control method - Google Patents

High-speed downward grouped access-in flow control method Download PDF

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CN1852571A
CN1852571A CN 200510098783 CN200510098783A CN1852571A CN 1852571 A CN1852571 A CN 1852571A CN 200510098783 CN200510098783 CN 200510098783 CN 200510098783 A CN200510098783 A CN 200510098783A CN 1852571 A CN1852571 A CN 1852571A
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channel quality
threshold
lower threshold
flow control
control method
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CN100502584C (en
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王晓霞
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Huawei Technologies Co Ltd
XFusion Digital Technologies Co Ltd
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Shanghai Huawei Technologies Co Ltd
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Abstract

The method divides indicator value of channel quality of user into grades. Each grade is corresponding to up threshold, low threshold of each media access control in high-speed (MAC-hs) queue. The method calculates dispatching speed of data of radio link control (RLC) layer in radio network control (RNC). The invention changes calculation of fixed up threshold, low threshold of MAC-hs queue to variety dependent on user's channel quality. Being able to load change of user's mobility and cell, flow control method provides advantages: reducing discarded data quantity greatly compared to current method when switching user's cell occurs; shortening detaining time of user's data in MAC-hs, and reducing possibility of resetting radio load supporting service in RLC layer when channel environment is poor; guaranteeing expectant high speed rate.

Description

A kind of high-speed downward grouped access-in flow control method
Technical field
The present invention relates to high speed descending sharing channel (HS-DSCH) technology in Wideband Code Division Multiple Access (WCDMA) (WCDMA) system, specifically, relate to a kind of high speed downlink packet and insert (HSDPA) flow control method.
Background technology
The Release5 of WCDMA system version is supported the HS-DSCH channel, and this channel can provide the downlink grouped data of two-forty to send.In HS-DSCH channel data transmission process, there is a high speed media access control (MAC-hs) entity in (NodeB) in the base station, this entity has been set up the metadata cache space for the user that each is carried on HS-DSCH, being used to store this user need be in the data of HS-DSCH channel transmission, and these data are stored in the buffer memory of MAC-hs with the form of formation.Be used to control the HSDPA flow control method of MAC-hs entity buffer memory, according to certain principle, the wireless chain control layer (RLC) in the decision radio network controller (RNC) sends a certain amount of data with special speed to the data queue of user in the MAC-hs buffer memory.
The HSDPA flow control method has determined the data volume of each user's queue for storing, if the data deficiencies of storage may can not provide enough data when needs send mass data, causes transmission rate to descend; If then can there be following problem in the overabundance of data of storage: (1) is taking place can to cause too much loss of data when switch the sub-district, and then also causes call drop easily; (2) cause each data cell long, bring long propagation delay time, influence service quality at the residence time of NodeB; (3) make the propagation delay time of data cell be in uncertain state, bring difficulty for relevant parameter configuration.
Therefore, a good HSDPA flow control method need be controlled the length of data queue of MAC-hs effectively, with the service quality that guarantees that simultaneously high transmission rate is become reconciled.
Existing HSDPA flow control method generally can decide the data total amount of RLC to MAC-hs formation transmission for the buffer memory total amount that each user distributes according to the MAC-hs of NodeB, and specific practice is:
Dispose a plurality of quene thresholds, according to the descending sort of threshold value size: max threshold, middle thresholding 1 ..., middle thresholding n, and minimum threshold, wherein max threshold generally according to every user the cache size that can distribute dispose;
When queue length was lower than a certain thresholding, the HSDPA flow control method just sent data to the RNC request, and the speed that sends data is generally calculated with { (cache size-one-level thresholding above the current queue length)/scheduling time };
When queue length is higher than max threshold, just send indication to RNC, require to stop immediately sending data.
In existing HSDPA flow control method, quene threshold is fixed, and always fills MAC-hs formation buffer memory fuller, can not adapt to the variation of wireless environment and user's mobility:
If the max threshold of configuration is smaller, when channel circumstance is reasonable, can not provide enough data to send so, make user's transmission rate can not reach the maximum of expectation;
If the max threshold of configuration is bigger, when the channel circumstance variation, lot of data is stored in the MAC-hs formation for a long time so, can cause the re-transmission of RLC to increase, even reset and call drop; When the sub-district that takes place to switch, particularly switch in the sub-district was in different base stations, the data in the formation all can be dropped, and formation is long more, and the data that abandon are many more, and the possibility of call drop is also big more.
Summary of the invention
In view of this, the object of the present invention is to provide a kind of HSDPA flow control method that wireless channel changes that adapts to, channel quality indication (CQI) value according to user report, when wireless channel environment is reasonable, increase the MAC-hs queue length, the scheduling mass data satisfies the transmission demand so that sufficient data to be provided; When wireless channel environment is poor, reduce the MAC-hs queue length, the data volume that reduces to dispatch avoids mass data to be stranded in the formation.
The present invention is achieved through the following technical solutions:
A kind of high-speed downward grouped access-in flow control method, this method may further comprise the steps:
A) determine the user channel quality rank, and according to user channel quality rank configuration high-speed medium access control length of buffer queue Upper threshold, Lower Threshold and calculate when being lower than Lower Threshold scheduling rates to the radio link control layer data in the radio network controller;
B) according to A) in described Upper threshold, Lower Threshold and the scheduling rates monitoring high speed media access control length of buffer queue of configuration.
Described steps A) the definite user channel quality rank of living in comprises:
A1) the channel quality indication measurement value of user report is carried out smothing filtering, obtain channel quality indication filter value;
A2) determine A1) in the channel quality indication filter value rank of living in that obtains as the user channel quality rank.
Described steps A 1) comprising:
Adopt following filtering formula that channel quality indication measurement value is carried out filtering and obtain channel quality indication filter value: F n=(F N-1+ F N-2+ ... + F N-m-1+ M n)/m
Wherein: F nBe n channel quality indication filter value constantly, M nBe n channel quality indication measurement value constantly, m is a smooth window length.
Described steps A 2) comprising:
A21) pre-configured N-1 channel quality indication filter value thresholding, Th1, Th2 ... 0,1,2, ThN-1, a described N-1 thresholding indicates filter value to be divided into N rank channel quality: ..., N-1;
A22) judge channel quality indication filter value whether under pass through Thn, n=1,2,, N-1, and the lasting Ttrigger time is all greater than this thresholding, if, determining that current channel quality indication filter value rank rises to the n level, described Ttrigger is the triggered time;
A23) judge channel quality indication filter value whether from passing through Thn, n=1,2 ..., N-1, and the lasting Ttrigger time is all less than this thresholding, if determine that current channel quality indication filter value rank is reduced to the n-1 level.
Described steps A 21) further comprise before:
The configurating channel quality is indicated the number of levels N of filter value as the case may be.
Described steps A 21) further comprise before:
Number of levels N by man-machine interface configurating channel quality indication filter value.
Described steps A 21) comprising:
N-1 channel quality indication filter value thresholding by man-machine interface configuration high-speed downlink grouped access-in flow control method.
Described steps A) in, calculate when being lower than Lower Threshold scheduling rates to the radio link control layer data in the radio network controller with following formula:
Scheduling rates=min{ α (Upper threshold-Lower Threshold), (cache size-Lower Threshold) }/scheduling time;
Wherein:
α>1, reference value: 1.5, dispose by man-machine interface;
On/Lower Threshold: other threshold value of respective channels quality indication filter value level, unit: byte;
Cache size: be the largest buffered of each high speed media access control queue assignment, unit: byte;
Scheduling time: the expectation data dispatching fills up the time of required queue length, and reference value: 50~100ms disposes by man-machine interface.
Described steps A) further comprise:
When automatically adjusting a cover high-speed downward grouped access-in flow control method high speed media access control length of buffer queue Upper threshold, the Lower Threshold corresponding and being lower than Lower Threshold with each user channel quality rank to the computing formula of the scheduling rates of the radio link control layer data in the radio network controller
Described steps A) in according to user channel quality rank configuration high-speed medium access control length of buffer queue Upper threshold, Lower Threshold and calculate that the scheduling rates to the radio link control layer data in the radio network controller comprises when being lower than Lower Threshold:
Upper threshold, the Lower Threshold corresponding with user channel quality in the computing formula of described cover Upper threshold, Lower Threshold and a scheduling rates is configured to high speed media access control length of buffer queue Upper threshold, Lower Threshold, and when being lower than Lower Threshold with the computing formula calculating of corresponding scheduling rates to the scheduling rates of the radio link control layer data in the radio network controller.
Described steps A) further comprise:
By man-machine interface configuration one cover high-speed downward grouped access-in flow control method high speed media access control length of buffer queue Upper threshold, the Lower Threshold corresponding and when being lower than Lower Threshold with each user channel quality rank to the computing formula of the scheduling rates of the radio link control layer data in the radio network controller
Described steps A) in according to user channel quality rank configuration high-speed medium access control length of buffer queue Upper threshold, Lower Threshold and calculate that the scheduling rates to the radio link control layer data in the radio network controller comprises when being lower than Lower Threshold:
Upper threshold, the Lower Threshold corresponding with user channel quality in the computing formula of described cover Upper threshold, Lower Threshold and a scheduling rates is configured to high speed media access control length of buffer queue Upper threshold, Lower Threshold, and when being lower than Lower Threshold with the computing formula calculating of corresponding scheduling rates to the scheduling rates of the radio link control layer data in the radio network controller.
Described step B) comprising:
Judge whether the high speed media access control queue length is higher than Upper threshold, if stop scheduling to the radio link control layer data in the radio network controller;
Judge whether the high speed media access control queue length is lower than Lower Threshold, if then adopt steps A) in the scheduling rates that calculated the radio link control layer data in the radio network controller is dispatched.
The invention provides a kind of HSDPA flow control method, by fixedly Upper threshold, the Lower Threshold of MAC-hs formation and calculate the change that RLC data dispatch speed among the RNC changes into the CQI filter value of the load variations situation of mobility that can reflect the user and sub-district and become, make the HSDPA flow control method can adapt to user's the mobility and the load variations situation of sub-district, solved the problem that prior art exists, the beneficial effect of acquisition mainly shows:
1) when the user move to cell edge gradually and the process that may switch in, its CQI value diminishes gradually, the HSDPA flow control method also reduces the MAC-hs queue length threshold gradually, the data that are stored in MAC-hs reduce thereupon gradually, if the sub-district takes place switches, when the sub-district that particularly switches was in data that different base stations, user be stored in MAC-hs and can be all abandoned, the data volume that the user is dropped significantly reduced than existing method;
2) when the system load increase, when the number of users that is carried on HS-DSCH also may increase, the dispatcher that each user obtains can be with reduction, the increase of system load can make CQI value step-down, this moment, the threshold value of MAC-hs formation also was lowered, thereby had reduced to be stored in the data volume in the formation, and therefore the time that user data is detained in the MAC-hs buffer memory shorten to some extent, can not increase considerably, reduced the possibility that the professional radio bearer of rlc layer resets with the increase of system load;
3) move to center of housing estate as the user, perhaps system load reduction, when channel circumstance improves, user CQI value increases, the HSDPA flow control method can improve the scheduling rates of the thresholding of MAC-hs formation and the RLC data among the RNC thereupon, the scheduling lot of data is in the MAC-hs formation, thereby guaranteed to have enough data to send, guaranteed the two-forty of expectation.
Description of drawings
Fig. 1 is a HSDPA flow control method flow chart of the present invention.
Fig. 2 is a CQI filter value classification schematic diagram of the present invention.
Embodiment
For making purpose of the present invention, technical scheme and advantage clearer, below with reference to the accompanying drawing embodiment that develops simultaneously, the present invention is described in more detail.
In HSDPA mechanism, the CQI that UE reported can reflect the residing channel circumstance situation of user.The present invention is a kind of HSDPA flow control method, dynamically adjusts the MAC-hs quene threshold and scheduling rates reaches suitable fluid control effect according to CQI, and referring to Fig. 1, shown in the HSDPA flow control method flow chart of the present invention, concrete method may further comprise the steps:
Step 101) the CQI measured value to the UE report carries out smothing filtering, and the filtering formula is:
F n=(F n-1+F n-2+…+F n-m-1+M n)/m
Wherein: F nBe n CQI filter value constantly, M nBe n CQI measured value constantly, m is a smooth window length, and m is configurable.
Step 102) determine current C QI filter value rank of living in, shown in Fig. 2 CQI filter value of the present invention classification schematic diagram, in Fig. 2, the N value is 3, and concrete steps comprise:
1) pre-configured N-1 CQI filter value thresholding, Th1, Th2 ... 0,1,2, ThN-1 is divided into N rank with the CQI filter value: ..., N-1;
2) judge the CQI filter value whether under pass through Thn, n=1,2 ..., N-1, and the lasting Ttrigger time all greater than this thresholding, if, determine that current CQI filter value rank rises to the n level, described Ttrigger is the triggered time;
3) judge the CQI filter value whether from passing through Thn, n=1,2 ..., N-1, and the lasting Ttrigger time is all less than this thresholding, if determine that current CQI filter value rank is reduced to the n-1 level;
Step 103), disposes suitable MAC-hs queue length Upper threshold, Lower Threshold and calculate when being lower than Lower Threshold scheduling rates the RLC data among the RNC according to current CQI filter value rank of living in.CQI filter value rank is high more, and corresponding Upper threshold is just high more, and is also big more to the scheduling rates of the RLC data among the RNC.The data that scheduling rates makes scheduling are filled out in the time of expectation towards formation and are reached Upper threshold and not necessarily will fill up the MAC-hs formation, and concrete computing formula is:
Scheduling rates=min{ α (Upper threshold-Lower Threshold), (cache size-Lower Threshold) }/scheduling time;
Wherein:
α>1, reference value: 1.5, can dispose by man-machine interface;
On/Lower Threshold: corresponding other threshold value of CQI filter value level, unit: byte;
Cache size: be the largest buffered of each MAC-hs queue assignment, unit: byte;
Scheduling time: the expectation data dispatching fills up the time of required queue length, and reference value: 50~100ms can dispose by man-machine interface;
Step 104) the MAC-hs queue length is monitored, judged whether queue length is higher than Upper threshold, if stop scheduling so immediately to the RLC data among the RNC; Judge whether the MAC-hs queue length is lower than Lower Threshold, if then adopt step 103) in the scheduling rates that disposed the RLC data among the RNC are dispatched.
Described step 101) in, the present invention at first carries out smothing filtering to the CQI measured value, and purpose is to reduce the influence of rapid fading to CQI, and obtains the trend of variations.Except that step 101) described in smothing filtering, also have multiple filtering mode to adopt, reflect variations truly as long as can try one's best.
Described step 102) in, the present invention has been divided into the N level with the rank of CQI filter value, N if greater than/equal 2 just can realize effect of the present invention to a certain extent, need dispose N as the case may be.
Described step 103) in, each CQI filter value rank corresponding respectively separately MAC-hs formation Upper threshold, Lower Threshold and calculate RLC data dispatch speed among the RNC, RLC data dispatch speed numerical value wherein calculates acquisition automatically by certain method, also can dispose by man-machine interface.
Described step 103) in, one cover HSDPA flow control method of the present invention MAC-hs formation Upper threshold, the Lower Threshold corresponding with each CQI filter value rank and when being lower than Lower Threshold the computing formula to the scheduling rates of the RLC data among the RNC calculate acquisition automatically by certain method, also can dispose by man-machine interface.
The thresholding Thn of described CQI filter value classification number N and classification, n=1,2 ..., N-1 can dispose as required by man-machine interface.
In HSDPA flow control method of the present invention,, only disposed 2 quene threshold values to each CQI filter value rank: Upper threshold and Lower Threshold, simplified method.
The present invention is not limited to the concrete introduction of the foregoing description.The present invention can further upgrade, and perhaps new in addition to feature disclosed in this invention combination also can be upgraded or newly makes up any method disclosed in this invention or process.

Claims (11)

1, a kind of high-speed downward grouped access-in flow control method is characterized in that, this method may further comprise the steps:
A) determine the user channel quality rank, and according to user channel quality rank configuration high-speed medium access control length of buffer queue Upper threshold, Lower Threshold and calculate when being lower than Lower Threshold scheduling rates to the radio link control layer data in the radio network controller;
B) according to A) in described Upper threshold, Lower Threshold and the scheduling rates monitoring high speed media access control length of buffer queue of configuration.
2, high-speed downward grouped access-in flow control method according to claim 1 is characterized in that, described steps A) in definite user channel quality rank of living in comprise:
A1) the channel quality indication measurement value of user report is carried out smothing filtering, obtain channel quality indication filter value;
A2) determine A1) in the channel quality indication filter value rank of living in that obtains as the user channel quality rank.
3, high-speed downward grouped access-in flow control method according to claim 2 is characterized in that, described steps A 1) comprising:
Adopt following filtering formula that channel quality indication measurement value is carried out filtering and obtain channel quality indication filter value: F n=(F N-1+ F N-2+ ...+F N-m-1+ M n)/m
Wherein: F nBe n channel quality indication filter value constantly, M nBe n channel quality indication measurement value constantly, m is a smooth window length.
4, high-speed downward grouped access-in flow control method according to claim 2 is characterized in that, described steps A 2) comprising:
A21) pre-configured N-1 channel quality indication filter value thresholding, Th1, Th2 ..., ThN-1, a described N-1 thresholding indicates filter value to be divided into N rank channel quality: 0,1,2 ..., N-1;
A22) judge channel quality indication filter value whether under pass through Thn, n=1,2, ..., N-1, and the lasting Ttrigger time is all greater than this thresholding, if, determining that current channel quality indication filter value rank rises to the n level, described Ttrigger is the triggered time;
A23) judge channel quality indication filter value whether from passing through Thn, n=1,2 ..., N-1, and the lasting Ttrigger time is all less than this thresholding, if determine that current channel quality indication filter value rank is reduced to the n-1 level.
5, high-speed downward grouped access-in flow control method according to claim 4 is characterized in that, described steps A 21) further comprise before:
The configurating channel quality is indicated the number of levels N of filter value as the case may be.
6, high-speed downward grouped access-in flow control method according to claim 4 is characterized in that, described steps A 21) further comprise before:
Number of levels N by man-machine interface configurating channel quality indication filter value.
7, high-speed downward grouped access-in flow control method according to claim 4 is characterized in that, described steps A 21) comprising:
N-1 channel quality indication filter value thresholding by man-machine interface configuration high-speed downlink grouped access-in flow control method.
8, high-speed downward grouped access-in flow control method according to claim 1 is characterized in that, described steps A) in, calculate when being lower than Lower Threshold scheduling rates with following formula to the radio link control layer data in the radio network controller:
Scheduling rates=min{ α (Upper threshold-Lower Threshold), (cache size-Lower Threshold) }/scheduling time;
Wherein:
α>1, reference value: 1.5, dispose by man-machine interface;
On/Lower Threshold: other threshold value of respective channels quality indication filter value level, unit: byte;
Cache size: be the largest buffered of each high speed media access control queue assignment, unit: byte;
Scheduling time: the expectation data dispatching fills up the time of required queue length, and reference value: 50~100ms disposes by man-machine interface.
9, high-speed downward grouped access-in flow control method according to claim 1 is characterized in that, described steps A) further comprise:
When automatically adjusting a cover high-speed downward grouped access-in flow control method high speed media access control length of buffer queue Upper threshold, the Lower Threshold corresponding and being lower than Lower Threshold with each user channel quality rank to the computing formula of the scheduling rates of the radio link control layer data in the radio network controller
Described steps A) in according to user channel quality rank configuration high-speed medium access control length of buffer queue Upper threshold, Lower Threshold and calculate that the scheduling rates to the radio link control layer data in the radio network controller comprises when being lower than Lower Threshold:
Upper threshold, the Lower Threshold corresponding with user channel quality in the computing formula of described cover Upper threshold, Lower Threshold and a scheduling rates is configured to high speed media access control length of buffer queue Upper threshold, Lower Threshold, and when being lower than Lower Threshold with the computing formula calculating of corresponding scheduling rates to the scheduling rates of the radio link control layer data in the radio network controller.
10, high-speed downward grouped access-in flow control method according to claim 1 is characterized in that, described steps A) further comprise:
By man-machine interface configuration one cover high-speed downward grouped access-in flow control method high speed media access control length of buffer queue Upper threshold, the Lower Threshold corresponding and when being lower than Lower Threshold with each user channel quality rank to the computing formula of the scheduling rates of the radio link control layer data in the radio network controller
Described steps A) in according to user channel quality rank configuration high-speed medium access control length of buffer queue Upper threshold, Lower Threshold and calculate that the scheduling rates to the radio link control layer data in the radio network controller comprises when being lower than Lower Threshold:
Upper threshold, the Lower Threshold corresponding with user channel quality in the computing formula of described cover Upper threshold, Lower Threshold and a scheduling rates is configured to high speed media access control length of buffer queue Upper threshold, Lower Threshold, and when being lower than Lower Threshold with the computing formula calculating of corresponding scheduling rates to the scheduling rates of the radio link control layer data in the radio network controller.
11, high-speed downward grouped access-in flow control method according to claim 1 is characterized in that, described step B) comprising:
Judge whether the high speed media access control queue length is higher than Upper threshold, if stop scheduling to the radio link control layer data in the radio network controller;
Judge whether the high speed media access control queue length is lower than Lower Threshold, if then adopt steps A) in the scheduling rates that calculated the radio link control layer data in the radio network controller is dispatched.
CNB2005100987832A 2005-09-07 2005-09-07 High-speed downward grouped access-in flow control method Active CN100502584C (en)

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Cited By (7)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN100459578C (en) * 2005-11-08 2009-02-04 华为技术有限公司 A method to acquire downlink data from upper network equipment by cell base station
CN100466628C (en) * 2006-11-13 2009-03-04 华为技术有限公司 Method and device for allocating cache quene threshold, and its flow control method and device
CN101729208A (en) * 2009-12-31 2010-06-09 中兴通讯股份有限公司 Method and device for filtering channel quality indicator (CQI)
CN102196498A (en) * 2010-03-12 2011-09-21 鼎桥通信技术有限公司 High speed carrier load allocation method
CN101192861B (en) * 2006-12-01 2011-11-16 华为技术有限公司 Method, device and communication system for adjusting data rate in network
CN105940714A (en) * 2014-03-26 2016-09-14 瑞典爱立信有限公司 Methods and equipment for management of playback buffers
US9775076B2 (en) 2012-09-29 2017-09-26 Huawei Technologies Co., Ltd. Method and related apparatus for resetting high speed medium access control entity

Cited By (11)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN100459578C (en) * 2005-11-08 2009-02-04 华为技术有限公司 A method to acquire downlink data from upper network equipment by cell base station
CN100466628C (en) * 2006-11-13 2009-03-04 华为技术有限公司 Method and device for allocating cache quene threshold, and its flow control method and device
CN101192861B (en) * 2006-12-01 2011-11-16 华为技术有限公司 Method, device and communication system for adjusting data rate in network
US8155006B2 (en) 2006-12-01 2012-04-10 Huawei Technologies Co., Ltd. Method, device, and communication system for adjusting data rates in a network
CN101729208A (en) * 2009-12-31 2010-06-09 中兴通讯股份有限公司 Method and device for filtering channel quality indicator (CQI)
CN101729208B (en) * 2009-12-31 2013-06-05 中兴通讯股份有限公司 Method and device for filtering channel quality indicator (CQI)
CN102196498A (en) * 2010-03-12 2011-09-21 鼎桥通信技术有限公司 High speed carrier load allocation method
CN102196498B (en) * 2010-03-12 2014-05-21 鼎桥通信技术有限公司 High speed carrier load allocation method
US9775076B2 (en) 2012-09-29 2017-09-26 Huawei Technologies Co., Ltd. Method and related apparatus for resetting high speed medium access control entity
CN105940714A (en) * 2014-03-26 2016-09-14 瑞典爱立信有限公司 Methods and equipment for management of playback buffers
CN105940714B (en) * 2014-03-26 2019-11-01 瑞典爱立信有限公司 Method and apparatus for playing back the management of caching

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