CN102186253A - Resource configuration method for family base station - Google Patents
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- CN102186253A CN102186253A CN201110149842XA CN201110149842A CN102186253A CN 102186253 A CN102186253 A CN 102186253A CN 201110149842X A CN201110149842X A CN 201110149842XA CN 201110149842 A CN201110149842 A CN 201110149842A CN 102186253 A CN102186253 A CN 102186253A
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Abstract
The invention provides a resource configuration method for a family base station. The method is used for restricting the interference of a newly established family base station on an existing family base station and simultaneously ensures the performance of the family base station. In the invention, by predicting the interference on the local district and the adjacent district after the newly established family base station occupies each physical resource block (PRB) and simultaneously and comprehensively considering the allowable maximum interference threshold of the local district and the adjacent district, the suitable physical resource block is selected for the newly established base station, and the corresponding emitting power is dispensed. The resource configuration method has the advantages of ensuring the performance of the newly established family base stations and being compatible with the performance of the adjacent family base station, and effectively controlling the interference between the districts, thus improving system capacity.
Description
Technical field
The present invention relates to a kind of resource allocation method of Home eNodeB, exactly, relate in a kind of follow-up evolution LTE-A system of cellular mobile communication Long Term Evolution, newly-built Home eNodeB is by after taking different Physical Resource Block PRB (Physical Resource Block), interference effect to this sub-district and adjacent area generation is predicted estimation, PRB is screened and execution priority ordering and selection, thereby not only guarantee the communication performance in this sub-district, also taken into account the adjacent area communication performance after newly-built Home eNodeB is introduced simultaneously.Belong to the mobile communication technology field.
Background technology
Statistics shows that following 80～90% communication system throughput will occur in indoor and hot spot region.But traditional Cellular Networks technology has the characteristics of " heavy outdoor, gently indoor ", " heavy beehive net, light isolated hot spots " and " heavily move switch, gently fix nomadic ", and one of focus of LTE-A system just is being optimized with the focus scene indoor.Under the ordering about of this new demand, introduced a kind of transmitting node littler---Home eNodeB with respect to traditional cell base station transmitting power, because the transmitting power of Home eNodeB is little, can be very convenient, flexible for network design, little because of the coverage of this node simultaneously, can utilize the potential high band frequency spectrum of LTE-A more easily.But the introducing of new node can change original topology of networks, makes the presence of intercell interference of this network configuration become a new challenge.
In many systems, channeling mechanism all is considered to a kind of technical measures that realize the high-throughput performance by effective minimizing presence of intercell interference.Under the deployment scenario of traditional wan, Frequency Distribution, base station location, base station's transmission power and antenna performance etc. can be planned in earlier stage by suitable network and realize.But in the local scene of LTE-A system, it is infeasible that operator carries out the network planning (being spectrum allocation may) to the deployment of Home eNodeB in advance.This is because the deployment of Home eNodeB is normally determined at random by the user, therefore, in the deployment of this distributed home base station, the mechanism that a kind of mode with self-organizing of necessary proposition is distributed frequency spectrum resource improves power system capacity so that reduce the phase mutual interference of minizone.
In the great majority research at present, it all is the angle of disturbing from self that the PRB of newly-built Home eNodeB selects, and ignored interference to its adjacent area, therefore, how to take into account the performance of above-mentioned two aspects, propose the prioritization scheme of a kind of new PRB, the problem that is used to instruct newly-built Home eNodeB to carry out resource distribution just becomes one of focus that scientific and technical personnel in the industry pay close attention to.
Summary of the invention
In view of this, the purpose of this invention is to provide a kind of resource allocation method of taking into account the Home eNodeB of this sub-district and adjacent area transmission performance and signal interference ratio simultaneously, this method is not only considered the interference of Home eNodeB to this sub-district, simultaneously by interference prediction, guarantee that shared PRB is no more than the setting thresholding to the interference of adjacent area, take all factors into consideration and take into account the communications performance of this sub-district and adjacent area again, finally realize the prioritization of PRB, be used to instruct newly-built Home eNodeB to carry out resource distribution.
In order to reach the foregoing invention purpose, the invention provides a kind of resource allocation method of Home eNodeB, it is characterized in that: Home eNodeB predicts that at first it takies the interference of each Physical Resource Block PRB (Physical Resource Block) back to this sub-district and adjacent area generation, the maximum interference threshold of taking all factors into consideration this sub-district and adjacent area again and being allowed, judge whether each PRB is available, and on available PRB basis, try to achieve its corresponding transmission power; Based on these available PRB transmitting powers, calculate its signal interference ratio in this sub-district then, according to the signal interference ratio numerical values recited it is carried out the resource distribution that descending is used to instruct newly-built Home eNodeB again.
Accompanying method comprises following operating procedure:
(1) carries out initialization operation: system parameters is set and obtains the required neighboring BS information of resource distribution;
(2) predict the interference of this sub-district,, calculate the transmitting power lower limit of each PRB according to the interference threshold value that system is provided with;
(3) predict the interference of each adjacent area,, calculate the upper limit of emission power of each PRB according to the interference threshold value of each adjacent area;
(4) each PRB of calculating of comprehensive above-mentioned two steps screen available PRB and definite its transmitting power at the transmitting power lower limit and the upper limit of emission power of this sub-district;
(5) based on the transmitting power of available PRB, calculate the signal interference ratio of this available PRB in this sub-district, again that these are available PRB is according to the big or small descending of its signal interference ratio numerical value, promptly to available PRB execution priority ordering;
(6) Home eNodeB is according to the needed PRB quantity in this sub-district, select the available PRB of respective numbers successively according to prioritization, generate the relevant information table of this sub-district: the PRB of local Home eNodeB takies the PRB transmitting power table of table, local Home eNodeB and the interference threshold table of local Home eNodeB, upgrades the interference threshold table of adjacent area simultaneously.
The innovation part of the inventive method is: the notion of introducing the adjacent area interference prediction: each Home eNodeB is set up the interference threshold table, and it comprises the maximum interference threshold value of being tolerated on the shared PRB of this Home eNodeB.When new Home eNodeB is set up, can obtain this interference threshold table information by information interaction with the adjacent area, simultaneously by behind the shared PRB of prediction, must be to the interference that the adjacent area produces less than the corresponding requirements of this thresholding table, thereby try to achieve the upper limit of emission power on the corresponding PRB, with the additional conditions of this restrictive condition, just realized taking into account simultaneously the PRB prioritization techniques scheme under this sub-district and the adjacent area communication performance again as the conventional P RB selection scheme of only considering this area interference.
Description of drawings
Fig. 1 is the operating procedure flow chart of the resource allocation method of a kind of Home eNodeB of the present invention.
Fig. 2 is an initialization operation flow chart of steps in the method for Home eNodeB of the present invention.
Fig. 3 is the schematic diagram that the PRB of local Home eNodeB takies table.
Fig. 4 is the schematic diagram of the PRB transmitting power table of local Home eNodeB.
Fig. 5 is the schematic diagram of the interference threshold table of local Home eNodeB.
Fig. 6 (A), (B) are respectively three-dimensional scenic and the adjacent area conceptual schematic view of Home eNodeB scene embodiment.
Fig. 7 is the schematic diagram of the average channel gain table of newly-built Home eNodeB and neighboring interval.
Fig. 8 is the schematic diagram that the PRB of newly-built Home eNodeB acquisition adjacent area takies table.
Fig. 9 is the schematic diagram that newly-built Home eNodeB obtains the PRB transmitting power table of adjacent area.
Figure 10 is the schematic diagram that newly-built Home eNodeB obtains the interference threshold table of adjacent area.
Embodiment
For making the purpose, technical solutions and advantages of the present invention clearer, the present invention is described in further detail below in conjunction with drawings and Examples.
As everyone knows, in the LTE-A communication system, the allocation unit of frequency resource is Physical Resource Block PRB, and promptly each PRB takies time slot, i.e. a 0.5ms on time domain; And on frequency domain, take 12 subcarriers, amount to 180khz.
The present invention is a kind of resource allocation method of Home eNodeB: after newly-built Home eNodeB predicts that at first it takies each PRB, interference to this sub-district and adjacent area generation, the maximum interference threshold of taking all factors into consideration this sub-district and adjacent area again and being allowed, screening and judge whether each PRB is available and is tried to achieve its corresponding transmission power on available PRB basis; Then based on the transmitting power of these available PRB, calculate its signal interference ratio in this sub-district,, it is carried out descending descending again according to signal interference ratio numerical value, promptly, be used to instruct the resource distribution of newly-built Home eNodeB to available PRB execution priority ordering.
Referring to Fig. 1, introduce each concrete operations step of the inventive method:
(11) Home eNodeB start at first works in terminal pattern, and by adjacent area around inserting, the PRB that obtains each adjacent area takies the PRB transmitting power table of table, each adjacent area and the interference threshold table of each adjacent area.Wherein, the PRB of each adjacent area takies the character in the table (referring to Fig. 8)
Each adjacent area that is used to write down sub-district, Home eNodeB place takies the situation that sequence number is the PRB of k, and its expression formula is:
Character in the PRB transmitting power table (referring to Fig. 9) of adjacent area
The adjacent area that is used for LSN and is j is the transmitting power on the PRB of k in sequence number.
Interference threshold value in the interference threshold table (referring to Figure 10) of adjacent area
The adjacent area that is used for LSN and is j is the maximum interference threshold that can tolerate on the PRB of k in sequence number.
(12) Home eNodeB works in base station mode, and following system parameters is set: the signal interference ratio lower limit STR of available PRB sum K, each PRB
MinMaximum transmission power p with each PRB
Max
(13) Home eNodeB takies situation according to the PRB of each adjacent area in the step (11), preferentially selects remaining idle PRB, and with its maximum transmission power p
MaxThe terminal of temporary transient service current area.
(14) Home eNodeB is added up according to the measurement parameter of each terminal to report in the setting-up time, obtains the average channel gain g in this sub-district, and the average channel gain g between this sub-district and the adjacent area j
j
(15) Home eNodeB finishes initialization operation, prepares to utilize the information of step (11), (12) and (14), begins to carry out the prioritization scheme of PRB.
(21) Home eNodeB begins each PRB of poll in regular turn from k=1: after promptly taking each PRB by prediction, the interference that this sub-district is produced is in the hope of the transmitting power lower limit of corresponding PRB, be each PRB transmitting power minimum value.
(22) with the sequence number be the transmitting power p of the PRB of k
kBe independent variable, calculate the signal interference ratio SIR of each PRB in this sub-district according to the following equation
kValue:
In the formula, g is the average channel gain of this sub-district, g
jBe the average channel gain between adjacent area j and this sub-district,
For sequence number is the transmitting power of the PRB of k at adjacent area j, and N is the set or the sum of all adjacent areas of this sub-district.
(23) according to the signal interference ratio lower limit SIR of each PRB of initial setting up
Min, the signal interference ratio computing formula in the integrating step (22) obtains following inequality:
And then try to achieve the transmitting power lower limit of each PRB of this sub-district
Step 3, Home eNodeB are predicted the interference of each adjacent area, according to the interference threshold value of each adjacent area, calculate the upper limit of emission power of each PRB.This step 3 comprises following content of operation:
(31) Home eNodeB each adjacent area j of poll in regular turn, (j ∈ N) promptly carries out following step (32) and (33) to each adjacent area circulation, until traveling through all adjacent areas; So that after predicting that this sub-district takies the PRB that sequence number is k, to the interference that each adjacent area j produces, finally trying to achieve this sub-district is on the PRB of k in sequence number, satisfy all adjacent area interference threshold values upper limit of emission power, be the transmitting power maximum.
(32) with the sequence number be the transmitting power p of the PRB of k
kBe independent variable, calculate according to the following equation and take the interference that this PRB produces adjacent area j
(33) finding adjacent area j in the interference threshold table of each adjacent area from step (11) is the maximum interference threshold value that PRB tolerated of k in sequence number
Interference calculation formula in the integrating step (32) again
Obtain following inequality:
And then try to achieve maximum transmission power on the PRB that this sub-district that adjacent area j can tolerate is k in sequence number:
(34) calculate maximum transmission power on the PRB that this sub-district that can tolerate each adjacent area is k in sequence number after, choose wherein that this sub-district of conduct of numerical value minimum is the maximum transmission power that PRB allowed of k in sequence number, promptly obtain final upper limit of emission power: p
k Max=min{j → p
k Max, so that can satisfy the requirement of the interference threshold value of all adjacent areas.
This step 4 comprises following content of operation:
(41) judge that sequence number is the transmitting power lower limit p of PRB under the prediction of this area interference of k
k MinWith its maximum transmission power p under the interference prediction of adjacent area
k MaxAnd the maximum transmission power p of initial setting up in the step (12)
MaxNumerical values recited, if p
k MinSatisfy less than two upper limit: p simultaneously
k Min＜p
k MaxAnd p
k Min＜p
Max, promptly these three parameter values scopes have common factor and when not conflicting, and show that this sequence number is that the PRB of k is available PRB, then carries out subsequent step (42); Otherwise, show that this sequence number is that the PRB of k is unavailable, need return execution in step (2), the beginning poll next one (k+1) sequence number PRB;
(42) because of this sequence number is that the PRB of k is available PRB, trying to achieve this sequence number is the transmitting power p of the available PRB of k
k=min{p
k Max, p
Max.
Step 5 based on the transmitting power of available PRB, is calculated the signal interference ratio of this available PRB in this sub-district, and again that these are available PRB is according to the big or small descending of its signal interference ratio numerical value, promptly to available PRB execution priority ordering.This step 5 comprises following content of operation:
(51) sequence number that obtains based on above-mentioned steps is the transmitting power p of the available PRB of k
k, calculating this sequence number according to the following equation is the signal interference ratio of the available PRB of k for this sub-district
(52) all sequence numbers PRB that can use that judged whether poll promptly judge whether k=K, if then carry out subsequent step (53); Otherwise, return execution in step (2), beginning poll Next Sequence PRB.
(53) each is available PRB is according to its signal interference ratio SIR
kNumerical values recited carry out descending, promptly to each available PRB execution priority ordering.
The PRB of local Home eNodeB takies table (referring to Fig. 3), and this form is the available PRB prioritization that calculates according to step 5, and the required PRB number in this sub-district obtains.
The PRB transmitting power table (referring to Fig. 4) of local Home eNodeB, this form is according to selected available PRB, the transmitting power of determining in the corresponding step 4 obtains.
The interference threshold table (referring to Fig. 5) of local Home eNodeB, interference threshold value I wherein
Max kRepresent that this sub-district is the interference maximum that can tolerate on the PRB of k in sequence number, this parameter-definition is:
If this sub-district does not take the PRB that this sequence number is k, then I
Max kBe infinity;
If this sub-district takies the PRB that sequence number is k, then I
Max kComputing formula be:
This step also will be upgraded the interference threshold table (referring to Figure 10) of adjacent area, threshold value wherein simultaneously
Represent the real-time interference maximum that each adjacent area can be tolerated on each PRB, the real-time update process of this parameter is: calculate the interference of each shared PRB of this sub-district to the adjacent area respectively earlier: finding this adjacent area j at adjacent area interference threshold table is the maximum interference threshold value that can tolerate on the PRB of k in sequence number
This sub-district of poll is the interference that produces on the PRB of k in sequence number to each adjacent area j respectively again
Find the solution then
Poor, be the real-time interference threshold value in adjacent area after the renewal.
The various resource data information tables among following brief description Fig. 3～Figure 10 and the situation of accompanying drawing:
PRB referring to local Home eNodeB shown in Figure 3 takies table, row in the form (PRB) represent each available PRB:PRB1, PRB2 ..., PRBK, row (C) is represented the sign ID of this sub-district, ρ in the middle of (row in the form among following Fig. 4 and Fig. 5 are identical therewith with the connotation of row, repeat no more)
kRepresent whether this sub-district takies the PRB of sequence number for row k, and parameter-definition is as follows:
Referring to the PRB transmitting power table of local Home eNodeB shown in Figure 4, middle p
kRepresent that this sub-district is the transmitting power on the available PRB of k in sequence number.
Referring to the interference threshold table of local Home eNodeB shown in Figure 5, middle I
Max kRepresent that this sub-district is the maximum interference that can tolerate on the PRB of k in sequence number.
Referring to Fig. 6, left figure (A) is a three-dimensional scenic of describing Home eNodeB embodiment, the situation that the Home eNodeB multilayer was disposed during it was more realistic; Right figure (B) has set forth under the multilayer deployment scenario, the notion of Home eNodeB adjacent area: suppose that newly-built Home eNodeB is that number in the figure is 7 sub-district, the sub-district of then corresponding label 1～6 is each adjacent area of sub-district 7, and 1-7 wherein is each sub-district ID.In actual scene, judge that the index of adjacent area can be the average channel gain of minizone, promptly set a threshold value, be higher than the adjacent area that is of this threshold value, otherwise be non-adjacent area, the physical significance of adjacent area and non-adjacent area is:
Non-adjacent area: take with the same interference that PRB produced in this sub-district and can ignore, promptly channel gain is lower than and sets thresholding and can think the right and wrong adjacent area.
The adjacent area: take with the same interference that PRB produced in this sub-district and can not ignore, but as long as disturb and setting below the thresholding, can shared this PRB.Be that channel gain is higher than and sets thresholding and just think the adjacent area.
Referring to newly-built Home eNodeB shown in Figure 7 and the average channel gain table of neighboring interval: C
jThe ID that represents corresponding adjacent area; g
jAverage channel gain between expression adjacent area j and this sub-district, because in the present embodiment, the adjacent area of sub-district 7 is 1～6, can get table shown in Figure 7 thus.
The PRB that obtains the adjacent area referring to newly-built Home eNodeB shown in Figure 8 takies table, and this table is the set that the PRB of all adjacent areas is taken table (being table shown in Figure 3).
Obtain the PRB transmitting power table of adjacent area referring to newly-built Home eNodeB shown in Figure 9: this table is the set of the PRB transmitting power table (being table shown in Figure 4) to all adjacent areas.
Referring to the interference threshold table of newly-built Home eNodeB acquisition adjacent area shown in Figure 10, this table is the set of the interference threshold table (being table shown in Figure 5) to all adjacent areas.
The above only is preferred embodiment of the present invention, and is in order to restriction the present invention, within the spirit and principles in the present invention not all, any modification of being made, is equal to replacement, improvement etc., all should be included within the scope of protection of the invention.
Claims (9)
1. the resource allocation method of a Home eNodeB, it is characterized in that: Home eNodeB predicts that at first it takies behind each Physical Resource Block PRB the interference that this sub-district and adjacent area are produced, the maximum interference threshold of taking all factors into consideration this sub-district and adjacent area again and being allowed, judge whether each PRB is available, and on available PRB basis, try to achieve its corresponding transmission power; Based on these available PRB transmitting powers, calculate its signal interference ratio in this sub-district then, according to the signal interference ratio numerical values recited it is carried out descending again, be used to instruct the resource distribution of newly-built Home eNodeB.
2. method according to claim 1 is characterized in that: accompanying method comprises following operating procedure:
(1) carries out initialization operation: system parameters is set and obtains the required neighboring BS information of resource distribution;
(2) predict the interference of this sub-district,, calculate the transmitting power lower limit of each PRB according to the interference threshold value that system is provided with;
(3) predict the interference of each adjacent area,, calculate the upper limit of emission power of each PRB according to the interference threshold value of each adjacent area;
(4) each PRB of calculating of comprehensive above-mentioned two steps selects available PRB and definite its transmitting power at the transmitting power lower limit and the upper limit of emission power of this sub-district;
(5) based on the transmitting power of available PRB, calculate the signal interference ratio of this available PRB in this sub-district, again that these are available PRB is according to the big or small descending of its signal interference ratio numerical value, promptly to available PRB execution priority ordering;
(6) Home eNodeB is according to the needed PRB quantity in this sub-district, select the available PRB of respective numbers successively according to prioritization, generate the following information table of this sub-district: the PRB of local Home eNodeB takies the PRB transmitting power table of table, local Home eNodeB and the interference threshold table of local Home eNodeB, upgrades the interference threshold table of adjacent area simultaneously.
3. method according to claim 2 is characterized in that: described step (1) comprises following content of operation:
(11) Home eNodeB start at first works in terminal pattern, and by adjacent area around inserting, the PRB that obtains each adjacent area takies the PRB transmitting power table of table, each adjacent area and the interference threshold table of each adjacent area;
(12) Home eNodeB works in base station mode, and following system parameters is set: the signal interference ratio lower limit SIR of available PRB sum K, each PRB
MinMaximum transmission power p with each PRB
Max
(13) Home eNodeB takies situation according to the PRB of each adjacent area in the step (11), preferentially selects remaining idle PRB, and with its maximum transmission power p
MaxThe terminal of temporary transient service current area;
(14) Home eNodeB is added up according to the measurement parameter of each terminal to report in the setting-up time, obtains the average channel gain in this sub-district, and the average channel gain of this sub-district and neighboring interval.
4. method according to claim 3 is characterized in that: the PRB of described each adjacent area takies the character in the table
Each adjacent area that is used to write down sub-district, Home eNodeB place takies the situation that sequence number is the PRB of k, and its expression formula is:
In the formula, natural number subscript k and subscript j are respectively the adjacent area sequence number of PRB sequence number and sub-district, Home eNodeB place, the maximum of k, are that available PRB adds up to K, and j is certain the adjacent area sequence number among the adjacent area set N;
Character in the PRB transmitting power table of described adjacent area
The adjacent area that is used for LSN and is j is the transmitting power on the PRB of k in sequence number;
The interference threshold value of described adjacent area
The adjacent area that is used for LSN and is j is the maximum interference threshold that can tolerate on the PRB of k in sequence number.
5. according to claim 2 or 4 described methods, it is characterized in that: described step (2) comprises following content of operation:
(21) Home eNodeB each PRB of poll in regular turn: after promptly taking each PRB by prediction, the interference that this sub-district is produced is in the hope of the transmitting power lower limit of corresponding PRB, be each PRB transmitting power minimum value;
(22) with the sequence number be the transmitting power p of the PRB of k
kBe independent variable, calculate the signal interference ratio SIR of each PRB in this sub-district according to the following equation
kValue:
In the formula, g is the average channel gain of this sub-district, g
jBe the average channel gain between adjacent area j and this sub-district,
For sequence number is the transmitting power of the PRB of k at adjacent area j, and N is the set or the sum of all adjacent areas of this sub-district;
(23) according to the signal interference ratio lower limit SIR of each PRB of initial setting up
Min, the signal interference ratio computing formula in the integrating step (22) obtains following inequality:
And then try to achieve the transmitting power lower limit of each PRB of this sub-district
6. according to claim 2 or 4 described methods, it is characterized in that: described step (3) comprises following content of operation:
(31) Home eNodeB each adjacent area j of poll in regular turn promptly carries out following step (32) and (33) to each adjacent area circulation, until traveling through all adjacent areas; So that after predicting that this sub-district takies the PRB that sequence number is k, to the interference that each adjacent area j produces, finally trying to achieve this sub-district is on the PRB of k in sequence number, satisfy all adjacent area interference threshold values upper limit of emission power, be the transmitting power maximum;
(32) with the sequence number be the transmitting power p of the PRB of k
kBe independent variable, calculate according to the following equation and take the interference that this PRB produces adjacent area j
(33) finding adjacent area j in the interference threshold table of each adjacent area from step (11) is the maximum interference threshold value that PRB allowed of k in sequence number
Interference calculation formula in the integrating step (32) again
Obtain following inequality:
And then try to achieve maximum transmission power on the PRB that this sub-district that adjacent area j can tolerate is k in sequence number:
(34) calculate maximum transmission power on the PRB that this sub-district that can tolerate each adjacent area is k in sequence number after, choose wherein that this sub-district of conduct of numerical value minimum is the maximum transmission power that PRB allowed of k in sequence number, promptly obtain final upper limit of emission power: p
k Max=min{j → p
k Max, so that can satisfy the requirement of the interference threshold value of all adjacent areas.
7. method according to claim 2 is characterized in that: described step (4) comprises following content of operation:
(41) judge that sequence number is the transmitting power lower limit p of PRB under the prediction of this area interference of k
k MinWith its maximum transmission power p under the interference prediction of adjacent area
k MaxAnd the maximum transmission power p of initial setting up in the step (12)
MaxNumerical values recited, if p
k MinSatisfy simultaneously: p
k Min＜p
k MaxAnd p
k Min＜p
Max, when promptly these three parameter values scopes have common factor, show that this sequence number is that the PRB of k can use, and then carries out subsequent step (42); Otherwise, return execution in step (2), beginning poll Next Sequence PRB;
(42) because of this sequence number is that the PRB of k is available PRB, trying to achieve this sequence number is the transmitting power p of the available PRB of k
k=min{p
k Max, p
Max.
8. method according to claim 2 is characterized in that: described step (5) comprises following content of operation:
(51) sequence number that obtains based on above-mentioned steps is the transmitting power p of the available PRB of k
k, calculating this sequence number according to the following equation is the signal interference ratio of the available PRB of k for this sub-district
(52) PRB of all sequence numbers that judged whether poll promptly judges whether k=K, if then carry out subsequent step (53); Otherwise, return execution in step (2), beginning poll Next Sequence PRB;
(53) each is available PRB is according to its signal interference ratio SINR
kNumerical values recited carry out descending, promptly to each available PRB execution priority ordering.
9. method according to claim 2 is characterized in that: the content of operation of described step (6) comprising:
It is the available PRB prioritization that calculates according to step (5) that the PRB of described local Home eNodeB takies table, and the required PRB number in this sub-district obtains;
The PRB transmitting power table of described local Home eNodeB is according to selected available PRB, and the transmitting power of determining in the corresponding step (4) obtains;
Interference threshold value I in the interference threshold table of described local Home eNodeB
Max kRepresent that this sub-district is the interference maximum that can tolerate on the PRB of k in sequence number, this parameter-definition is: if this sub-district does not take the PRB that this sequence number is k, then I
Max kBe infinity; If this sub-district takies the PRB that sequence number is k, then I
Max kComputing formula be:
Wherein, SIR
MinSystem parameters for initial setting in the step (12): the signal interference ratio lower limit of each PRB;
Threshold value in the interference threshold table of described adjacent area
Represent the real-time interference maximum that each adjacent area can be tolerated on each PRB, this parameter is that earlier to find this adjacent area j at adjacent area interference threshold table be the maximum interference threshold value that can tolerate on the PRB of k in sequence number
This sub-district of poll is the interference that produces on the PRB of k in sequence number to each adjacent area j respectively again
Find the solution then
Poor, be the real-time interference threshold value in adjacent area after the renewal.
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Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN102791013A (en) * | 2012-07-04 | 2012-11-21 | 中兴通讯股份有限公司 | Method and device for processing resource admission in long term evolution system |
| CN103857048A (en) * | 2012-11-30 | 2014-06-11 | 华为技术有限公司 | Resource scheduling method and device |
| CN109302207A (en) * | 2018-11-30 | 2019-02-01 | 维沃移动通信有限公司 | A kind of parameter setting method and mobile terminal |
Citations (4)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN1357987A (en) * | 2000-12-06 | 2002-07-10 | 华为技术有限公司 | Call enableness controlling method in CDMA mobile communication system |
| US6711415B1 (en) * | 1997-10-03 | 2004-03-23 | Nortel Networks Limited | Method and system for minimizing transmitter power levels within a cellular telephone communications network |
| CN100484321C (en) * | 2001-02-28 | 2009-04-29 | 日本电气株式会社 | Mobile communication system, emitting power controlling method and base station thereof |
| CN101711058A (en) * | 2009-12-15 | 2010-05-19 | 中兴通讯股份有限公司 | Resource allocation method and resource allocation system |
-
2011
- 2011-06-03 CN CN201110149842XA patent/CN102186253B/en active Active
Patent Citations (4)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| US6711415B1 (en) * | 1997-10-03 | 2004-03-23 | Nortel Networks Limited | Method and system for minimizing transmitter power levels within a cellular telephone communications network |
| CN1357987A (en) * | 2000-12-06 | 2002-07-10 | 华为技术有限公司 | Call enableness controlling method in CDMA mobile communication system |
| CN100484321C (en) * | 2001-02-28 | 2009-04-29 | 日本电气株式会社 | Mobile communication system, emitting power controlling method and base station thereof |
| CN101711058A (en) * | 2009-12-15 | 2010-05-19 | 中兴通讯股份有限公司 | Resource allocation method and resource allocation system |
Cited By (5)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN102791013A (en) * | 2012-07-04 | 2012-11-21 | 中兴通讯股份有限公司 | Method and device for processing resource admission in long term evolution system |
| CN103857048A (en) * | 2012-11-30 | 2014-06-11 | 华为技术有限公司 | Resource scheduling method and device |
| CN103857048B (en) * | 2012-11-30 | 2017-08-29 | 华为技术有限公司 | A kind of resource regulating method and device |
| CN109302207A (en) * | 2018-11-30 | 2019-02-01 | 维沃移动通信有限公司 | A kind of parameter setting method and mobile terminal |
| CN109302207B (en) * | 2018-11-30 | 2020-01-07 | 维沃移动通信有限公司 | Parameter setting method and mobile terminal |
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| CN102186253B (en) | 2013-11-20 |
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