CN114285155B - Remote intelligent differentiation direct current output standby power endurance control method for 5G base station - Google Patents

Remote intelligent differentiation direct current output standby power endurance control method for 5G base station Download PDF

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CN114285155B
CN114285155B CN202210003486.9A CN202210003486A CN114285155B CN 114285155 B CN114285155 B CN 114285155B CN 202210003486 A CN202210003486 A CN 202210003486A CN 114285155 B CN114285155 B CN 114285155B
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base station
power supply
users
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user
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CN114285155A (en
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罗诚
顾炜
王晓峰
吴亚晖
崔亚楠
李强
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Nanjing Chiyongxing Intelligent Technology Co ltd
China Telecom Corp Ltd Suzhou Branch
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Nanjing Chiyongxing Intelligent Technology Co ltd
China Telecom Corp Ltd Suzhou Branch
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Abstract

The invention discloses a control method for a 5G base station to carry out remote intelligent differentiation on DC output standby power endurance, which relates to the technical field of base station standby power and comprises the steps of obtaining KPI information of the base station and state information of a power supply group; determining the number of access users of each sub-user based on the KPI information of the base station, and generating a communication log of each sub-user by combining with a time parameter; determining the current power supply mode of the base station to be one or more of mains power supply, power generation set power supply and storage battery power supply based on the state information of the power supply set; and if the current power supply mode of the base station does not have commercial power supply, calling the communication logs of all the sub-users to execute differentiated power supply logic. This application has the effect that supplementary staff manages 5G basic station better and is equipped with the electricity.

Description

Control method for long-distance intelligent differentiation direct current output standby power endurance for 5G base station
Technical Field
The application relates to the technical field of base station standby power, in particular to a control method for 5G base station standby power endurance through remote intelligent differentiation direct current output.
Background
For a base station, a standby power supply is often provided to ensure the operation stability of the base station in a complex environment. The base station power-on architecture is as follows: the AC commercial power/oil engine power generation-rectification module (can be divided into three paths, can store energy, dissipate heat and instantly distribute power) -power distribution boosting-load power distribution.
For 5G base stations, on one hand, the energy consumption is higher than that of the traditional 3G/4G base stations; on the other hand, the standards of each operator and the agent supplier are different, and the standard of the standby power is different.
Patent application number 2021105509427 is a 5G basic station differentiation is equipped with electric intelligent control equipment, includes state monitoring unit, data acquisition unit, singlechip, execution unit, communication module and power conversion unit. The data acquisition unit is electrically connected with the single chip microcomputer and used for acquiring power supply information of a user, the state monitoring unit is electrically connected with the single chip microcomputer and used for monitoring the commercial power, the oil engine and the direct current power generation unit in real time, the communication module is electrically connected with the single chip microcomputer and used for communicating with the operation and maintenance platform, and the single chip microcomputer is used for data processing, state judgment, communication processing, remote control and local control.
Above-mentioned technical scheme, it has the distribution parameter and the measurement function of each branch user of real-time supervision total input, can be used as according to the user's demand of difference and carry out differentiation and prepare the electricity, but it has following defect:
aiming at the fact that the regulation and control initiative of communication characteristics of each region is relatively poor, the application provides a new technical scheme.
Disclosure of Invention
In order to assist the staff to manage the 5G base station standby power better, the application provides a control method for the 5G base station to continue the journey with the remote intelligent differentiation direct current output standby power.
The application provides a control method of long-distance intelligent differentiation direct current output standby power endurance for a 5G base station, which adopts the following technical scheme:
a control method for long-distance intelligent differentiation direct current output standby power endurance for a 5G base station comprises the following steps:
acquiring KPI information of a base station and state information of a power supply group;
determining the number of access users of each sub-user based on the KPI information of the base station, and generating a communication log of each sub-user by combining with a time parameter;
determining the current power supply mode of the base station to be one or more of mains power supply, power generation set power supply and storage battery power supply based on the state information of the power supply set;
if the current power supply mode of the base station does not have commercial power supply, calling communication logs of all sub-users to execute differentiated power supply logic:
the differentiated power ready logic comprises:
judging whether the current access user number of the sub-users is smaller than a preset low access threshold value or not, and if so, recording a score a in a preset score table;
judging whether the number of the access users in the sample evaluation period is smaller than a preset section lower limit threshold, and if so, recording a score b in a preset score; wherein the evaluation sample period is the last t1 period of the same time of the historical date meeting the preselected criteria;
and (4) counting the total score c of the scoring table, judging whether the total score c is higher than a preset operation low threshold value, and if not, outputting power distribution value reduction instruction information of corresponding scoring users.
Optionally, the preselected criteria include:
if the current day is any one of sunday or tuesday to friday, selecting the previous day as the historical date;
if the current day is Monday and Saturday, the same day of the previous week is selected as the history date.
Optionally, the status information of the power supply group includes the power amount of the storage battery group; the low access threshold is set to be multiple and corresponds to the electric quantity values of the multiple storage battery packs.
Optionally, communication logs of sub-users corresponding to historical dates are called based on a preselected standard, and theoretical use peak periods are determined based on a peak searching algorithm;
and if the current time is the theoretical use peak period of the sub-users, stopping the power distribution value reduction instruction information corresponding to the sub-users.
Optionally, the determining the theoretical usage peak period based on the peak finding algorithm includes:
recording the number of access users in 24 hours on the historical date to obtain a historical array;
processing the historical array by a peak searching algorithm to obtain a user peak value;
and judging whether the user peak value is smaller than a preset low access threshold value or not, and if not, recording the time t2 before and the time t3 after the time corresponding to the user peak value as a theoretical use peak time.
Optionally, the peak searching algorithm includes:
s1, selecting a number from a historical array
Figure 566972DEST_PATH_IMAGE001
Figure 370980DEST_PATH_IMAGE001
Has a value of
Figure 303164DEST_PATH_IMAGE002
(ii) a Wherein the content of the first and second substances,
Figure 287038DEST_PATH_IMAGE003
the number is the serial number of the number in the array;
s2, judging
Figure 457119DEST_PATH_IMAGE004
Whether the result is true or not;
s3-1, if S2 is established, assigning a value
Figure 25504DEST_PATH_IMAGE001
=
Figure 648246DEST_PATH_IMAGE005
Circulating S2 until S2 is not established, and executing the next step;
s3-2, if S2 is not established, assigning n = i +1, and executing the next step;
s4, judging
Figure 937276DEST_PATH_IMAGE006
Whether the result is true or not;
s5-1, if S4 is true, assigning a value
Figure 820919DEST_PATH_IMAGE001
=
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Returning to S2 until S4 is not established, and executing the next step;
s5-2, if S4 is not true, assigning a value
Figure 47074DEST_PATH_IMAGE008
Returning to S4;
s6, traversing the array and the last S4
Figure 264429DEST_PATH_IMAGE002
Denoted as the user peak.
Optionally, the communication log binds a preset serial number of the base station, where the serial number at least includes a base station number and an area identification number where the base station is located; and sending the communication log to a specified cloud platform.
Optionally, the method further includes: acquiring online interactive data of a specified holder;
if the online interactive data comprises disaster condition manual intervention triggering information sent by a user with preset authority, the differentiated power backup logic is stopped, and a manual power distribution instruction bound with the disaster condition manual intervention triggering information is executed.
Optionally, the online interactive data further includes regional disaster information fed back by the designated website;
when regional disaster information accords with the emergency triggering condition, and trigger back T time internal not acquireing have the disaster under the manual intervention trigger information, differentiation is equipped with the electric logic and still includes: and (4) counting and analyzing the communication logs, calculating the number of the access users of the sub-users in the previous W days, taking the power distribution of the sub-users corresponding to the maximum value, stopping the power distribution of other sub-users, and generating and outputting corresponding power distribution instructions.
In summary, the present application includes at least one of the following beneficial technical effects: when the mains supply is powered off, the number of users of each sub-user is judged firstly, if the number of users is less than the threshold value, the score a is recorded, whether the number of users in the last t1 period of the same time of the previous day or other corresponding dates is less than the threshold value or not is judged, and if the number of users in the last t1 period of the same time is less than the threshold value, the score b is recorded; if the total score sum is smaller than the threshold value, namely the real-time user number of the sub-users is less than the threshold value, and the user number in the t1 time period after the history is the same as the threshold value, power distribution value reduction instruction information is output, so that the energy consumption of equipment corresponding to the sub-users is reduced by the users, resources are reserved for the equipment of other sub-users, and the standby power endurance is prolonged.
Drawings
Fig. 1 is a schematic overall flow diagram of the present application.
Fig. 2 is a schematic flow chart of differentiated power backup logic according to the present application.
Detailed Description
The present application is described in further detail below with reference to figures 1-2.
The embodiment of the application discloses a control method for long-distance intelligent differentiation direct current output standby power endurance for a 5G base station, which can be realized by loading and executing a calculation program for realizing the method through a computer and the like.
Referring to 1,5G, the method for controlling the remote intelligent differentiated dc output standby power endurance for the base station comprises the following steps:
s101, KPI information of a base station and state information of a power supply group are obtained.
In the present embodiment, the KPI of the base station mainly includes a load capacity indicator, more specifically, the number of users in the service class, so as to cooperate with the following content.
Three power supply groups are provided in the application, wherein one power supply group is a municipal power grid; one is an oil engine or other generator set; one is a standby power supply, namely a storage battery pack. The state information of the power supply group comprises at least voltage and current information, and the storage battery group comprises at least electric quantity information.
S102, determining the number of access users of each sub-user based on the KPI information of the base station, generating a communication log of each sub-user by combining time parameters, and binding a preset serial number of the base station.
Wherein, the sub-users, such as operators of Unicom, mobile, telecom, etc.; the number of sub-users, that is, the number of users of each operator within the range of the base station; the data can be acquired by butting an operator platform, but in consideration of privacy of users, platform interfaces, information safety and the like, the base station KPI information acquisition is preferably performed, and the effect is better on the premise that the base station local system is applied in the method.
The serial number at least includes a base station number and an area identification number where the base station is located, for example: the serial number of the Nth base station in the area A is A-N.
It can be understood that the communication log is not only applied to the current base station, but also uploaded to a regional management cloud platform for use, and therefore, a serial number needs to be added for distinguishing the communication log.
The management cloud platform is configured to:
identifying base stations in the same area (such as an administrative area) according to the serial numbers, and obtaining communication distribution of the base stations in the same area according to communication log statistics; the relevant data can be used for reference in the subsequent equipment upgrading of the base station.
And S103, determining the current power supply mode of the base station to be one or more of mains power supply, power supply of a power generation set and power supply of a storage battery set based on the state information of the power supply set.
It can be understood that, for example, the mains voltage and current are 0, and the battery pack outputs the operating voltage, i.e., the mains is powered off and the battery pack is powered on.
And S104, if the current power supply mode of the base station does not have commercial power supply, calling the communication logs of all sub-users to execute differentiated power supply logic.
It can be understood that the method is mainly applied to a scene of starting the standby power supply and is set for improving the endurance of the standby power supply, and therefore, in the embodiment, only the abnormal power supply of the commercial power and other power supply modes are used for explanation.
Referring to fig. 2, differentiated power-on logic includes:
s201, judging whether the current access user number of the sub-users is smaller than a preset low access threshold value; if yes, recording the score a in a preset score; if not, the process is ended.
The low access threshold is determined proportionally by the sub-users according to the size of the base station, and may specifically be a threshold that allows low power operation or even shutdown under special (e.g., power-off) conditions.
The other thresholds described below are set in a similar manner.
S202, judging whether the number of access users in the evaluation sample period is smaller than a preset section lower limit threshold value, and if so, recording a score b in a preset score; if so, the process is ended.
S203, counting the total score c of the scoring table, judging whether the total score c is higher than a preset operation low threshold value, and if so, ending; if not, outputting power distribution value reduction instruction information corresponding to the sub-users.
According to the above, the method does not directly output the corresponding instruction according to the result of S201, but counts the scores after considering the evaluation sample period of S202, and outputs the instruction according to the statistical result; by the mode, adverse effects caused by output of power distribution value reduction instructions and the like can be effectively reduced.
Specifically, the method comprises the following steps:
the sample period is evaluated, which is the last t1 period of the same time of the historical date that meets the preselected criteria. Wherein, the time period t1 can be 30-120min, that is, the number of users at this time is the average value of the sections; meanwhile, the embodiment may be configured to execute the differentiated power backup logic for one cycle with the lower limit of 30 min.
The preselected criteria include:
if the current day is any one of sunday or tuesday to friday, selecting the previous day as the historical date;
if the current day is Monday and Saturday, the same day of the previous week is selected as the history date.
The above arrangement mainly takes into account the influence of the holidays on the regional flow of different people, i.e. the number of users who split users.
It will be appreciated that the pre-selection criteria is not only based on ordinary holiday differentiation, but may also be holidays, even holidays which are further divided into traditional holidays, ordinary holidays, such as spring festival, day of birth, etc. Since there are many types, the criteria for each scene are not explained one by one, but only the basic principle, i.e. the selected sample day (history date), is explained, which is of the same type as the current day, like a working day.
According to the above contents, when the commercial power is cut off, the number of users of each sub-user is judged first, if the number is less than the threshold (corresponding to the above, the brief description is made), a is scored, and whether the number of users in the last t1 period of the same time of the previous day or other corresponding dates is less than the threshold or not is judged, if yes, S2 is scored; if the total score sum is smaller than the threshold value, namely the real-time user number of the sub-users is less than the threshold value, and the user number in the t1 time period after the same time is historical is less than the threshold value, power distribution value reduction instruction information is output, so that the energy consumption of equipment corresponding to the sub-users is reduced by the users, resources are reserved for the equipment of other sub-users, and the standby power endurance is prolonged.
The power distribution value reduction instruction information can be a certain low-power operation instruction in a plurality of units, or the most direct power failure of the user-divided units, and is specifically determined by working personnel according to the communication requirement of the area where the base station is located.
It can be understood that, in order to prevent the influence of temporary electrical appliance failure and the like on normal communication, the differentiated power supply logic is configured to: and after the mains supply is powered off, executing the process after a time period t, wherein the time period t is set according to the restarting time of the equipment, such as 3 minutes.
The method is also provided with the following steps: on the premise that the state information of the power supply group comprises the electric quantity of the storage battery pack, the low access threshold values are set to be multiple and correspond to the electric quantity values of the storage battery packs.
Specifically, for example: the low access threshold value is reduced along with the reduction of the electric quantity, namely when the related power supply abnormity problem is not solved in time, the power distribution value reduction instruction of the method is better and easily triggered along with the consumption of the standby power, so that the standby power endurance time is prolonged as far as possible under the condition.
In order to reduce the adverse effect brought by selective power distribution of the extension standby power distribution user, the method further comprises the following steps:
s301, communication logs of sub-users corresponding to historical dates are called based on pre-selected standards, and theoretical use peak periods are determined based on peak searching algorithms.
Wherein determining the theoretical usage peak period based on the peak finding algorithm comprises:
recording the number of access users in 24 hours on the historical date to obtain a historical array;
processing the historical array by a peak searching algorithm to obtain a user peak value;
and judging whether the user peak value is smaller than a preset low access threshold value or not, and if not, recording the time t2 before and the time t3 after the time corresponding to the user peak value as a theoretical use peak time.
T2 and t3 are preset values, such as t2=5min, and t3=10min.
And S302, if the current time is the theoretical use peak period of the sub-users, stopping the power distribution value reduction instruction information corresponding to the sub-users.
According to the above, if the current time is estimated to be the peak of usage by the sub-users based on the history, the selective power distribution scheme is stopped in time.
Regarding the peak searching algorithm, specifically, it includes:
s1, selecting a number from a historical array
Figure 409102DEST_PATH_IMAGE001
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Has a value of
Figure 385466DEST_PATH_IMAGE002
(ii) a Wherein the content of the first and second substances,
Figure 780413DEST_PATH_IMAGE003
the number is the serial number of the number in the array;
s2, judging
Figure 514013DEST_PATH_IMAGE004
Whether the result is true or not;
s3-1, if S2 is established, assigning a value
Figure 595102DEST_PATH_IMAGE001
=
Figure 414153DEST_PATH_IMAGE005
And the S2 is circulated until the S2 is not established,executing the next step;
s3-2, if S2 is not established, assigning n = i +1, and executing the next step;
s4, judging
Figure 973311DEST_PATH_IMAGE006
Whether the result is true;
s5-1, if S4 is established, assigning a value
Figure 561418DEST_PATH_IMAGE001
=
Figure 924660DEST_PATH_IMAGE007
Returning to S2 until S4 is not established, and executing the next step;
s5-2, if S4 is not established, assigning a value
Figure 621220DEST_PATH_IMAGE008
Returning to S4;
s6, traversing the array and the last S4
Figure 593855DEST_PATH_IMAGE002
Marked as the user peak.
According to the deductible above, the peak searching process of the method is carried out in sequence; based on the method, the staff can preset the rejecting time, such as 2-4 o' clock in the morning, and firstly rejects the time period in which the communication peak does not appear generally; and dividing the data of other time into a plurality of arrays, calculating local peak values at the same time, and integrating the local peak values into an array peak searching, namely performing multi-line processing to process the rate.
For the application environment of the method, the environment faced by the method has a disaster situation, rainstorm occurs in a certain area in China at present time and space, and communication in the disaster area is ensured through an unmanned aerial vehicle carrying communication platform in China or even emergently, the method is applied under the abnormal condition of base station communication, and the method is further set as follows:
acquiring online interactive data of a specified holder;
if the online interactive data comprise disaster-condition manual intervention triggering information sent by a user with preset authority, differential power backup logic is stopped, and a manual power distribution instruction bound with the disaster-condition manual intervention triggering information is executed.
Specifically, the method comprises the following steps:
presetting an authority user, namely an administrator account of a base station maintainer, sending manual intervention triggering information and associated information to a cloud deck in disaster situations through a terminal, such as a computer, a mobile phone and the like, and finishing interaction through a channel between the cloud deck and a base station; under the condition, the base station distributes power based on the manual power distribution instruction.
Further, the method is also provided as follows: the online interactive data also comprises regional disaster information fed back by the appointed website, namely, a worker sets the appointed website to obtain geology as the disaster information, periodically sends the disaster information to the cloud, and then the geological information is interacted with the base station side by the cloud deck.
Subsequently, when the regional disaster information meets the emergency triggering condition and the triggering information of the manual intervention in the disaster is not acquired within the time T (e.g. 15-30 min) after triggering, the differentiated power backup logic further comprises: and (3) counting and analyzing the communication logs, calculating the number of the sub-users accessing users in the previous W days (such as two days), taking the sub-user power distribution corresponding to the maximum value, stopping the power distribution of other sub-users, and generating and outputting corresponding power distribution instructions.
The regional disaster information meets the emergency triggering condition, for example, the serial number of a base station in the region in the regional disaster information is matched with the regional disaster information, and the disaster-rainstorm and snowstorm grades meet the preset grade.
According to the arrangement, in a severe disaster situation, if relevant personnel do not intervene manually in time or leave the background, the base station applying the method can enter an automatic judgment mechanism to automatically respond to the disaster situation, and the power distribution instruction under a preset extreme environment is used for controlling to prolong the endurance of the base station.
The above embodiments are preferred embodiments of the present application, and the protection scope of the present application is not limited by the above embodiments, so: all equivalent changes made according to the structure, shape and principle of the present application shall be covered by the protection scope of the present application.

Claims (5)

1. A control method for long-distance intelligent differentiation direct current output standby power endurance for a 5G base station is characterized by comprising the following steps:
acquiring KPI information of a base station and state information of a power supply group;
determining the number of access users of each sub-user based on the KPI information of the base station, and generating a communication log of each sub-user by combining with a time parameter;
determining the current power supply mode of the base station to be one or more of mains power supply, power generation set power supply and storage battery power supply based on the state information of the power supply set;
if the current power supply mode of the base station does not have commercial power supply, calling the communication logs of all sub-users to execute differentiated power supply logic:
the differentiated power ready logic comprises:
judging whether the current access user number of the sub-users is smaller than a preset low access threshold value or not, and if so, recording a score a in a preset score table;
judging whether the number of the access users in the sample evaluation period is smaller than a preset section lower limit threshold, and if so, recording a score b in a preset score; wherein the evaluation sample period is the last t1 period of the same time of the history date meeting the preselected criteria;
counting the total score c of the scoring table, judging whether the total score c is higher than a preset operation low threshold value, and if not, outputting power distribution value reduction instruction information corresponding to the scoring users;
the preselected criteria include:
if the current day is any one of sunday or tuesday to friday, selecting the previous day as the historical date;
if the current day is Monday and Saturday, selecting the same day of the previous week as the historical date;
the state information of the power supply group comprises the electric quantity of the storage battery pack; the low access threshold values are set to be multiple and correspond to the electric quantity values of the multiple storage battery packs;
further comprising: calling communication logs of sub-users corresponding to historical dates based on a preselected standard, and determining theoretical use peak periods based on a peak searching algorithm;
if the current time is the theoretical use peak time of the sub-users, stopping the power distribution value reduction instruction information corresponding to the sub-users;
the peak searching algorithm-based determination of theoretical usage peak periods comprises:
recording the number of access users in 24 hours on the historical date to obtain a historical array;
processing the historical array by a peak searching algorithm to obtain a user peak value;
and judging whether the user peak value is smaller than a preset low access threshold value or not, and if not, recording the time t2 before and the time t3 after the time corresponding to the user peak value as a theoretical use peak time.
2. The control method of claim 1, wherein the peak-searching algorithm comprises:
s1, selecting a number from a historical array
Figure DEST_PATH_IMAGE001
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Has a value of
Figure 36184DEST_PATH_IMAGE002
(ii) a Wherein the content of the first and second substances,
Figure DEST_PATH_IMAGE003
the number is the serial number of the number in the array;
s2, judging
Figure 365534DEST_PATH_IMAGE004
Whether the result is true or not;
s3-1, if S2 is established, assigning a value
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=
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Circulating S2 until S2 is not established, and executing the next step;
s3-2, if S2 is not established, assigning n = i +1, and executing the next step;
s4, judging
Figure 344565DEST_PATH_IMAGE006
Whether the result is true;
s5-1, if S4 is true, assigning a value
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=
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Returning to S2 until S4 is not established, and executing the next step;
s5-2, if S4 is not true, assigning a value
Figure 967624DEST_PATH_IMAGE008
Returning to S4;
s6, traversing the array and the last S4
Figure 547379DEST_PATH_IMAGE002
Denoted as the user peak.
3. The control method of the 5G base station for the long-distance intelligent differentiation direct current output standby power endurance according to claim 1, characterized in that: the communication log is bound with a preset serial number of a base station, and the serial number at least comprises a base station number and an area identification number of the base station; and sending the communication log to a specified cloud platform.
4. The control method of claim 3, further comprising: acquiring online interactive data of a specified holder;
if the online interactive data comprise disaster-condition manual intervention triggering information sent by a user with preset authority, differential power backup logic is stopped, and a manual power distribution instruction bound with the disaster-condition manual intervention triggering information is executed.
5. The control method of the 5G base station for the long-distance intelligent differentiation direct current output standby power endurance according to claim 4, characterized in that: the online interactive data also comprises regional disaster information fed back by the appointed website;
when regional disaster information accords with the emergency triggering condition, and trigger back T time internal not acquireing have the disaster under the manual intervention trigger information, differentiation is equipped with the electric logic and still includes: and (4) counting and analyzing the communication logs, calculating the number of the sub-user access users in the previous W days, taking the sub-user power distribution corresponding to the maximum value, stopping the power distribution of other sub-users, and generating and outputting corresponding power distribution instructions.
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