CN111328103B - Method and device for adjusting antenna coverage - Google Patents
Method and device for adjusting antenna coverage Download PDFInfo
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- CN111328103B CN111328103B CN201811544838.1A CN201811544838A CN111328103B CN 111328103 B CN111328103 B CN 111328103B CN 201811544838 A CN201811544838 A CN 201811544838A CN 111328103 B CN111328103 B CN 111328103B
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Abstract
The invention discloses a method and a device for adjusting antenna coverage, which are used for solving the problem of low accuracy in adjusting antenna coverage in the prior art. When the antenna coverage is adjusted, the lobe width and the azimuth angle of a cell are determined according to the number of terminals in the cell, the sampling position and the sampling times of the sampling position of at least one terminal in the cell, the downward inclination angle of the cell is determined according to the position and the height of a base station to which the cell belongs, the position and the height of a base station to which an adjacent cell belongs and the determined lobe width, and the antenna corresponding to the cell is adjusted according to the determined azimuth angle, the downward inclination angle and the lobe width. When the antenna coverage is adjusted, the lobe width, the azimuth angle and the downward inclination angle of the cell are directly and accurately calculated, so that the antenna of the cell can be directly adjusted according to the accurately determined azimuth angle, downward inclination angle and lobe width, and the accuracy of cell coverage is improved.
Description
Technical Field
The present invention relates to the field of wireless communications technologies, and in particular, to a method and an apparatus for adjusting antenna coverage.
Background
With the development of LTE (Long Term Evolution), users of LTE are greatly increased, and how to meet accurate coverage of users becomes a difficult problem.
At present, coverage of a cell to users is mainly realized by adjusting an azimuth angle, a downtilt angle and a lobe width, wherein the azimuth angle represents the coverage characteristic of the cell in the horizontal direction, the downtilt angle represents the coverage characteristic in the vertical direction, and the lobe width represents the coverage range. The lobe width is mainly realized by configuring different amplitudes and phases, so for a certain cell, the more accurate the azimuth angle, the downtilt angle and the lobe width are identified, the more accurate the coverage is, and the better the coverage effect is.
When the coverage of the existing network is adjusted, field test is usually adopted, and then adjustment is carried out, so that the antennas with different problem sources are repeatedly adjusted, and a large amount of resources are consumed. How to realize one-time adjustment according to the actual conditions of users is effective for a long time, and the release of adjustment manpower becomes very important.
There are two main schemes for adjusting coverage and determining azimuth angle. One method is to confirm the azimuth Angle based on TA (Timing Advance) -AOA (Angle of Arrival direction), the method has the problem of large error of the determined azimuth Angle under various wireless environment conditions such as refraction, scattering, interference and the like, and the method does not consider the influence of a large number of reported sampling points of a single user and a small number of sampling points of multiple users on the azimuth Angle, and can not correctly judge whether the influence of the number of users on the azimuth Angle is large or whether the influence of the number of sampling points on the azimuth Angle is large, and can not accurately confirm the azimuth Angle when the reported sampling points of different users are not uniform.
The other method is a ray evaluation method, the characteristics of users and the distribution of the users are not fully considered in the method, so that the determined azimuth angle is not accurate, and the actual distribution conditions of the users and sampling points thereof are not fully considered in the method.
In addition, the lobe width and the downtilt angle of the cell cannot be determined by the above methods, which also affects the accuracy of the adjustment of the antenna coverage.
In summary, the problem of low accuracy in adjusting the antenna coverage in the prior art exists.
Disclosure of Invention
The invention provides a method and a device for adjusting antenna coverage, which are used for solving the problem of low accuracy in adjusting antenna coverage in the prior art.
The embodiment of the invention provides a method for adjusting antenna coverage, which comprises the following steps:
for any terminal in a cell, determining a sampling position of the terminal and sampling times on the sampling position according to mr (Measurement Report) information data reported by the terminal;
determining the lobe width of the cell and the azimuth angle of the cell according to the number of terminals in the cell, the sampling position of at least one terminal in the cell and the sampling times on the sampling position;
determining the downward inclination angle of the cell according to the position and the height of the base station to which the cell belongs, the position and the height of the base station to which the adjacent cell belongs and the determined lobe width;
and adjusting the antenna corresponding to the cell according to the determined azimuth angle, the determined downtilt angle and the determined lobe width.
In the method, when the antenna coverage is adjusted, firstly, a sampling position of a terminal and the sampling times on the sampling position are determined for any terminal in a cell according to mr information data reported by the terminal; then determining the lobe width and the azimuth angle of the cell according to the number of terminals in the cell, the sampling position of at least one terminal in the cell and the sampling times on the sampling position; further determining the downward inclination angle of the cell according to the position and the height of the base station to which the cell belongs, the position and the height of the base station to which the adjacent cell belongs and the determined lobe width; and finally, adjusting the antenna corresponding to the cell according to the determined azimuth angle, the determined downtilt angle and the determined lobe width. Thus, in the embodiment of the present invention, when determining the coverage of the antenna, not only the number of users in the cell is considered, but also the number of sampling times corresponding to the users is considered, that is, in the embodiment of the present invention, when determining the lobe width and the azimuth, the influence of a large number of single-user reporting sampling points and a small number of multi-user sampling points on the azimuth is considered, and the influence of a small number of sampling points on the azimuth of the downtilt user of the cell is determined according to the position and height of the base station to which the cell belongs, the position and height of the base station to which the adjacent cell belongs, and the determined lobe width, so that the determined azimuth of the cell antenna is more accurate, and the accuracy of cell coverage is improved.
In a possible implementation manner, determining, for any terminal in a cell, a sampling position of the terminal and a sampling number at the sampling position according to mr information data reported by the terminal includes:
aiming at any terminal in a cell, determining the sampling position of the terminal according to the longitude and latitude of a sampling position point contained in mr information data reported by the terminal; and determining the sampling times of the sampling positions corresponding to the longitude and latitude according to the number of mr information data containing the same longitude and latitude.
The method comprises the steps that aiming at any terminal in a cell, the sampling position of the terminal is determined according to the longitude and latitude of a sampling position point contained in mr information data reported by the terminal; and determining the sampling times at the sampling positions corresponding to the longitude and latitude according to the quantity of mr information data containing the same longitude and latitude, and then forming a corresponding relation among the terminal, the sampling position of the terminal and the corresponding sampling times at the sampling position of the terminal so as to determine the azimuth angle and the lobe width of the antenna of the base station to which the cell belongs according to the obtained information, thereby providing data support for antenna coverage adjustment in the embodiment of the invention.
In a possible embodiment, the determining the lobe width of the cell according to the number of terminals in the cell, the sampling position of at least one terminal in the cell, and the number of samples at the sampling position includes:
sequentially selecting an angle from a set angle set;
after selecting an angle, determining an initial coverage range according to a set angle and an initial direction, and rotating the coverage range by taking the center of a cell as a circle center according to a set moving angle until a new coverage range is overlapped with the initial coverage range;
after the initial coverage range is determined and the coverage range is rotated once, the sampling information weight corresponding to the coverage range is determined according to the following modes:
determining the number of terminals in a coverage area according to the sampling position of at least one terminal in the cell, and determining the sampling times in the coverage area according to the sampling position of at least one terminal in the cell and the sampling times on the sampling position;
determining the sampling information weight corresponding to the coverage area according to the number and the sampling times of the terminals in the coverage area and the number and the sampling times of the terminals in the cell;
selecting the sampling information weight which is greater than the weight threshold value and is the smallest from the sampling information weights corresponding to all the coverage areas;
and taking the angle corresponding to the selected sampling information weight as the lobe width of the cell.
The method comprises the steps of sequentially selecting an angle from a set angle set; after selecting an angle, determining an initial coverage range according to a set angle and an initial direction, and rotating the coverage range by taking the center of a cell as a circle center according to a set moving angle until a new coverage range is overlapped with the initial coverage range; after the initial coverage range is determined and the coverage range is rotated once, the sampling information weight corresponding to the coverage range is determined according to the following modes: determining the number of terminals in a coverage area according to the sampling position of at least one terminal in the cell, and determining the sampling times in the coverage area according to the sampling position of at least one terminal in the cell and the sampling times on the sampling position; determining the sampling information weight corresponding to the coverage area according to the number and the sampling times of the terminals in the coverage area and the number and the sampling times of the terminals in the cell; selecting the sampling information weight which is greater than the weight threshold value and is the smallest from the sampling information weights corresponding to all the coverage areas; and taking the angle corresponding to the selected sampling information weight as the lobe width of the cell. By the method, the sampling information weight under all determined coverage ranges can be determined by calculation under a set angle set by taking the center of the cell as the center of a circle and rotating according to the set angle; when the selected sampling information weight is greater than the set weight threshold, the angle corresponding to the sampling information weight can be ensured to meet the user requirement, and when the selected sampling information weight is the smallest sampling information weight greater than the set weight threshold, the angle corresponding to the selected sampling information weight is used as the lobe width of the cell, so that more accurate coverage can be realized.
In a possible embodiment, the determining the azimuth of the cell according to the number of terminals in the cell, the sampling position of at least one terminal in the cell, and the sampling times at the sampling position includes:
selecting the coverage range with the maximum corresponding sampling information weight from all coverage ranges determined by the angles corresponding to the selected sampling information weights;
and taking the rotation angle of the coverage range relative to the initial coverage range as the size of the azimuth angle of the cell, and taking the rotation direction of the coverage range angle as the direction of the azimuth angle of the cell.
In the method, when the azimuth angle of the cell is determined, the corresponding coverage range with the maximum sampling information weight is selected from all coverage ranges determined by the angle corresponding to the selected sampling information weight; and taking the rotation angle of the coverage range relative to the initial coverage range as the size of the azimuth angle of the cell, and taking the direction of the angular rotation of the coverage range as the direction of the azimuth angle of the cell. Thus, after the lobe width which can meet the user requirement and realize accurate coverage is determined, the largest sampling information weight is selected from all the sampling information weights corresponding to the lobe width, the rotation angle of the coverage range relative to the initial coverage range under the sampling information weight is determined, the angle is used as the size of the azimuth angle of the cell, and the rotation direction of the coverage range angle is used as the direction of the azimuth angle of the cell. In this way, the coverage of the cell antenna can be made best at the determined lobe width.
In a possible implementation, the determining the downtilt of the cell according to the position and the height of the base station to which the cell belongs, the position and the height of the base station to which the neighboring cell belongs, and the determined lobe width includes:
determining coverage boundary points of the cell and the adjacent cell according to the position and the height of the base station to which the cell belongs and the position and the height of the base station to which the adjacent cell belongs;
and determining the downtilt angle of the cell according to the distance from the coverage boundary point to the base station to which the cell belongs, the height of the base station to which the cell belongs and the determined lobe width.
When determining the cell downward inclination angle, firstly, determining the coverage boundary points of the cell and the adjacent cell according to the position and the height of the base station to which the cell belongs and the position and the height of the base station to which the adjacent cell belongs; and then determining the downtilt angle of the cell according to the distance from the coverage boundary point to the base station to which the cell belongs, the height of the base station to which the cell belongs and the determined lobe width. Therefore, the corresponding downward inclination angle of the cell is directly calculated through the known parameters, and the coverage area of the antenna of the cell adjusted according to the downward inclination angle is more accurate.
In a possible implementation manner, after determining the downtilt of the cell according to the distance from the coverage boundary point to the base station to which the cell belongs, the height of the base station to which the cell belongs, and the determined lobe width, the method further includes:
determining a connection between a base station to which the cell belongs and a base station to which the adjacent cell belongs;
and if the included angle between the connecting line and the azimuth angle of the cell is smaller than a set angle, correcting the downward inclination angle according to the azimuth angle of the cell.
In the method, after the downward inclination angle of the cell is determined, the connection between the base station to which the cell belongs and the base station to which the adjacent cell belongs is also determined; and if the included angle between the connecting line and the azimuth angle of the cell is smaller than a set angle, correcting the downward inclination angle according to the azimuth angle of the cell. Therefore, after the downtilt of the cell is determined according to the distance from the coverage boundary point to the base station to which the cell belongs, the height of the base station to which the cell belongs and the determined lobe width, if a connection line between the base station to which the cell belongs and the base station to which the adjacent cell belongs is determined, and the included angle between the connection line and the azimuth angle of the cell is determined to be within a tolerable angle deviation range, the downtilt is corrected according to the determined azimuth angle, so that after the antenna corresponding to the cell is adjusted according to the determined azimuth angle, downtilt and lobe width, the coverage range of the antenna of the cell can be more accurate.
In a second aspect, an embodiment of the present invention further provides an apparatus for adjusting antenna coverage, including: a processor and a transceiver, the device having functionality to implement the embodiments of the first aspect described above.
In a third aspect, an embodiment of the present invention further provides an apparatus for adjusting antenna coverage, where the apparatus includes at least one processing unit and at least one storage unit, and the apparatus has a function of implementing each embodiment of the first aspect.
In a fourth aspect, a computer-storable medium has stored thereon a computer program which, when being executed by a processor, realizes the steps of the above-mentioned method.
Drawings
In order to more clearly illustrate the technical solutions in the embodiments of the present invention, the drawings needed to be used in the description of the embodiments will be briefly introduced below, and it is obvious that the drawings in the following description are only some embodiments of the present invention, and it is obvious for those skilled in the art to obtain other drawings based on these drawings without inventive exercise.
Fig. 1 is a schematic flowchart of a method for adjusting antenna coverage according to an embodiment of the present invention;
fig. 2 is a diagram illustrating an antenna coverage adjustment according to an embodiment of the present invention;
fig. 3 is a diagram illustrating an antenna coverage adjustment according to an embodiment of the present invention;
fig. 4 is a diagram illustrating an antenna coverage adjustment according to an embodiment of the present invention;
fig. 5 is a diagram illustrating an antenna coverage adjustment according to an embodiment of the present invention;
fig. 6 is a diagram illustrating an antenna coverage adjustment according to an embodiment of the present invention;
fig. 7 is a schematic structural diagram of an antenna coverage adjustment apparatus according to an embodiment of the present invention;
fig. 8 is a schematic structural diagram of an apparatus for adjusting antenna coverage according to an embodiment of the present invention.
Detailed Description
The embodiment of the invention relates to an antenna coverage adjusting method and device, which are used for solving the problem of low accuracy of the existing antenna coverage adjustment.
At present, coverage of a cell to users is mainly realized by adjusting an azimuth angle, a downtilt angle and a lobe width, wherein the azimuth angle represents the coverage characteristic of the cell in the horizontal direction, the downtilt angle represents the coverage characteristic in the vertical direction, and the lobe width represents the coverage range. The lobe width is mainly realized by configuring different amplitudes and phases, so that for a certain cell, the more accurate the azimuth angle, the downtilt angle and the lobe width are identified, the more accurate the coverage is, and the better the coverage effect is.
In the embodiment of the invention, the user is accurately positioned according to the reported information of the user, and then the lobe angle and the azimuth angle of the cell are accurately determined after the influence of the scenes of a plurality of users with few sampling points and a single use of a plurality of sampling points on the azimuth angle and the lobe width of the cell is fully considered. In the process of determining the downward inclination angle, the influence of the station height and the azimuth angle on the downward inclination angle is fully considered, and the method is more practical for network promotion.
In order to make the objects, technical solutions and advantages of the present invention clearer, the present invention will be described in further detail with reference to the accompanying drawings, and it is apparent that the described embodiments are only a part of the embodiments of the present invention, not all of the embodiments. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present invention.
As shown in fig. 1, a method for adjusting antenna coverage according to an embodiment of the present invention includes:
102, determining a downtilt angle of a cell according to the position and the height of a base station to which the cell belongs, the position and the height of a base station to which an adjacent cell belongs and the determined lobe width;
In the method, when the antenna coverage is adjusted, firstly, aiming at any terminal in a cell, according to mr information data reported by the terminal, the sampling position of the terminal and the sampling times on the sampling position are determined; then, according to the number of terminals in the cell, the sampling position of at least one terminal in the cell and the sampling times on the sampling position, determining the lobe width of the cell and the azimuth angle of the cell; further determining the downward inclination angle of the cell according to the position and the height of the base station to which the cell belongs, the position and the height of the base station to which the adjacent cell belongs and the determined lobe width; and finally, adjusting the antenna corresponding to the cell according to the determined azimuth angle, the determined downtilt angle and the determined lobe width. Thus, in the embodiment of the present invention, when determining the coverage of the antenna, not only the number of users in the cell is considered, but also the number of sampling times corresponding to the users is considered, that is, in the embodiment of the present invention, when determining the lobe width and the azimuth, the influence of a large number of single-user reporting sampling points and a small number of multi-user sampling points on the azimuth is considered, and the influence of a small number of sampling points on the azimuth of the downtilt user of the cell is determined according to the position and height of the base station to which the cell belongs, the position and height of the base station to which the adjacent cell belongs, and the determined lobe width, so that the determined azimuth of the cell antenna is more accurate, and the accuracy of cell coverage is improved.
It can be seen from the above that, in the embodiment of the present invention, when performing antenna coverage adjustment, an azimuth angle, a downtilt angle, and a lobe width of an antenna of the base station in a cell are directly calculated and determined according to mr information data reported by terminals in the cell, the number of terminals in the cell, and other data, and then, the antenna coverage adjustment is directly performed according to the determined azimuth angle, downtilt angle, and lobe width. The scheme of the antenna coverage adjustment in the embodiment of the present invention is explained in detail below.
In particular implementations, prior to determining the antenna azimuth, downtilt angle, and lobe width that need to be adjusted, relevant data for determining the antenna azimuth, downtilt angle, and lobe width need first be determined.
Optionally, determining, for any terminal in a cell, a sampling position of the terminal and sampling times at the sampling position according to mr information data reported by the terminal, includes:
aiming at any terminal in a cell, determining the sampling position of the terminal according to the longitude and latitude of a sampling position point contained in mr information data reported by the terminal; and determining the sampling times of the sampling positions corresponding to the longitude and latitude according to the number of mr information data containing the same longitude and latitude.
The method comprises the steps that aiming at any terminal in a cell, the sampling position of the terminal is determined according to the longitude and latitude of a sampling position point contained in mr information data reported by the terminal; and determining the sampling times on the sampling positions corresponding to the longitude and latitude according to the quantity of mr information data containing the same longitude and latitude, and then forming a corresponding relation among the terminal, the sampling position of the terminal and the corresponding sampling times on the sampling position of the terminal so as to determine the azimuth angle and the lobe width of the antenna of the base station to which the cell belongs according to the obtained information, thereby providing data support for antenna coverage adjustment in the embodiment of the invention.
After the required information is collected, the information needs to be integrated, and the expression display is composed of multiple types:
for example: in the time interval T, three users in the current cell obtained by the existing sampling are respectively a user 1, a user 2 and a user 3;
wherein, the sampling position point 1 of the user 1 is 38 'to 40' north latitude, 112 'to east longitude and 45', and the sampling frequency is 11 times;
the sampling position point 2 of the user 1 is 38 'to 41' north latitude, 112 'to 60' east longitude, and the sampling frequency is 5 times;
the sampling position point 3 of the user 1 is 38 'to north latitude 35', 112 'to east longitude 55', and the sampling frequency is 5;
the sampling position point 1 of the user 2 is 39 '40' north latitude, 112 '45' east longitude, and the sampling frequency is 6 times;
the sampling position point 2 of the user 2 is 39 'north latitude 55', 112 'east longitude 55', and the sampling frequency is 2;
the sampling position point 1 of the user 3 is 38 '25' north latitude, 112 '15' east longitude, and the sampling frequency is 15 times;
the sampling position point 2 of the user 3 is 38 'north latitude 62', 112 'east longitude 15', and the sampling frequency is 6; the sampling position point 3 of the user 3 is 38 'and 55' of north latitude, 112 'and 25' of east longitude, and the sampling frequency is 3 times; the sampling position point 4 of the user 3 is 38 'to 40' north latitude, 112 'to 44' east longitude, and the sampling frequency is 7 times. 1. And representing a sampling information set determined by mr information data reported by the terminal in a list form.
2. And expressing the sampling information set determined by mr information data reported by the terminal in a matrix form.
For example, it is assumed that a sampling information set is established based on the above information
Wherein j is mk The longitude of the kth sampling point of the mth user in the cell is referred to; />
w mk The latitude of the kth sampling point of the mth user in the cell is referred to;
n mk refers to the uploaded sampling times of the kth sampling point of the mth user in the cell.
I.e. a set of sampled information determined by the above-mentioned distances
Further, after the information data is acquired, calculation is performed according to the acquired data, and the azimuth angle, the downtilt angle and the lobe width of the antenna of the base station in the cell are determined.
Optionally, the determining the lobe width of the cell according to the number of terminals in the cell, the sampling position of at least one terminal in the cell, and the sampling times at the sampling position includes:
sequentially selecting an angle from a set angle set;
after selecting an angle, determining an initial coverage range according to a set angle and an initial direction, and rotating the coverage range by taking the center of a cell as a circle center according to a set moving angle until a new coverage range is overlapped with the initial coverage range;
after determining the initial coverage range and rotating the coverage range once, determining the sampling information weight corresponding to the coverage range according to the following modes:
determining the number of terminals in a coverage area according to the sampling position of at least one terminal in the cell, and determining the sampling times in the coverage area according to the sampling position of at least one terminal in the cell and the sampling times on the sampling position;
determining the sampling information weight corresponding to the coverage area according to the number and the sampling times of the terminals in the coverage area and the number and the sampling times of the terminals in the cell;
selecting the sampling information weight which is greater than the weight threshold value and is the smallest from the sampling information weights corresponding to all the coverage areas;
and taking the angle corresponding to the selected sampling information weight as the lobe width of the cell.
The method comprises the steps of sequentially selecting an angle from a set angle set; after selecting an angle, determining an initial coverage range according to a set angle and an initial direction, and rotating the coverage range according to a set movement angle by taking the center of a cell as the center of a circle until a new coverage range is overlapped with the initial coverage range; after the initial coverage range is determined and the coverage range is rotated once, the sampling information weight corresponding to the coverage range is determined according to the following modes: determining the number of terminals in a coverage area according to the sampling position of at least one terminal in the cell, and determining the sampling times in the coverage area according to the sampling position of at least one terminal in the cell and the sampling times on the sampling position; determining the sampling information weight corresponding to the coverage area according to the number and the sampling times of the terminals in the coverage area and the number and the sampling times of the terminals in the cell; selecting the sampling information weight which is greater than the weight threshold value and is the smallest from the sampling information weights corresponding to all the coverage areas; and taking the angle corresponding to the selected sampling information weight as the lobe width of the cell. By the method, the sampling information weight under all determined coverage ranges can be determined by calculation under a set angle set by taking the center of the cell as the center of a circle and rotating according to the set angle; when the selected sampling information weight is greater than the set weight threshold, the angle corresponding to the sampling information weight can be ensured to meet the user requirement, and when the selected sampling information weight is the smallest sampling information weight greater than the set weight threshold, the angle corresponding to the selected sampling information weight is used as the lobe width of the cell, so that more accurate coverage can be realized.
The details will be described below by way of example.
As shown in fig. 2, first, for a cell, all sampling points are displayed around the cell according to the longitude and latitude of all determined sampling positions and the sampling frequency of each sampling point;
setting an angle set of {10 degrees, 20 degrees, 30 degrees, 40 degrees, 8230, 10 degrees } and sequentially selecting an angle from the set angle set; for example 30 °;
then, when the true north direction is taken as the initial position and the center of the cell is taken as the center of a circle, determining an initial coverage range according to 30 degrees and the initial direction, and rotating the coverage range by taking the center of the cell as the center of a circle according to a set movement angle of 15 degrees until a new coverage range is overlapped with the initial coverage range; thus, the operation that the coverage area rotates for one circle when the included angle is 30 degrees is completed;
in the process, after an initial range is determined according to the selected angle and the determined initial position, the total number of users in the coverage range is calculated according to the sampling position of at least one terminal in the coverage range in the cell, and the total sampling times is calculated according to the sampling position in the coverage range in the cell; then, according to the number and the sampling times of the terminals in the coverage area and the number and the sampling times of the terminals in the cell, determining the sampling information weight corresponding to the coverage area;
then, rotating the coverage area by taking the center of the cell as the circle center according to a set moving angle to determine a new coverage area, immediately calculating the total number of users in the coverage area according to the sampling position of at least one terminal in the coverage area in the cell, and calculating the total sampling times according to the sampling position of the coverage area in the cell; then, according to the number and the sampling times of the terminals in the coverage area and the number and the sampling times of the terminals in the cell, determining the sampling information weight corresponding to the coverage area;
if the movement is repeated for the second time, the coverage range of rotating the coverage range by taking the center of the cell as the center of a circle according to the set movement angle is overlapped with the initial coverage range; i.e. the weight of the sampling information corresponding to the included angle of 30 degrees is accepted to be calculated;
and selecting an angle from the set angle set again to serve as an included angle, performing the operation, and repeating the operation in a circulating mode until all sampling information weights corresponding to all angles in the angle set are calculated.
In the following, a possible way to determine the weights of the sampled information will be described.
For example, as shown in fig. 3, the total number of terminals determined in the cell is 4, and meanwhile, the total number of sampling times is 200, and the weight α of the set number of terminals is 0.5; the sampling frequency weight beta is 0.5; the number of sampling positions shown in the currently defined coverage range is 4:
the sampling position 1 is the sampling position of mr information data reported by the terminal 1 for 6 times;
the sampling position 2 is the sampling position of mr information data reported by the terminal 1 for 5 times;
the sampling position 3 is the sampling position of mr information data reported by the terminal 2 for 3 times;
the sampling position 4 is the sampling position of mr information data reported by the terminal 3 for 8 times;
sampling information weight
The weight of the sampling information is disclosed by substituting the data into the weight of the sampling information
After all sampling information weights P corresponding to all angles in the set angle set are determined through the method, the obtained information weights are compared with the minimum information weight which can meet the user requirements under cell coverage, and the lobe width is determined.
Optionally, selecting the sampling information weight which is greater than the weight threshold and is the smallest from the sampling information weights corresponding to all coverage areas; and taking the angle corresponding to the selected sampling information weight as the lobe width of the cell.
Therefore, when the sampling information weight is greater than the minimum information weight which can meet the user requirement under the cell coverage, the sampling information weight is selected to be greater than the minimum information weight which can meet the user requirement under the cell coverage, and the sampling information weight which is greater than the minimum information weight which can meet the user requirement under the cell coverage and is the smallest is selected from the sampling information weights; and the angle corresponding to the selected sampling information weight is used as the lobe width of the cell, so that more accurate coverage can be realized.
For example:
when the determined sampling information weight is larger than the minimum information weight which can meet the user requirements under the cell coverage, the number of the sampling information weights is 3, and the sampling information weights are respectively as follows:
the selected angle from the set angle set is 45 degrees, the coverage range is obtained by rotating the initial position for 5 times, and the weight value of the sampling information corresponding to the coverage range is 0.6;
the selected angle from the set angle set is 60 degrees, the coverage range is obtained by rotating the initial position for 5 times, and the weight value of the sampling information corresponding to the coverage range is 0.65;
selecting an angle of 75 degrees from the set angle set, rotating the initial position for 5 times to obtain a coverage range, wherein the weight value of sampling information corresponding to the coverage range is 0.7;
determining that the weight value of the selected sampling information is 0.6, and the angle corresponding to the weight value of the sampling information is 45 degrees, and taking the 45 degrees as the lobe width of the cell.
After the lobe width of the cell is determined, the azimuth angle of the cell is further determined according to the determined lobe width and the determined sampling information weight.
Optionally, the determining the azimuth angle of the cell according to the number of terminals in the cell, the sampling position of at least one terminal in the cell, and the sampling times at the sampling position includes:
selecting the coverage range with the maximum corresponding sampling information weight from all coverage ranges determined by the angles corresponding to the selected sampling information weights;
and taking the rotation angle of the coverage range relative to the initial coverage range as the size of the azimuth angle of the cell, and taking the direction of the angular rotation of the coverage range as the direction of the azimuth angle of the cell.
In the method, when the azimuth angle of a cell is determined, the coverage range with the maximum corresponding sampling information weight is selected from all coverage ranges determined by the angle corresponding to the selected sampling information weight; and taking the rotation angle of the coverage range relative to the initial coverage range as the size of the azimuth angle of the cell, and taking the direction of the angular rotation of the coverage range as the direction of the azimuth angle of the cell. Thus, after the lobe width which can meet the user requirement and realize accurate coverage is determined, the largest sampling information weight is selected from all the sampling information weights corresponding to the lobe width, the rotation angle of the coverage range relative to the initial coverage range under the sampling information weight is determined, the angle is used as the size of the azimuth angle of the cell, and the rotation direction of the coverage range angle is used as the direction of the azimuth angle of the cell. In this way, the coverage of the cell antenna can be made best at the determined lobe width.
For example, when it is determined that the lobe width is 45 °, when the weight of the sampled information corresponding to the coverage area obtained by rotating the initial position 5 times by a fixed angle of 30 ° each time is the largest, 150 ° is taken as the magnitude of the azimuth angle of the cell, and the direction of rotation of the coverage area is taken as the direction of the azimuth angle of the cell.
After the azimuth angle of the cell is determined, the downtilt angle of the cell is also determined in the embodiment of the present invention, so as to implement further accurate coverage.
Optionally, the determining the downtilt of the cell according to the position and height of the base station to which the cell belongs, the position and height of the base station to which the neighboring cell belongs, and the determined lobe width includes:
determining coverage boundary points of the cell and the adjacent cell according to the position and the height of the base station to which the cell belongs and the position and the height of the base station to which the adjacent cell belongs;
and determining the downtilt angle of the cell according to the distance from the coverage boundary point to the base station to which the cell belongs, the height of the base station to which the cell belongs and the determined lobe width.
When determining the cell downward inclination angle, firstly, determining the coverage boundary points of the cell and the adjacent cell according to the position and the height of the base station to which the cell belongs and the position and the height of the base station to which the adjacent cell belongs; and then determining the downtilt angle of the cell according to the distance from the coverage boundary point to the base station to which the cell belongs, the height of the base station to which the cell belongs and the determined lobe width. Therefore, the downward inclination angle corresponding to the cell is directly calculated through the known parameters, and the coverage range of the antenna of the cell adjusted according to the downward inclination angle is more accurate.
The position and height of the base station to which the cell belongs and the position and height of the base station to which the adjacent cell belongs can be obtained by obtaining the existing networking parameters, and the position of the base station to which the cell belongs and the position of the base station to which the adjacent cell belongs are determined by the longitude and latitude of the base station to which the cell belongs and the longitude and latitude of the base station to which the adjacent cell belongs in the existing networking parameters.
As shown in fig. 4, in a specific implementation, the positions of the base stations of all the cells are shown in a diagram according to the latitude and longitude information of the base station to which the cell belongs in the current networking engineering, and then the neighboring cells of the cell are determined according to the diagram.
Further, connecting the position of the base station to which the cell belongs with the position of the base station to which the adjacent cell belongs, and determining a boundary point S of the cell coverage according to the height of the base station to which the cell belongs and the height of the base station to which the adjacent cell belongs; that is, the distance from the boundary point S to the position A of the base station to which the cell belongs and the height H of the base station to which the cell belongs A Is equal to the distance between the boundary point S and the position F of the base station to which the adjacent cell belongs and the height H of the base station to which the adjacent cell belongs F The ratio of (A) to (B);
the downward inclination angle satisfies the formula:
at this time, after the vertical half angle θ (i.e., the lobe width) of the antenna is determined, the down tilt angle is determined
In addition, in a specific implementation, a coverage direction of the cell antenna may be different from a direction of a connection line between the base station to which the cell belongs and the base station to which the neighboring cell belongs, and at this time, since a coverage range of the antenna changes, the coverage range of the cell antenna may not reach the boundary point S, and at this time, whether to correct the downtilt angle of the cell needs to be considered.
Optionally, after determining the downtilt angle of the cell according to the distance from the coverage boundary point to the base station to which the cell belongs, the height of the base station to which the cell belongs, and the determined lobe width, the method further includes:
determining a connection between a base station to which the cell belongs and a base station to which the adjacent cell belongs;
and if the included angle between the connecting line and the azimuth angle of the cell is smaller than a set angle, correcting the downward inclination angle according to the azimuth angle of the cell.
In the method, after the downward inclination angle of the cell is determined, the connection between the base station to which the cell belongs and the base station to which the adjacent cell belongs is also determined; and if the included angle between the connecting line and the azimuth angle of the cell is smaller than a set angle, correcting the downward inclination angle according to the azimuth angle of the cell. Thus, after the downtilt of the cell is determined according to the distance from the coverage boundary point to the base station to which the cell belongs, the height of the base station to which the cell belongs and the determined lobe width, if a connection line between the base station to which the cell belongs and the base station to which an adjacent cell belongs is determined, and an included angle between the connection line and the azimuth angle of the cell is determined to be within a tolerable angle deviation range, the downtilt is corrected according to the determined azimuth angle, so that after the antenna corresponding to the cell is adjusted according to the determined azimuth angle, downtilt and lobe width, the coverage range of the cell antenna can be more accurate.
The tolerable angle deviation range is determined manually and is an empirical value, and different environments correspond to different tolerable angle deviation ranges.
In a specific implementation, as shown in fig. 5, when a deviation angle between a coverage direction of a cell antenna and a direction of a connection line between a base station to which the cell belongs and a base station to which an adjacent cell belongs is within a tolerable angle deviation range, the downtilt angle is corrected according to an azimuth angle of the cell, so that the coverage range of the cell antenna can cover a boundary point.
When the deviation angle between the coverage direction of the cell antenna and the direction of the connection line between the base station to which the cell belongs and the base station to which the adjacent cell belongs is within the tolerable angle deviation range, the boundary point of the cell antenna on the connection line between the base station to which the cell belongs and the base station to which the adjacent cell belongs is fixed, and the corresponding downward inclination angle of the coverage range of the cell antenna on the connection line at the moment
And the included angle between the connecting line and the azimuth angle of the cell is equal to half of the azimuth angle, and the azimuth angle meets the formula:
and after the downward inclination angle is corrected, immediately adjusting the antenna corresponding to the cell according to the determined azimuth angle, the downward inclination angle and the lobe width.
As shown in fig. 6, the present invention provides a detailed flowchart of a method for adjusting antenna coverage.
601, aiming at any terminal in a cell, determining a sampling position of the terminal and sampling times on the sampling position according to mr information data reported by the terminal;
and 606, adjusting the antenna corresponding to the cell according to the determined azimuth angle, the determined downtilt angle and the determined lobe width.
Based on the same inventive concept, the embodiment of the present invention further provides an apparatus for adjusting antenna coverage, and since the apparatus performs the steps in the method in the embodiment of the present invention and the principle of the apparatus for solving the problem is similar to that of the method, the implementation of the apparatus may refer to the implementation of the method, and repeated details are not repeated.
As shown in fig. 7, an embodiment of the present invention provides an apparatus for adjusting antenna coverage, including: processor 700 and transceiver 701:
the processor 700 is configured to perform data transmission through the transceiver 701, and determine, for any terminal in a cell, a sampling position of the terminal and sampling times at the sampling position according to mr information data reported by the terminal; determining the lobe width of the cell and the azimuth angle of the cell according to the number of terminals in the cell, the sampling position of at least one terminal in the cell and the sampling times on the sampling position; determining the downward inclination angle of the cell according to the position and the height of the base station to which the cell belongs, the position and the height of the base station to which the adjacent cell belongs and the determined lobe width; and adjusting the antenna corresponding to the cell according to the determined azimuth angle, the determined downtilt angle and the determined lobe width.
Optionally, the processor 700 is specifically configured to:
aiming at any terminal in a cell, determining the sampling position of the terminal according to the longitude and latitude of a sampling position point contained in mr information data reported by the terminal; and determining the sampling times of the sampling positions corresponding to the longitude and latitude according to the number of mr information data containing the same longitude and latitude.
Optionally, the processor 700 is specifically configured to:
sequentially selecting an angle from a set angle set;
after selecting an angle, determining an initial coverage range according to a set angle and an initial direction, and rotating the coverage range by taking the center of a cell as a circle center according to a set moving angle until a new coverage range is overlapped with the initial coverage range;
after the initial coverage range is determined and the coverage range is rotated once, the sampling information weight corresponding to the coverage range is determined according to the following modes:
determining the number of terminals in a coverage area according to the sampling position of at least one terminal in the cell, and determining the sampling times in the coverage area according to the sampling position of at least one terminal in the cell and the sampling times on the sampling position;
determining the sampling information weight corresponding to the coverage area according to the number and the sampling times of the terminals in the coverage area and the number and the sampling times of the terminals in the cell;
selecting the sampling information weight which is greater than the weight threshold value and is the smallest from the sampling information weights corresponding to all the coverage areas;
and taking the angle corresponding to the selected sampling information weight as the lobe width of the cell.
Optionally, the processor is specifically configured to:
selecting the coverage range with the maximum corresponding sampling information weight from all coverage ranges determined by the angles corresponding to the selected sampling information weights; and taking the rotation angle of the coverage range relative to the initial coverage range as the size of the azimuth angle of the cell, and taking the rotation direction of the coverage range angle as the direction of the azimuth angle of the cell.
Optionally, the processor 700 is specifically configured to:
determining coverage boundary points of the cell and the adjacent cell according to the position and the height of the base station to which the cell belongs and the position and the height of the base station to which the adjacent cell belongs; and determining the downward inclination angle of the cell according to the distance from the coverage boundary point to the base station to which the cell belongs, the height of the base station to which the cell belongs and the determined lobe width.
Optionally, the processor 700 is further specifically configured to:
determining a connection between a base station to which the cell belongs and a base station to which the adjacent cell belongs; and if the included angle between the connecting line and the azimuth angle of the cell is smaller than a set angle, correcting the downward inclination angle according to the azimuth angle of the cell.
As shown in fig. 8, an embodiment of the present invention provides an apparatus for adjusting antenna coverage, including:
at least one processing unit 800 and at least one memory unit 801, wherein the memory unit 801 has stored program code, which when executed by the processing unit 800, causes the processing unit 800 to perform the following processes:
aiming at any terminal in a cell, determining a sampling position of the terminal and sampling times on the sampling position according to mr information data reported by the terminal; determining the lobe width of the cell and the azimuth angle of the cell according to the number of terminals in the cell, the sampling position of at least one terminal in the cell and the sampling times on the sampling position; determining the downward inclination angle of the cell according to the position and the height of the base station to which the cell belongs, the position and the height of the base station to which the adjacent cell belongs and the determined lobe width; and adjusting the antenna corresponding to the cell according to the determined azimuth angle, the determined downtilt angle and the determined lobe width.
Optionally, the processing unit 800 is specifically configured to:
aiming at any terminal in a cell, determining the sampling position of the terminal according to the longitude and latitude of a sampling position point contained in mr information data reported by the terminal; and determining the sampling times of the sampling positions corresponding to the longitude and latitude according to the number of mr information data containing the same longitude and latitude.
Optionally, the processing unit 800 is specifically configured to:
sequentially selecting an angle from a set angle set;
after selecting an angle, determining an initial coverage range according to a set angle and an initial direction, and rotating the coverage range by taking the center of a cell as a circle center according to a set moving angle until a new coverage range is overlapped with the initial coverage range;
after determining the initial coverage range and rotating the coverage range once, determining the sampling information weight corresponding to the coverage range according to the following modes:
determining the number of terminals in a coverage area according to the sampling position of at least one terminal in the cell, and determining the sampling times in the coverage area according to the sampling position of at least one terminal in the cell and the sampling times on the sampling position;
determining the sampling information weight corresponding to the coverage area according to the number and the sampling times of the terminals in the coverage area and the number and the sampling times of the terminals in the cell;
selecting the sampling information weight which is greater than the weight threshold value and is the smallest from the sampling information weights corresponding to all the coverage areas;
and taking the angle corresponding to the selected sampling information weight as the lobe width of the cell.
Optionally, the processing unit 800 is specifically configured to:
selecting the coverage range with the maximum corresponding sampling information weight from all coverage ranges determined by the angles corresponding to the selected sampling information weights; and taking the rotation angle of the coverage range relative to the initial coverage range as the size of the azimuth angle of the cell, and taking the direction of the angular rotation of the coverage range as the direction of the azimuth angle of the cell.
Optionally, the processing unit 800 is specifically configured to:
determining coverage boundary points of the cell and the adjacent cell according to the position and the height of the base station to which the cell belongs and the position and the height of the base station to which the adjacent cell belongs; and determining the downtilt angle of the cell according to the distance from the coverage boundary point to the base station to which the cell belongs, the height of the base station to which the cell belongs and the determined lobe width.
Optionally, the processing unit 800 is further configured to:
determining a connection between a base station to which the cell belongs and a base station to which the adjacent cell belongs; and if the included angle between the connecting line and the azimuth angle of the cell is smaller than a set angle, correcting the downward inclination angle according to the azimuth angle of the cell.
The embodiment of the invention also provides a readable storage medium of the computing equipment aiming at the method for adjusting the antenna coverage, namely, the content is not lost after the power is cut off. The storage medium stores therein a software program comprising program code which, when executed on a computing device, when read and executed by one or more processors, implements any of the above aspects of antenna coverage adjustment of embodiments of the present invention.
The present application is described above with reference to block diagrams and/or flowchart illustrations of methods, apparatus (systems) and/or computer program products according to embodiments of the application. It will be understood that one block of the block diagrams and/or flowchart illustrations, and combinations of blocks in the block diagrams and/or flowchart illustrations, can be implemented by computer program instructions. These computer program instructions may be provided to a processor of a general purpose computer, special purpose computer, and/or other programmable data processing apparatus to produce a machine, such that the instructions, which execute via the processor of the computer and/or other programmable data processing apparatus, create means for implementing the functions/acts specified in the block diagrams and/or flowchart block or blocks.
Accordingly, the subject application may also be embodied in hardware and/or in software (including firmware, resident software, micro-code, etc.). Furthermore, the present application may take the form of a computer program product on a computer-usable or computer-readable storage medium having computer-usable or computer-readable program code embodied in the medium for use by or in connection with an instruction execution system. In the context of this application, a computer-usable or computer-readable medium may be any medium that can contain, store, communicate, propagate, or transport the program for use by or in connection with the instruction execution system, apparatus, or device.
It will be apparent to those skilled in the art that various changes and modifications may be made in the present invention without departing from the spirit and scope of the invention. Thus, if such modifications and variations of the present invention fall within the scope of the claims of the present invention and their equivalents, the present invention is also intended to include such modifications and variations.
Claims (12)
1. A method for antenna coverage adjustment, the method comprising:
aiming at any terminal in a cell, determining a sampling position of the terminal and sampling times on the sampling position according to mr information data reported by the terminal;
sequentially selecting an angle from a set angle set;
after selecting an angle, determining an initial coverage range according to a set angle and an initial direction, and rotating the coverage range according to a set movement angle by taking the center of a cell as the center of a circle until a new coverage range is overlapped with the initial coverage range;
after the initial coverage range is determined and the coverage range is rotated once, the sampling information weight corresponding to the coverage range is determined according to the following modes:
determining the number of terminals in a coverage area according to the sampling position of at least one terminal in the cell, and determining the sampling times in the coverage area according to the sampling position of at least one terminal in the cell and the sampling times on the sampling position;
determining the sampling information weight corresponding to the coverage area according to the number and the sampling times of the terminals in the coverage area and the number and the sampling times of the terminals in the cell;
selecting the sampling information weight which is greater than the weight threshold and is the smallest from the sampling information weights corresponding to all the coverage areas, and taking the angle corresponding to the selected sampling information weight as the lobe width of the cell;
determining the azimuth angle of the cell according to the number of terminals in the cell, the sampling position of at least one terminal in the cell and the sampling times on the sampling position;
determining the downward inclination angle of the cell according to the position and the height of the base station to which the cell belongs, the position and the height of the base station to which the adjacent cell belongs and the determined lobe width;
and adjusting the antenna corresponding to the cell according to the determined azimuth angle, the determined downtilt angle and the determined lobe width.
2. The method of claim 1, wherein for any terminal in a cell, determining a sampling position of the terminal and a sampling number at the sampling position according to mr information data reported by the terminal, comprises:
aiming at any terminal in a cell, determining the sampling position of the terminal according to the longitude and latitude of a sampling position point contained in mr information data reported by the terminal; and determining the sampling times of the sampling positions corresponding to the longitude and latitude according to the number of mr information data containing the same longitude and latitude.
3. The method of claim 1, wherein the determining the azimuth of the cell based on the number of terminals in the cell, a sampling location of at least one terminal in the cell, and a number of samples at the sampling location comprises:
selecting the coverage range with the maximum corresponding sampling information weight from all coverage ranges determined by the angles corresponding to the selected sampling information weights;
and taking the rotation angle of the coverage range relative to the initial coverage range as the size of the azimuth angle of the cell, and taking the direction of the angular rotation of the coverage range as the direction of the azimuth angle of the cell.
4. The method of claim 1, wherein determining the downtilt of the cell based on the location and height of the base station to which the cell belongs, the location and height of the base station to which the neighboring cell belongs, and the determined lobe width comprises:
determining coverage boundary points of the cell and the adjacent cell according to the position and the height of the base station to which the cell belongs and the position and the height of the base station to which the adjacent cell belongs;
and determining the downward inclination angle of the cell according to the distance from the coverage boundary point to the base station to which the cell belongs, the height of the base station to which the cell belongs and the determined lobe width.
5. The method of claim 1, wherein after determining the downtilt of the cell according to the distance from the coverage boundary point to the base station to which the cell belongs, the height of the base station to which the cell belongs, and the determined lobe width, further comprising:
determining a connection between a base station to which the cell belongs and a base station to which the adjacent cell belongs;
and if the included angle between the connecting line and the azimuth angle of the cell is smaller than a set angle, correcting the downward inclination angle according to the azimuth angle of the cell.
6. An apparatus for antenna coverage adjustment, comprising: a processor and a transceiver:
the processor is used for transmitting data through the transceiver, and determining a sampling position of the terminal and the sampling times on the sampling position according to mr information data reported by the terminal aiming at any terminal in a cell; sequentially selecting an angle from a set angle set; after selecting an angle, determining an initial coverage range according to a set angle and an initial direction, and rotating the coverage range according to a set movement angle by taking the center of a cell as the center of a circle until a new coverage range is overlapped with the initial coverage range; after determining the initial coverage range and rotating the coverage range once, determining the sampling information weight corresponding to the coverage range according to the following modes: determining the number of terminals in a coverage area according to the sampling position of at least one terminal in the cell, and determining the sampling times in the coverage area according to the sampling position of at least one terminal in the cell and the sampling times on the sampling position; determining the sampling information weight corresponding to the coverage area according to the number and the sampling times of the terminals in the coverage area and the number and the sampling times of the terminals in the cell; selecting the sampling information weight which is greater than the weight threshold and is the smallest from the sampling information weights corresponding to all the coverage areas, and taking the angle corresponding to the selected sampling information weight as the lobe width of the cell; determining the azimuth angle of the cell according to the number of terminals in the cell, the sampling position of at least one terminal in the cell and the sampling times on the sampling position; determining the downward inclination angle of the cell according to the position and the height of the base station to which the cell belongs, the position and the height of the base station to which the adjacent cell belongs and the determined lobe width;
and adjusting the antenna corresponding to the cell according to the determined azimuth angle, the determined downtilt angle and the determined lobe width.
7. The apparatus of claim 6, wherein the processor is specifically configured to:
aiming at any terminal in a cell, determining the sampling position of the terminal according to the longitude and latitude of a sampling position point contained in mr information data reported by the terminal; and determining the sampling times of the sampling positions corresponding to the longitude and latitude according to the number of mr information data containing the same longitude and latitude.
8. The apparatus of claim 6, wherein the processor is specifically configured to:
selecting the coverage range with the maximum corresponding sampling information weight from all coverage ranges determined by the angles corresponding to the selected sampling information weights; and taking the rotation angle of the coverage range relative to the initial coverage range as the size of the azimuth angle of the cell, and taking the direction of the angular rotation of the coverage range as the direction of the azimuth angle of the cell.
9. The apparatus of claim 6, wherein the processor is specifically configured to:
determining coverage boundary points of the cell and the adjacent cell according to the position and the height of the base station to which the cell belongs and the position and the height of the base station to which the adjacent cell belongs; and determining the downward inclination angle of the cell according to the distance from the coverage boundary point to the base station to which the cell belongs, the height of the base station to which the cell belongs and the determined lobe width.
10. The apparatus of claim 6, wherein the processor is further configured to:
determining a connection between a base station to which the cell belongs and a base station to which the adjacent cell belongs; and if the included angle between the connecting line and the azimuth angle of the cell is smaller than a set angle, correcting the downward inclination angle according to the azimuth angle of the cell.
11. An apparatus for antenna coverage adjustment, the apparatus comprising:
at least one processing unit and at least one memory unit, wherein the memory unit stores program code that, when executed by the processing unit, causes the processing unit to perform the following:
aiming at any terminal in a cell, determining a sampling position of the terminal and sampling times on the sampling position according to mr information data reported by the terminal; sequentially selecting an angle from a set angle set; after selecting an angle, determining an initial coverage range according to a set angle and an initial direction, and rotating the coverage range according to a set movement angle by taking the center of a cell as the center of a circle until a new coverage range is overlapped with the initial coverage range; after the initial coverage range is determined and the coverage range is rotated once, the sampling information weight corresponding to the coverage range is determined according to the following modes: determining the number of terminals in a coverage area according to the sampling position of at least one terminal in the cell, and determining the sampling times in the coverage area according to the sampling position of at least one terminal in the cell and the sampling times on the sampling position; determining the sampling information weight corresponding to the coverage area according to the number and the sampling times of the terminals in the coverage area and the number and the sampling times of the terminals in the cell; selecting the sampling information weight which is greater than the weight threshold and is the smallest from the sampling information weights corresponding to all the coverage areas, and taking the angle corresponding to the selected sampling information weight as the lobe width of the cell; determining the lobe width of the cell and the azimuth angle of the cell according to the number of terminals in the cell, the sampling position of at least one terminal in the cell and the sampling times on the sampling position; determining the downward inclination angle of the cell according to the position and the height of the base station to which the cell belongs, the position and the height of the base station to which the adjacent cell belongs and the determined lobe width; and adjusting the antenna corresponding to the cell according to the determined azimuth angle, the determined downtilt angle and the determined lobe width.
12. A computer-readable storage medium, on which a computer program is stored which, when being executed by a processor, carries out the steps of the method according to any one of claims 1 to 5.
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| CN114641008B (en) * | 2020-12-16 | 2023-09-05 | 中国联合网络通信集团有限公司 | Broadband access method, device and system |
| CN114285496B (en) * | 2021-12-17 | 2023-07-28 | 中国联合网络通信集团有限公司 | Antenna downtilt angle calibration method and device |
| CN114401485B (en) * | 2021-12-23 | 2024-06-28 | 中国电信股份有限公司 | Method and related device for processing coverage information of wireless network cell |
| CN114679736B (en) * | 2022-04-12 | 2024-04-16 | 中国联合网络通信集团有限公司 | Base station control method, device, system and storage medium |
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| CN111328103A (en) | 2020-06-23 |
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