CN113312881B - Frequency band information conversion method and device, electronic equipment and computer storage medium - Google Patents
Frequency band information conversion method and device, electronic equipment and computer storage medium Download PDFInfo
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Abstract
The embodiment of the invention relates to the technical field of computers, and discloses a frequency band information conversion method and device, electronic equipment and a computer storage medium. The method comprises the following steps: acquiring target information to be converted into a code form, wherein the target information comprises frequency band combination information, input and output information and uplink frequency band information; dividing the frequency band combination information according to the separator in the frequency band combination information to obtain a plurality of pieces of sub-frequency band information; adding additional information of each sub-band information obtained according to the target information on the basis of each sub-band information to obtain code-form sub-band information, wherein the additional information specifically comprises channel information and identification information, and connecting the code-form sub-band information through a connector to obtain the code-form target information. According to the invention, the electronic equipment is utilized to acquire the target information, and the target information is converted into the target information in the code form, so that the conversion efficiency and the conversion accuracy are greatly improved, and the debugging process of researchers is further accelerated.
Description
Technical Field
The embodiment of the invention relates to the technical field of computers, in particular to a frequency band information conversion method and device, electronic equipment and a computer storage medium.
Background
The 5G network refers to a fifth generation network in the development of a mobile communication network, and the 5G network will exhibit a more powerful function in practical application process than the previous four generation mobile communication network, for example, the transmission speed of the 5G network can reach tens of GB per second theoretically, and this transmission speed is about several hundred times that of the 4G mobile network.
Although the 5G network is powerful, considering that the cost of 5G SA (stand alone) is too high, most operators at home and abroad will choose to use NSA (Non-stand alone) earlier, i.e. in the form of EN-DC (E-UTRA and New radioDual Connectivity, dual connectivity of the 4G radio access network with the new air interface of 5G), i.e. using a core network of 4G, but the air interface comprises two parts, 4G and 5G. The NSA needs to transmit data by using the carrier corresponding to the 4G frequency band and the carrier corresponding to the 5G frequency band at the same time, and both the 4G frequency band and the 5G frequency band are divided into a plurality of sub-frequency bands, and the plurality of 4G sub-frequency bands obtained by dividing the 4G frequency band can also realize carrier aggregation, that is, the data can be transmitted by using the carriers corresponding to the plurality of 4G sub-frequency bands at the same time, so as to increase the data transmission bandwidth of the system. If a carrier aggregation is performed on a part of 4G sub-bands in the plurality of 4G sub-bands obtained by dividing the 4G band, and then permutation and combination are performed between the part of 4G sub-bands and the plurality of 5G sub-bands obtained by dividing the 5G band, a plurality of EN-DC combinations can be obtained, for example, there is one EN-DC combination as follows: DC_1A-3A-41C-42C_n257A, wherein 1A, 3A, 41C and 42C are four 4G sub-bands obtained by dividing a 4G frequency band, n257A is one 5G sub-band obtained by dividing a 5G frequency band, and the four 4G sub-bands and the 5G sub-band need to transmit data simultaneously.
Because the number of the 4G sub-bands and the 5G sub-bands is more, carrier aggregation can be performed between the 4G sub-bands, tens of thousands of EN-DC combinations can be obtained after permutation and combination, and the performance of simultaneously performing data transmission of each sub-band included in one EN-DC combination and the performance of simultaneously performing data transmission of each sub-band included in the other EN-DC combination often have a certain difference, so that researchers are required to debug the tens of thousands of EN-DC combinations one by one so as to obtain the transmission performance of each EN-DC combination, and then the EN-DC combinations are better applied to transmit data. Researchers typically debug these EN-DC combinations by software, which requires converting a line of band information in the form of a line table or TXT containing EN-DC combinations such as "dc_1a-3A-41C-42c_n 255 a" and EN-DC combinations specifying Multiple Input Multiple Output (MIMO) bands, single Input Single Output (SISO) bands and upstream bands in the EN-DC combinations into code in the form of XML (eXtensible Markup Language), XML being a set of specifications created by the internet syndication, the purpose of which is to assist software developers and content creators in organizing and delivering information over the network.
For specific forms of a row of tables for EN-DC combinations, please refer to tables 1 and 2, in table 1, the EN-DC combination is "dc_1a-3A-41C-42c_n257a", 4G 4 x 4mimo frequency band is 1A-3A-41C frequency band, 4G uplink frequency band is 1A frequency band, 5G uplink SISO frequency band is n257A frequency band, and table 2, the EN-DC combination is "dc_1a-3A-41C-42c_n257a", 4G 4 x 4mimo frequency band is 1A-3A-41C frequency band, 4G uplink frequency band is 1A frequency band, 5G uplink 2 x 2mimo frequency band is n257A frequency band.
Table 1A line of the EN-DC combinations
Table 2 another row of tables for EN-DC combinations
At present, each row of tables of different EN-DC combinations are manually converted into codes in an XML form, and the debugging process of the EN-DC combinations can be seriously influenced due to the fact that the number of the EN-DC combinations is quite large and the conversion efficiency of manual conversion is low.
Disclosure of Invention
The embodiment of the invention aims to provide a frequency band information conversion method and device, electronic equipment and a computer storage medium, which can improve the efficiency and accuracy of converting EN-DC combined information in a form of a table into EN-DC combined information in a code form so as to accelerate the debugging process.
In order to solve the above technical problems, an embodiment of the present invention provides a frequency band information conversion method, including the following steps: acquiring target information to be converted into a code form; the target information comprises frequency band combination information, input and output information and uplink frequency band information; dividing the frequency band combination information according to the separator in the frequency band combination information to obtain a plurality of pieces of sub-frequency band information; adding additional information of each sub-band information on the basis of each sub-band information to obtain code-form sub-band information; the additional information is obtained according to the target information, and comprises channel information and identification information for distinguishing different network systems; and connecting the sub-band information in the code form through a connector to obtain the target information in the code form.
The embodiment of the invention also provides a frequency band information conversion device, which comprises: the device comprises an acquisition module, a division module, a conversion module and a connection module; the acquisition module is used for acquiring target information to be converted into a code form; the target information comprises frequency band combination information, input and output information and uplink frequency band information; the division module is used for dividing the frequency band combination information according to the separator in the frequency band combination information to obtain a plurality of pieces of sub-frequency band information; the conversion module is used for adding additional information of each sub-frequency band information on the basis of each sub-frequency band information to obtain code-form sub-frequency band information; the additional information is obtained according to the target information, and comprises channel information and identification information for distinguishing different network systems; the connection module is used for connecting the sub-band information in the code form through the connector to obtain the target information in the code form.
The embodiment of the invention also provides electronic equipment, which comprises: at least one processor; and a memory communicatively coupled to the at least one processor; the memory stores instructions executable by the at least one processor to enable the at least one processor to perform the frequency band information conversion method.
The embodiment of the invention also provides a computer readable storage medium which stores a computer program, and the computer program realizes the frequency band information conversion method when being executed by a processor.
Compared with the related art, after the electronic device acquires the target information (including the frequency band combination information, the input/output information and the uplink frequency band information) which needs to be converted into the code form, dividing the frequency band combination information according to the separator contained in the frequency band combination information to obtain a plurality of pieces of sub-frequency band information, obtaining additional information including channel information and identification information for distinguishing different network systems of each piece of sub-frequency band information according to the target information, adding corresponding additional information on the basis of each piece of sub-frequency band information to obtain each piece of sub-frequency band information in the code form, and connecting the sub-frequency band information in the code form through the connector to obtain the target information in the code form. According to the invention, the electronic equipment is utilized to automatically acquire the target information, and the target information is converted into the code-form target information according to the frequency band combination information, the input/output information, the uplink frequency band information and the like which are included in the target information, so that the conversion efficiency and the conversion accuracy can be greatly improved, the debugging process of researchers is further accelerated, and the sub-frequency band information of different network systems can be distinguished according to the identification information in the additional information in the code-form target information.
In addition, after obtaining the plurality of pieces of sub-band information, the method further comprises: matching each sub-band information with uplink band information; and adding uplink information into the additional information of the successfully matched sub-band information, wherein the uplink information is obtained according to the successfully matched sub-band information. In this embodiment, uplink/downlink sub-band information can be distinguished using uplink information.
In addition, adding additional information of each sub-band information on the basis of each sub-band information to obtain code-form sub-band information, including: adding identification information in front of each sub-band information; adding channel information at the back of each sub-band information; and adding uplink information after the channel information of the sub-band information belonging to the uplink band information to obtain each sub-band information in a code form. In this embodiment, a specific position of the identification information, the channel information and the uplink information before and after the sub-band information is provided, and a specific form of the sub-band information in a code form is presented.
In addition, dividing the frequency band combination information according to the separator in the frequency band combination information to obtain a plurality of pieces of sub-frequency band information, and then further comprising: acquiring identification information of each piece of sub-band information according to whether each piece of sub-band information contains a marker; wherein the sub-band information containing the tag is different from the identification information of the sub-band information not containing the tag.
In addition, dividing the frequency band combination information according to the separator in the frequency band combination information to obtain a plurality of pieces of sub-frequency band information, and then further comprising: obtaining bandwidth models included in each piece of sub-band information; obtaining the channel number of each sub-band information according to the bandwidth model; and acquiring the number of the selectable antennas of each piece of sub-band information according to the input and output information, and acquiring the channel information of each piece of sub-band information according to the number of channels and the number of the selectable antennas.
Drawings
One or more embodiments are illustrated by way of example and not limitation in the figures of the accompanying drawings, in which like references indicate similar elements, and in which the figures of the drawings are not to be taken in a limiting sense, unless otherwise indicated.
Fig. 1 is a flowchart of a frequency band information conversion method according to an embodiment of the present invention;
fig. 2 is a flowchart of a frequency band information conversion method including a manner of acquiring uplink information according to an embodiment of the present invention;
fig. 3 is a flowchart of a band information converting method including a manner of acquiring identification information according to an embodiment of the present invention;
FIG. 4 is a flow chart of a method of frequency band information conversion including a manner of acquiring communication information according to one embodiment of the present invention;
Fig. 5 is a flowchart of a band information converting method including a manner of acquiring each sub-band information (additional information includes only identification information and channel information) in the form of a code according to an embodiment of the present invention;
fig. 6 is a flowchart of a band information converting method including a manner of acquiring each sub-band information (additional information including identification information, channel information, and uplink information) in the form of a code according to an embodiment of the present invention;
fig. 7 is a flowchart of a frequency band information converting method according to another embodiment of the present invention;
fig. 8 is a block diagram illustrating a frequency band information converting apparatus according to an embodiment of the present invention;
fig. 9 is a block diagram illustrating a frequency band information converting apparatus according to another embodiment of the present invention;
fig. 10 is a block schematic diagram of an electronic device according to an embodiment of the invention.
DETAILED DESCRIPTION OF EMBODIMENT (S) OF INVENTION
For the purpose of making the objects, technical solutions and advantages of the embodiments of the present invention more apparent, the embodiments of the present invention will be described in detail below with reference to the accompanying drawings. However, those of ordinary skill in the art will understand that in various embodiments of the present invention, numerous technical details have been set forth in order to provide a better understanding of the present application. However, the technical solutions claimed in the present application can be implemented without these technical details and with various changes and modifications based on the following embodiments. The following embodiments are divided for convenience of description, and should not be construed as limiting the specific implementation of the present invention, and the embodiments can be mutually combined and referred to without contradiction.
One embodiment of the invention relates to a frequency band information conversion method which is used for converting a table of a plurality of EN-DC combinations obtained by non-independent networking into codes in an XML form, so that researchers can further analyze the transmission performance of each EN-DC combination through the codes in the XML form obtained by conversion.
The specific flow of the frequency band information conversion method of this embodiment is shown in fig. 1.
Step 101, obtaining target information which needs to be converted into a code form and comprises frequency band combination information, input and output information and uplink frequency band information.
Step 102, dividing the frequency band combination information according to the separator in the frequency band combination information to obtain a plurality of pieces of sub-frequency band information.
And step 103, adding additional information of each piece of sub-band information acquired according to the target information on the basis of each piece of sub-band information to obtain each piece of sub-band information in a code form.
And 104, connecting the sub-band information in the code form through a connector to obtain the target information in the code form.
In this embodiment, after obtaining target information (including frequency band combination information, input/output information and uplink frequency band information) that needs to be converted into a code form, the electronic device divides the frequency band combination information according to separators included in the frequency band combination information to obtain a plurality of pieces of sub-frequency band information, obtains additional information including channel information and identification information for distinguishing different network systems of each piece of sub-frequency band information according to the target information, adds corresponding additional information on the basis of each piece of sub-frequency band information to obtain each piece of sub-frequency band information in the code form, and connects the pieces of sub-frequency band information in the code form through connectors to obtain the target information in the code form. According to the invention, the electronic equipment is utilized to automatically acquire the target information, and the target information is converted into the code-form target information according to the frequency band combination information, the input/output information, the uplink frequency band information and the like which are included in the target information, so that the conversion efficiency and the conversion accuracy can be greatly improved, the debugging process of researchers is further accelerated, and the sub-frequency band information of different network systems can be distinguished according to the identification information in the additional information in the code-form target information.
Specifically, the present application obtains target information to be converted into a code form, where the target information is, for example, an original table shown in the following table 3, and at this time, the frequency band combination information is "dc_1a_3a-41C-42c_n257a" corresponding to "EN-DC combination", the input/output information includes "1A-3A-41C,1A-3A-42C" corresponding to "4G 4×4mimo frequency band", "n257A" corresponding to "5G uplink SISO frequency band" and "n257A" corresponding to "5G uplink 2×2mimo frequency band", and the uplink frequency band information is "1A,3A" corresponding to "4G uplink frequency band".
The electronic device firstly performs permutation and combination on the content which can be subjected to permutation and combination in the original table to obtain a table of a plurality of rows of extended EN-DC combinations, and the original table can be extended to obtain a table of 8 rows of EN-DC combinations, please refer to tables 4 to 11. In the second column of the original table, "1A-3A-41C,1A-3A-42C", i.e., 1A-3A-41C or 1A-3A-42C can be selected as 4G 4X 4MIMO band, there are 2 choices; in the third column of the original table, "1A,3A", i.e., 1A frequency band or 3A frequency band can be selected as the uplink frequency band of 4G, where 2 is selected; in the fourth column of the original table, n257A is "n257A", that is, the n257A frequency band may be selected as an uplink SISO (single input single output) frequency band of 5G; in the fifth column of the original table, "n257A", that is, the n257A frequency band may be selected as an uplink 2×2MIMO (multiple input multiple output) frequency band of 5G, it should be noted that, for the n257A frequency band, only an uplink SISO (single input single output) frequency band of 5G or an uplink 2×2MIMO (multiple input multiple output) frequency band of 5G may be selected at the same time, and not both MIMO frequency bands and SISO frequency bands may be selected, so that there may be 2 choices for the n257A frequency band. In summary, the 4G 4 x 4mimo frequency band, the 4G uplink frequency band, and the n257A frequency band have 2 optional forms, so the original table of table 3 may be arranged and combined to obtain a table with 2 x 2=8 EN-DC combinations.
The expanded line of EN-DC combined tables can be converted into one XML form of code, and a line of original tables corresponds to eight XML forms of code in total.
Table 3 raw tables of EN-DC combinations
TABLE 4 extended EN-DC combination Table (1)
TABLE 5 form of EN-DC combinations after deployment (2)
TABLE 6 form of EN-DC combinations after deployment (3)
TABLE 7 form of EN-DC combinations after deployment (4)
TABLE 8 form of EN-DC combinations after deployment (5)
TABLE 9 form of EN-DC combinations after deployment (6)
Table 10 Table of EN-DC combinations after deployment (7)
Table 11 expanded EN-DC combination Table (8)
The electronic equipment converts each expanded EN-DC combined table into TXT-form data, converts the TXT-form frequency band information into a two-dimensional array form, and can show the corresponding relation between the content of each grid in the EN-DC combined table and the specific position of the grid in the whole table through the two-dimensional array form.
After converting the data into the two-dimensional array form, the electronic equipment searches whether a row of two-dimensional arrays with the number of the two-dimensional arrays being smaller than a preset threshold exists, if the number of the two-dimensional arrays contained in the row of two-dimensional arrays is smaller than the preset threshold, the code in the XML form obtained through conversion is certainly wrong, and if a row of two-dimensional arrays with the number of the two-dimensional arrays being smaller than the preset threshold exists, the row of two-dimensional arrays is deleted.
After deleting each row of two-dimensional arrays with the number smaller than the preset threshold, the electronic device acquires frequency band combination information, wherein the frequency band combination information is, for example, "DC_1A-3A-41C-42C_n257A", the frequency band combination information is divided according to separators in the frequency band combination information, the separators can be "_and" - ", a plurality of sub-frequency band information is obtained, and then additional information of each sub-frequency band information is added on the basis of each sub-frequency band information, so that each sub-frequency band information in a code form can be obtained, wherein the additional information is obtained according to target information, the additional information comprises channel information and identification information for distinguishing network modes, for example, 4G and 5G frequency bands can be distinguished by using the identification information, and finally each sub-frequency band information in the code form can be obtained through connection of connectors, and in one embodiment, the connectors can be" + ".
In one embodiment, steps 201, 202, 205 and 206 are substantially the same as steps 101, 102, 103 and 104, and are not described herein, but the difference between the embodiment corresponding to fig. 1 is that step 203 is further included.
The specific flow of the frequency band information conversion method of this embodiment is shown in fig. 2.
Step 203, matching each sub-band information with the uplink band information.
Step 204, adding uplink information in the additional information of the successfully matched sub-band information.
Specifically, after obtaining a plurality of pieces of sub-band information, the electronic device needs to match each piece of sub-band information with uplink band information, specifically, needs to match whether each piece of sub-band information is consistent with the uplink band information, if matching is successful, the uplink information is added into additional information of the successfully matched sub-band information, and the uplink information is obtained specifically according to the successfully matched sub-band information. For example, if the uplink frequency band information is "1A", it is known that the sub-frequency band information "1A" is the sub-frequency band information successfully matched with the uplink frequency band information "1A", and the uplink information of the sub-frequency band information "1A" is "for example"; a1 ", wherein"; "to identify that the sub-band information belongs to the uplink band information".
In one embodiment, steps 301, 302, 304 and 305 are substantially the same as steps 101, 102, 103 and 104, and are not described herein, but are different from the embodiment corresponding to fig. 1 in that step 303 is further included.
The specific flow of the frequency band information conversion method of this embodiment is shown in fig. 3.
Step 303, obtaining the identification information of each piece of sub-band information according to whether the tag is included in each piece of sub-band information.
Specifically, the electronic device may divide the sub-band information belonging to different network systems according to whether each sub-band information includes the tag, for example, divide each sub-band information into two types, i.e., 4G sub-band information and 5G sub-band information. For example, the following sub-band information exists: "1A", "3A", "41C", "42C", and "n257A", at this time, the marker is considered to be "n", and if "n" is not included, it is divided into 4G sub-band information; if "n" is included, the information is divided into 5G sub-band information. According to the above-described division rule, "1A", "3A", "41C", "42C" will be divided into 4G sub-band information, and "n257A" will be divided into 5G sub-band information. For the 4G sub-band information and the 5G sub-band information, different identification information is acquired to distinguish the two, for example, the identification information identifies the 4G sub-band information by "B" and the 5G sub-band information by "N".
In one embodiment, steps 401, 402, 406 and 407 are substantially the same as steps 101, 102, 103 and 104, and are not described herein, and the difference between the embodiment corresponding to fig. 1 is that steps 403, 404 and 405 are further included.
The specific flow of the frequency band information conversion method of this embodiment is shown in fig. 4.
Step 403, obtaining the bandwidth model included in each piece of sub-band information, and obtaining the number of channels of each piece of sub-band information according to the bandwidth model.
Specifically, the electronic device obtains the bandwidth model included in each piece of sub-band information, for example, "a" in the sub-band information "1A" is the bandwidth model, and "C" in the sub-band information "41C" is also the bandwidth model, according to how much the number of channels in the channel information of each piece of sub-band information is specifically obtained by the bandwidth model, the bandwidth model and the number of channels have a preset correspondence, the number of channels corresponding to the bandwidth model "a" is 1, the number of channels corresponding to the "B" is 2, "the number of channels corresponding to the C" is 2, "D" is 3, "the number of channels corresponding to the E" is 4, "F" is 5, "G" is 2, "H" is 3, "I" is 4, "J" is 5, "K" is 6, "L" is 7, "M" is 8, "O" is 3, "P" is 4Q "and" is 5.
Step 404, obtaining the number of the selectable antennas of each sub-band information according to the input/output information.
Specifically, the electronic device may obtain, according to the obtained input/output information, the number of selectable antennas in the channel information of each sub-band information, where the input/output information includes: the 4G 4 x 4mimo band is "1A-3A-41C", and for the band combination information of "dc_1a-3A-41C-42c_n 255 a," 42C "is not 4G 4 x 4mimo band, so that" 1A "," 3A "and" 41C "are divided into 4G 4 x 4mimo sub-band information, and" 42C "is divided into 4G SISO sub-band information. The number of selectable antennas for each channel of the sub-band information is only 1 for 4G SISO sub-band information, and 4 for 4G 4 x 4mimo sub-band information. For the 5G sub-band information, if one sub-band information is divided into 5G SISO sub-band information, the number of selectable antennas of each channel of the sub-band information is only 1; if a piece of subband information is divided into 5g 2 x 2mimo subband information, the number of selectable antennas of each channel of the subband information is 2.
Step 405, obtaining channel information of each sub-band information according to the number of channels and the number of optional antennas.
For example, if the input/output information includes: the 4g 4 x 4mimo frequency band is "1A-3A-41C", and for the subband information "1A", the number of channels is 1, the number of selectable antennas is 4, and the channel information is "[4]"; for the subband information "41C", the number of channels is 2, the number of optional antennas is 4, and the channel information is "[4,4]". It can be seen that the number of channels determines the dimension of the channel information, the number of selectable antennas, i.e. the number of selectable antennas per channel in the channel information.
It should be noted that, in this embodiment, the sequence of executing step 403 and step 404 is not limited, that is, the number of channels of each piece of sub-band information may be obtained first, or the number of optional antennas of each piece of sub-band information may be obtained first, and in this embodiment, step 403 is executed first and then step 404 is executed as an example.
In one embodiment, steps 501, 502 and 504 are substantially the same as steps 101, 102 and 104, and are not described in detail herein.
As shown in fig. 5, the specific flow of the frequency band information conversion method of the present embodiment, step 503 includes the following sub-steps.
Sub-step 5031 adds identification information in front of each sub-band information.
Sub-step 5032, adding channel information to the back of each piece of sub-band information, and obtaining each piece of sub-band information in the form of a code.
It should be noted that, the sub-step 5031 may be performed after the sub-step 5032.
In one embodiment, steps 601, 602, 603, 604, and 606 are substantially the same as steps 201, 202, 203, 204, and 206, and are not described herein.
As shown in fig. 6, a specific flow of the frequency band information conversion method of the present embodiment, step 605 includes the following sub-steps.
Sub-step 6051 adds identification information in front of each sub-band information.
Sub-step 6052 adds channel information to the back of each sub-band information.
Sub-step 6053 adds the uplink information after the channel information of the successfully matched sub-band information to obtain each sub-band information in the form of a code.
It should be noted that, in the case that the sub-step 6052 and the sub-step 6053 have a fixed sequence, the electronic device needs to add the channel information first and then add the uplink information after the channel information of the successfully matched sub-band information, and the sub-step 6051 may also occur after the sub-step 6052 or the sub-step 6053 if the sequence is satisfied.
In this embodiment, after obtaining target information (including frequency band combination information, input/output information and uplink frequency band information) that needs to be converted into a code form, the electronic device divides the frequency band combination information according to separators included in the frequency band combination information to obtain a plurality of pieces of sub-frequency band information, and obtains additional information including channel information and identification information for distinguishing different network systems of each piece of sub-frequency band information according to the target information, where the additional information of the sub-frequency band information that is successfully matched with the uplink frequency band information further includes uplink information, and then adds respective corresponding additional information on the basis of each piece of sub-frequency band information to obtain each piece of sub-frequency band information in the code form, and connects the pieces of sub-frequency band information in the code form through connectors, so as to obtain the target information in the code form.
An embodiment of the present invention relates to a frequency band information conversion method, please refer to fig. 7, fig. 7 is a block diagram illustrating that, based on the embodiment corresponding to fig. 1, the frequency band information conversion method according to the embodiment corresponding to fig. 2 is used to obtain the uplink information of the sub-frequency band information successfully matched with the uplink frequency band information, the frequency band information conversion method according to the embodiment corresponding to fig. 3 is used to obtain the identification information of each sub-frequency band information, the frequency band information conversion method according to the embodiment corresponding to fig. 4 is used to obtain the channel information of each sub-frequency band information, and the frequency band information conversion method according to the embodiment corresponding to fig. 6 is used to convert each sub-frequency band information into each sub-frequency band information in code form.
In step 701, target information which needs to be converted into a code form and comprises frequency band combination information, input and output information and uplink frequency band information is obtained.
Step 702, dividing the frequency band combination information according to the separator in the frequency band combination information to obtain a plurality of pieces of sub-frequency band information.
Step 703, obtaining the identification information of each sub-band information according to whether each sub-band information contains a marker.
Step 704, obtaining the bandwidth model included in each piece of sub-band information, and obtaining the number of channels of each piece of sub-band information according to the bandwidth model.
Step 705, obtaining the number of the selectable antennas of each sub-band information according to the input/output information.
Step 706, obtaining the channel information of each sub-band information according to the number of channels and the number of optional antennas.
Step 707, matching each sub-band information with the uplink band information, and adding the uplink information to the additional information of the successfully matched sub-band information.
Step 708, adding additional information of each piece of sub-band information acquired according to the target information on the basis of each piece of sub-band information to obtain each piece of sub-band information in a code form.
Step 709, the sub-band information in the code form is connected through a connector, so as to obtain the target information in the code form.
Step 708 also includes, among other things, substep 7081, substep 7082, and substep 7083.
Sub-step 7081 adds identification information in front of each sub-band information.
Sub-step 7082 adds channel information after each sub-band information.
Sub-step 7083 adds up information after the channel information of the successfully matched sub-band information to obtain each sub-band information in the form of a code.
In this embodiment, the sequence of steps 703 to 707 is not limited except that step 706 is necessarily performed after steps 704 and 705, that is, the sequence of acquiring the identification information, the channel information, and the uplink information of each sub-band information is not limited.
The following will describe an example of the code converting table 4 into XML form.
The frequency band combination information acquired by the electronic device is "DC_1A-3A-41C-42C_n257A", the "DC_1A-3A-41C-42C_n257A" is firstly divided according to separators "_and" - ", and several parts of" DC "," 1A "," 3A "," 41C "," 42C "and" n257A "can be obtained, wherein" 1A "," 3A "," 41C "," 42C "and" n257A "are sub-frequency band information, and" DC "only represents that the frequency band combination information is a double-connection combination containing 4G frequency band and 5G frequency band and does not belong to the sub-frequency band information.
After obtaining these pieces of sub-band information, since "1A", "3A", "41C" and "42C" do not contain the tag "N", these pieces of sub-band information are divided into pieces of 4G sub-band information, and "N257A" contains the tag "N", so that "N257A" is divided into pieces of 5G sub-band information, the identification information "B" is added in front of the pieces of 4G sub-band information, and the identification information "N" is added in front of the pieces of 5G sub-band information from which the tag is deleted, and "B1A", "B3A", "B41C", "B42C" and "N257A" can be obtained.
The input and output information acquired by the electronic equipment is respectively as follows: "1A-3A-41C" is a 4G 4 x 4mimo band, "n257A" is a 5G uplink SISO band, and can be further obtained according to these information, where "42C" not mentioned in the 4G 4 x 4mimo band is a 4G SISO band, and a 5G downlink band of default "n257A" is a 2 x 2mimo band.
For 'B1A', the bandwidth model is 'A', the number of channels corresponding to the bandwidth model is 1, and '1A' belongs to 4G 4 x 4MIMO frequency bands, the number of optional antennas of each channel is 4, so that channel information '1A 4' of '1A' can be obtained, and the channel information 'B1A 4' is obtained by combining with identification information; the same processing as that of "B1A" was performed on "B3A", "B41C", and "B42C [2,2]" to obtain "B3A [4]", "B41C [4,4]" and "B42C [2,2]".
The processing of "N257A" is slightly different from the processing of "B1A", in that, for the 5G subband information, the number of selectable antennas of each channel is increased by a multiple of 100, for example, "N257A" is the 5G uplink SISO frequency band, the number of selectable antennas of each channel corresponding to "N257A" is 100, for example, "N257A" is the 5G uplink 2×2mimo frequency band, the number of selectable antennas of each channel corresponding to "N257A" is 100×2=200, when the number of selectable antennas is represented in square brackets, "100X1" is required to represent the number of selectable antennas as 100, and "100X2" is required to represent the number of selectable antennas as 200. Since the default "N257A" 5G downlink frequency band is a 2X 2mimo frequency band, the "N257A [100X2]" can be obtained after processing the "N257A".
The uplink frequency band information acquired by the electronic equipment is respectively as follows: "1A" is a 4G uplink band, and "n257A" is a 5G uplink SISO band, so that the additional information of the subband information "1A" and the subband information "n257A" includes uplink information, and the uplink information of "1A" is specifically "; the uplink information of "n257A" is specifically "; a < 100X1 > ". Wherein "; "is used to identify that the sub-band information belongs to uplink band information; the bandwidth model in the uplink information of the sub-band information is always identical to the bandwidth model of the sub-band information, so the bandwidth model in the uplink information of "1A" is also "a", the number of channels corresponding to the bandwidth model is also 1, and the number of selectable antennas of each channel of the default 4G uplink frequency band is 1,5G, and the number of selectable antennas of each channel corresponding to the uplink SISO frequency band is 100.
Each piece of subband information in the code form can be obtained by adding the uplink information to the channel information of the subband information belonging to the uplink band information on the basis of "B1A [4]", "B3A [4]", "B41C [4,4]", "B42C [2,2]" and "N257A [100X2 ]": "B1A 4"; a < 1 > "," B3A < 4 > "," B41C < 4,4 > "," B42C < 2,2 > "and" N257A < 100X2 >; a < 100X1 > ".
Finally, the information of each sub-frequency band in the code form is connected through a connector "+", and the target information in the code form can be obtained: "B1A 4"; A1+B3A4+B41C4, 4+B42C2, 2+N257A [100X2]; a < 100X1 > ".
The code for converting table 5 into XML will be described as an example.
The difference between table 5 and table 4 is that "n257A" is no longer the 5G uplink SISO frequency band, but the 5G uplink 2 x 2mimo frequency band, and since this change is only related to the uplink information of the 5G sub-band information, only the change of the uplink information of the 5G sub-band information is described herein to avoid redundancy. Since the number of selectable antennas of each channel corresponding to the 5G uplink 2X 2mimo frequency band is 200, in brackets of uplink information of the 5G subband information, "100X2" is needed to represent that the number of selectable antennas is 200, and the subband information in code form can be obtained by adding the uplink information to "N257A [100X2 ]": "N257A [100X2]; a [100X2] ", thus, the target information in the code form in table 5 is:
“B1A[4]；A[1]+B3A[4]+B41C[4,4]+B42C[2,2]+N257A[100X2]；A[100X2]”。
In this embodiment, after obtaining target information (including frequency band combination information, input/output information and uplink frequency band information) that needs to be converted into a code form, the electronic device divides the frequency band combination information according to separators included in the frequency band combination information to obtain a plurality of pieces of sub-frequency band information, and obtains additional information including channel information and identification information for distinguishing different network systems of each piece of sub-frequency band information according to the target information, where the additional information of the sub-frequency band information belonging to the uplink frequency band information further includes uplink information, and then adds respective corresponding additional information on the basis of each piece of sub-frequency band information to obtain each piece of sub-frequency band information in the code form, and connects the pieces of sub-frequency band information in the code form through connectors, so as to obtain the target information in the code form.
The above steps of the methods are divided, for clarity of description, and may be combined into one step or split into multiple steps when implemented, so long as they include the same logic relationship, and they are all within the protection scope of this patent; it is within the scope of this patent to add insignificant modifications to the algorithm or flow or introduce insignificant designs, but not to alter the core design of its algorithm and flow.
An embodiment of the present invention relates to a frequency band information conversion device, referring to fig. 8, including: the device comprises an acquisition module 1, a division module 2, a conversion module 3 and a connection module 4.
Firstly, acquiring target information which needs to be converted into a code form by an acquisition module 1; the method comprises the steps that target information comprises frequency band combination information, input and output information and uplink frequency band information, a division module 2 divides the frequency band combination information according to separators in the frequency band combination information to obtain a plurality of pieces of sub-frequency band information, a conversion module 3 adds additional information of each piece of sub-frequency band information on the basis of each piece of sub-frequency band information to obtain code-form sub-frequency band information, wherein the additional information is obtained according to the target information, the additional information specifically comprises channel information and identification information for distinguishing different network systems, and finally a connection module 4 connects each piece of sub-frequency band information in the code form through a connector to obtain the code-form target information.
It is to be noted that this embodiment is a system embodiment corresponding to the embodiment corresponding to fig. 1, and this embodiment may be implemented in cooperation with the embodiment corresponding to fig. 1. The related technical details mentioned in the corresponding embodiment of fig. 1 are still valid in this embodiment, and are not repeated here for reducing repetition. Accordingly, the related technical details mentioned in the present embodiment can also be applied to the corresponding embodiment of fig. 1.
It should be noted that, each module involved in this embodiment is a logic module, and in practical application, one logic unit may be one physical unit, or may be a part of one physical unit, or may be implemented by a combination of multiple physical units. In addition, in order to highlight the innovative part of the present invention, units less closely related to solving the technical problem presented by the present invention are not introduced in the present embodiment, but it does not indicate that other units are not present in the present embodiment.
An embodiment of the present invention relates to a frequency band information conversion device, please refer to fig. 9, further comprising a matching module 5, wherein the matching module 5 is connected between the dividing module 2 and the conversion module 3.
The matching module 5 matches each piece of sub-band information with the uplink band information, and adds the uplink information to the additional information of the successfully matched sub-band information, wherein the uplink information is obtained according to the successfully matched sub-band information.
The conversion module 3 adds identification information in front of each piece of sub-band information, adds channel information in back of each piece of sub-band information, and adds uplink information in back of channel information of successfully matched sub-band information, so as to obtain each piece of sub-band information in code form.
In one embodiment, the obtaining module 1 obtains the identification information of each piece of sub-band information according to whether each piece of sub-band information includes a marker, specifically, the obtaining module may divide each piece of sub-band information into two types, namely, 4G sub-band information and 5G sub-band information according to whether each piece of sub-band information includes a marker, and respectively apply different identification information to the 4G sub-band information and the 5G sub-band information to distinguish the 4G sub-band information and the 5G sub-band information.
The obtaining module 1 may further obtain a bandwidth model included in each piece of sub-band information, obtain a channel number of each piece of sub-band information according to the bandwidth model, obtain a selectable antenna number of each piece of sub-band information according to the input/output information, and obtain the channel information of each piece of sub-band information according to the channel number and the selectable antenna number.
Specifically, after the obtaining module 1 obtains the input and output information, each piece of information of the sub-frequency band can be divided into two types of MIMO sub-frequency band and SISO sub-frequency band according to the input and output information, and different selectable antenna numbers are adopted for the MIMO sub-frequency band and the SISO sub-frequency band.
Since the embodiments corresponding to fig. 2 to 6 correspond to the present embodiment, the present embodiment can be implemented in cooperation with the embodiments corresponding to fig. 2 to 6. The related technical details mentioned in the embodiments corresponding to fig. 2 to 6 are still valid in this embodiment, and the technical effects that can be achieved in the embodiments corresponding to fig. 2 to 6 are also achieved in this embodiment, so that the repetition is reduced, and the description is omitted here. Accordingly, the related technical details mentioned in the present embodiment can also be applied to the embodiments corresponding to fig. 2 to 6.
One embodiment of the invention relates to an electronic device, as shown in FIG. 10, comprising at least one processor 1001; and a memory 1002 communicatively coupled to the at least one processor 1001; the memory 1002 stores instructions executable by the at least one processor 1001, and the instructions are executed by the at least one processor 1001, so that the at least one processor 1001 can perform the frequency band information conversion method in the above embodiment.
Where the memory and the processor are connected by a bus, the bus may comprise any number of interconnected buses and bridges, the buses connecting the various circuits of the one or more processors and the memory together. The bus may also connect various other circuits such as peripherals, voltage regulators, and power management circuits, which are well known in the art, and therefore, will not be described any further herein. The bus interface provides an interface between the bus and the transceiver. The transceiver may be one element or may be a plurality of elements, such as a plurality of receivers and transmitters, providing a means for communicating with various other apparatus over a transmission medium. The data processed by the processor is transmitted over the wireless medium via the antenna, which further receives the data and transmits the data to the processor.
The processor is responsible for managing the bus and general processing and may also provide various functions including timing, peripheral interfaces, voltage regulation, power management, and other control functions. And memory may be used to store data used by the processor in performing operations.
One embodiment of the present invention relates to a computer-readable storage medium storing a computer program. The computer program, when executed by a processor, implements the frequency band information conversion method in the above-described embodiment.
That is, it will be understood by those skilled in the art that all or part of the steps in implementing the methods of the embodiments described above may be implemented by a program stored in a storage medium, where the program includes several instructions for causing a device (which may be a single-chip microcomputer, a chip or the like) or a processor (processor) to perform all or part of the steps in the methods of the embodiments described herein. And the aforementioned storage medium includes: a U-disk, a removable hard disk, a Read-Only Memory (ROM), a random access Memory (RAM, random Access Memory), a magnetic disk, or an optical disk, or other various media capable of storing program codes.
It will be understood by those of ordinary skill in the art that the foregoing embodiments are specific examples of carrying out the invention and that various changes in form and details may be made therein without departing from the spirit and scope of the invention.
Claims (8)
1. A frequency band information conversion method, characterized by comprising:
acquiring target information to be converted into a code form; the target information comprises frequency band combination information, input and output information and uplink frequency band information;
dividing the frequency band combination information according to the separator in the frequency band combination information to obtain a plurality of pieces of sub-frequency band information;
adding additional information of each piece of sub-band information on the basis of each piece of sub-band information to obtain each piece of sub-band information in a code form; the additional information is obtained according to the target information, and comprises channel information and identification information for distinguishing different network systems;
connecting the sub-band information in the code form through a connector to obtain the target information in the code form;
after the obtaining the plurality of sub-band information, the method further includes:
matching each piece of sub-band information with the uplink band information;
adding uplink information into the additional information of the successfully matched sub-band information, wherein the uplink information is obtained according to the successfully matched sub-band information;
the dividing the frequency band combination information according to the separator in the frequency band combination information to obtain a plurality of sub-frequency band information, further comprises:
Obtaining the bandwidth model included in each piece of sub-band information;
obtaining the channel number of each piece of sub-band information according to the bandwidth model;
acquiring the number of selectable antennas of each piece of sub-band information according to the input and output information;
and acquiring the channel information of each piece of sub-band information according to the channel number and the selectable antenna number.
2. The method for converting band information according to claim 1, wherein adding additional information of each piece of sub-band information on the basis of each piece of sub-band information to obtain each piece of sub-band information in a code form, comprises:
adding the identification information in front of each piece of sub-band information;
adding the channel information behind each piece of sub-band information;
and adding the uplink information after the channel information of the successfully matched sub-band information to obtain each sub-band information in a code form.
3. The method for converting frequency band information according to claim 1 or 2, wherein after dividing the frequency band combination information according to a separator in the frequency band combination information to obtain a plurality of pieces of sub-frequency band information, further comprising:
Acquiring the identification information of each piece of sub-band information according to whether each piece of sub-band information contains a marker;
wherein the sub-band information including the marker and the identification information of the sub-band information not including the marker are different.
4. A frequency band information conversion apparatus, characterized by comprising: the device comprises an acquisition module, a division module, a conversion module, a connection module and a matching module;
the acquisition module is used for acquiring target information to be converted into a code form; the target information comprises frequency band combination information, input and output information and uplink frequency band information;
the dividing module is used for dividing the frequency band combination information according to the separator in the frequency band combination information to obtain a plurality of pieces of sub-frequency band information;
the conversion module is used for adding additional information of each piece of sub-band information on the basis of each piece of sub-band information to obtain each piece of sub-band information in a code form; the additional information is obtained according to the target information, and comprises channel information and identification information for distinguishing different network systems;
the connection module is used for connecting the sub-band information in the code form through a connector to obtain the target information in the code form;
The matching module is used for matching each piece of sub-band information with the uplink band information, and adding uplink information into the additional information of the sub-band information which is successfully matched, wherein the uplink information is obtained according to the sub-band information which is successfully matched;
the obtaining module is further configured to obtain, after obtaining a bandwidth model included in each piece of subband information, a number of channels of each piece of subband information according to the bandwidth model, obtain, according to the input/output information, a number of selectable antennas of each piece of subband information, and obtain, according to the number of channels and the number of selectable antennas, the channel information of each piece of subband information.
5. The band information converting apparatus according to claim 4, wherein,
the conversion module is specifically configured to add the identification information in front of each piece of sub-band information, add the channel information in back of each piece of sub-band information, and add the uplink information in back of the channel information of the sub-band information that is successfully matched, so as to obtain each piece of sub-band information in a code form.
6. The band information converting apparatus according to claim 4 or 5, wherein,
The acquisition module is further used for acquiring the identification information of each piece of sub-band information according to whether each piece of sub-band information contains a marker; wherein the sub-band information including the marker and the identification information of the sub-band information not including the marker are different.
7. An electronic device, comprising:
at least one processor; the method comprises the steps of,
a memory communicatively coupled to the at least one processor; wherein,
the memory stores instructions executable by the at least one processor to enable the at least one processor to perform the frequency band information conversion method of any one of claims 1 to 3.
8. A computer-readable storage medium storing a computer program, wherein the computer program, when executed by a processor, implements the frequency band information conversion method of any one of claims 1 to 3.
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