A signal enhancement method and system for WIFI devices

Abstract

The application discloses a signal enhancement method and system for WIFI equipment, and relates to the technical field of electric data processing, which comprises the following steps: based on an intelligent regulation and control terminal, analyzing and processing historical operation data of WIFI equipment to determine the best transmission frequency band of the WIFI equipment in a high-frequency use period; obtaining access data flow of the WIFI equipment, and based on the intelligent regulation and control terminal, analyzing the priority of the access data flow of the WIFI equipment to determine whether there is a priority data flow in the access data flow. The application analyzes the frequency band of the historical operation data of the WIFI equipment, determines the best transmission frequency band of the WIFI equipment in the high-frequency use period, and when a user uses an electronic device in the high-frequency use period, the best transmission frequency band of the WIFI equipment in the high-frequency use period is used to allocate resources to the electronic device of the user, so that the WIFI equipment interference with each other in the same frequency band is avoided, the network speed of the electronic device is prevented from being slow, and the task completion time of the electronic device of the user is shortened.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of electric data processing, in particular to a signal enhancement method and system for WIFI equipment. BACKGROUND

[0002] Industrial WIFI is usually used in factory and other scenes to provide network data for devices of the factory such as air conditioning systems, sensor systems, mobile robots, etc., however, the traditional industrial WIFI faces many challenges when applied, especially in the power plant environment.

[0003] WIFI-7 (the seventh generation of Wi-Fi wireless network) is the seventh generation of wireless network technology, with a speed of up to 30Gbits per second, which is more than three times the maximum speed of WIFI-6 (9.6Gbps).

[0004] However, when the number of WIFI-7 devices used is too large, if all WIFI-7 devices use the same frequency band, the WIFI devices will interfere with each other, causing the network of all connected devices under this frequency band to slow down, thereby prolonging the task completion time of the connected devices, in addition, if the high-priority data stream is not allocated resources in priority when the connected device is used, the task completion time corresponding to the high-priority data stream will be prolonged. SUMMARY

[0005] To solve the above technical problems, a signal enhancement method and system for WIFI equipment are provided, which solve the problem that when the number of WIFI devices used is too large, if all WIFI devices use the same frequency band, the WIFI devices will interfere with each other, causing the network of all connected devices under this frequency band to slow down, thereby prolonging the task completion time of the connected devices, in addition, if the high-priority data stream is not allocated resources in priority when the connected device is used, the task completion time corresponding to the high-priority data stream will be prolonged.

[0006] To achieve the above purpose, the technical scheme adopted by the present application is:

[0007] A signal enhancement method for WIFI equipment, comprising:

[0008] obtaining historical running data of the WIFI equipment, based on the intelligent control terminal, analyzing and processing the historical running data of the WIFI equipment to determine the best transmission frequency band of the WIFI equipment in the high-frequency use period;

[0009] obtaining access data stream of the WIFI equipment, based on the intelligent control terminal, performing priority analysis on the access data stream of the WIFI equipment to determine whether there is a priority data stream in the access data stream;

[0010] If there is a priority data flow, based on the intelligent regulation terminal, the priority data flow and the best transmission frequency band of the WIFI device in the high-frequency use period are matched and processed to determine the best transmission frequency band of the priority data flow.

[0011] The intelligent regulation terminal allocates resources to the priority data flow according to the best transmission frequency band of the priority data flow.

[0012] Preferably, the acquisition of the historical running data of the WIFI device, based on the intelligent regulation terminal, the historical running data of the WIFI device is analyzed and processed to determine the best transmission frequency band of the WIFI device in the high-frequency use period, specifically including the following steps:

[0013] Based on the intelligent regulation terminal, the cloud server is subjected to data reading and processing to acquire the historical running data of the WIFI device;

[0014] Based on the intelligent regulation terminal, the historical running data of the WIFI device is subjected to classification processing to acquire the historical running data of the WIFI device in the high-frequency use period;

[0015] Based on the intelligent regulation terminal, the historical running data of the WIFI device in the high-frequency use period is subjected to analysis and processing to determine the best transmission frequency band of the WIFI device in the high-frequency use period.

[0016] Preferably, the acquisition of the historical running data of the WIFI device, based on the intelligent regulation terminal, the cloud server is subjected to data reading and processing to acquire the historical running data of the WIFI device specifically includes the following steps:

[0017] Based on the intelligent regulation terminal, the built-in storage medium of the WIFI device is subjected to information extraction processing to acquire the factory information of the WIFI device;

[0018] Based on the intelligent regulation terminal, the factory information of the WIFI device is subjected to information retrieval processing to determine the IP address of the cloud server;

[0019] The intelligent regulation terminal establishes a communication connection with the cloud server according to the IP address of the cloud server to determine a communication channel;

[0020] Based on the intelligent regulation terminal, the cloud server is subjected to data reading and processing according to the communication channel to acquire the historical running data of the WIFI device.

[0021] Preferably, the acquisition of the historical running data of the WIFI device, based on the intelligent regulation terminal, the cloud server is subjected to data reading and processing to acquire the historical running data of the WIFI device specifically includes the following steps:

[0022] The historical running data of the WIFI device in different time periods is classified and processed based on the intelligent regulation terminal to obtain the historical running data of the WIFI device in different time periods.

[0023] The historical running data of the WIFI device in different time periods is classified and processed based on the intelligent regulation terminal to obtain the historical running data of the WIFI device in different time periods.

[0024] The historical running data of the WIFI device in different time periods is classified and processed based on the intelligent regulation terminal to obtain the historical running data of the WIFI device in different time periods.

[0025] The historical running data of the WIFI device in different time periods is classified and processed based on the intelligent regulation terminal to obtain the historical running data of the WIFI device in different time periods.

[0026] The historical running data of the WIFI device in different time periods is classified and processed based on the intelligent regulation terminal to obtain the historical running data of the WIFI device in different time periods.

[0027] The historical running data of the WIFI device in different time periods is classified and processed based on the intelligent regulation terminal to obtain the historical running data of the WIFI device in different time periods.

[0028] The historical running data of the WIFI device in different time periods is classified and processed based on the intelligent regulation terminal to obtain the historical running data of the WIFI device in different time periods.

[0029] The historical running data of the WIFI device in different time periods is classified and processed based on the intelligent regulation terminal to obtain the historical running data of the WIFI device in different time periods.

[0030] The historical running data of the WIFI device in different time periods is classified and processed based on the intelligent regulation terminal to obtain the historical running data of the WIFI device in different time periods.

[0031] The historical running data of the WIFI device in different time periods is classified and processed based on the intelligent regulation terminal to obtain the historical running data of the WIFI device in different time periods.

[0032] The intelligent regulation terminal is used to filter the traffic usage data set of the WIFI device in the high-frequency usage period based on the average value of the traffic usage data corresponding to the historical running data of the WIFI device in the high-frequency usage period, and obtain the traffic usage data set higher than the average value.

[0033] The intelligent regulation terminal is used to count the number of data in the traffic usage data set higher than the average value, and determine the traffic usage times higher than the average value.

[0034] The intelligent regulation terminal is used to analyze the traffic usage times higher than the average value, and determine the historical running data of the WIFI device in the high-frequency usage period.

[0035] Preferably, the intelligent regulation terminal is used to analyze the traffic usage times higher than the average value, and determine the historical running data of the WIFI device in the high-frequency usage period, specifically including the following steps:

[0036] The intelligent regulation terminal is used to judge the traffic usage times higher than the average value and the set traffic usage times threshold.

[0037] If the traffic usage times higher than the average value are greater than or equal to the set traffic usage times threshold, the historical running data of the WIFI device corresponding to the traffic usage times higher than the average value is set as the historical running data of the WIFI device in the high-frequency usage period.

[0038] If the traffic usage times higher than the average value are less than the set traffic usage times threshold, the historical running data of the WIFI device corresponding to the period does not meet the standard of the historical running data of the WIFI device in the high-frequency usage period.

[0039] Preferably, the intelligent regulation terminal is used to analyze the historical running data of the WIFI device in the high-frequency usage period, and determine the best transmission frequency band of the WIFI device in the high-frequency usage period, specifically including the following steps:

[0040] The intelligent regulation terminal is used to read the historical running data of the WIFI device in the high-frequency usage period, and obtain the network speed change data in different frequency bands.

[0041] The intelligent regulation terminal is used to analyze the network speed change data in different frequency bands, and obtain the network speed change dispersion in different frequency bands.

[0042] The intelligent regulation terminal is used to sort the network speed change dispersion in different frequency bands based on the minimum value function, and determine the minimum value of the network speed change dispersion.

[0043] Based on the intelligent control terminal, the frequency band corresponding to the minimum value of the discrete degree of network speed change is set as the best transmission frequency band of the WIFI device in the high-frequency use period.

[0044] Preferably, the access data stream of the WIFI device is acquired, and priority analysis is performed on the access data stream of the WIFI device based on the intelligent control terminal to determine whether there is a priority data stream in the access data stream, specifically including the following steps:

[0045] Based on the intelligent control terminal, information extraction processing is performed on each access point of the WIFI device to acquire the access data stream of the WIFI device.

[0046] Based on the intelligent control terminal, metadata analysis processing is performed on the access data stream of the WIFI device to acquire the access data stream type.

[0047] Based on the intelligent control terminal, type analysis is performed on the access data stream type to determine whether there is a priority data stream in the access data stream.

[0048] Preferably, the type analysis performed on the access data stream type based on the intelligent control terminal to determine whether there is a priority data stream in the access data stream specifically includes the following steps:

[0049] Based on the intelligent control terminal, type judgment processing is performed on the access data stream.

[0050] If there is file transmission or audio / video call in the access data stream, there is a priority data stream in the access data stream, the data stream corresponding to the type is set as the priority data stream, and the remaining access data stream is set as the ordinary data stream.

[0051] If there is no file transmission or audio / video call in the access data stream, there is no priority data stream in the access data stream.

[0052] Preferably, the intelligent control terminal is used to perform matching processing on the priority data stream and the best transmission frequency band of the WIFI device in the high-frequency use period to determine the best transmission frequency band of the priority data stream, specifically including the following steps:

[0053] Based on the intelligent control terminal, information extraction processing is performed on the priority data stream to acquire the access time of the priority data stream.

[0054] Based on the intelligent control terminal, matching processing is performed on the access time of the priority data stream and the high-frequency use period to determine whether the priority data stream coincides with the high-frequency use period.

[0055] If the access time of the priority data stream coincides with the high-frequency use period, the best transmission frequency band of the WIFI device in the high-frequency use period is set as the best transmission frequency band of the priority data stream.

[0056] If the access time of the priority data flow and the high-frequency use period do not coincide, the intelligent control terminal analyzes the frequency band of the historical running data of the WIFI device to determine the best transmission frequency band of the priority data flow.

[0057] Preferably, the intelligent control terminal analyzes the frequency band of the historical running data of the WIFI device to determine the best transmission frequency band of the priority data flow, which specifically includes the following steps:

[0058] Based on the intelligent control terminal, the historical running data of the WIFI device corresponding to the access time is processed by time matching, and the historical running data of the WIFI device corresponding to the access time is determined.

[0059] Based on the intelligent control terminal, the historical running data of the WIFI device corresponding to the access time is processed by time matching, and the historical running data of the WIFI device corresponding to the access time is determined.

[0060] Based on the intelligent control terminal, the historical running data of the WIFI device corresponding to the access time is processed by time matching, and the historical running data of the WIFI device corresponding to the access time is determined.

[0061] Based on the minimum function, the network speed change dispersion of the different frequency bands corresponding to the access time is sorted and processed to determine the minimum value of the network speed change dispersion at the access time.

[0062] Based on the intelligent control terminal, the frequency band corresponding to the minimum value of the network speed change dispersion at the access time is set as the best transmission frequency band of the priority data flow.

[0063] Preferably, the intelligent control terminal allocates resources to the priority data flow according to the best transmission frequency band of the priority data flow, which specifically includes the following steps:

[0064] Based on the intelligent control terminal, the type of the priority data flow is analyzed to determine the type of the priority data flow.

[0065] Based on the intelligent control terminal, the number of priority data flows is counted to determine the number of priority data flows.

[0066] Based on the intelligent control terminal, the type of the priority data flow and the number of priority data flows are analyzed to determine the instantaneous flow usage data of the priority data flow.

[0067] Based on the intelligent control terminal, the instantaneous flow usage data of the priority data flow is analyzed and processed to determine the resource allocation of the priority data flow.

[0068] Preferably, the intelligent control terminal analyzes and processes the instantaneous flow usage data of the priority data flow to determine the resource allocation of the priority data flow, which specifically includes the following steps:

[0069] Based on the intelligent control terminal, the data of the WIFI device is read and processed to obtain the instantaneous flow allocation value of the WIFI device;

[0070] Based on the intelligent control terminal, the instantaneous flow usage data of the priority data flow and the instantaneous flow allocation value of the WIFI device are judged and processed;

[0071] If the instantaneous flow usage data of the priority data flow is greater than or equal to the instantaneous flow allocation value of the WIFI device, based on the intelligent control terminal, the flow data of the voice and video call in the priority data flow is adjusted, and the flow allocation is performed according to the minimum flow usage value of the voice and video call;

[0072] If the instantaneous flow usage data of the priority data flow is less than the instantaneous flow allocation value of the WIFI device, based on the intelligent control terminal, the resource allocation is performed on the ordinary data flow.

[0073] Preferably, the resource allocation on the ordinary data flow based on the intelligent control terminal specifically includes the following steps:

[0074] Based on the intelligent control terminal, the flow analysis is performed on the ordinary data flow to determine the minimum flow usage value of the ordinary data flow;

[0075] Based on the intelligent control terminal, the minimum flow usage value of the ordinary data flow, the instantaneous flow usage data of the priority data flow, and the instantaneous flow allocation value of the WIFI device are judged and processed;

[0076] If the sum of the minimum flow usage value of the ordinary data flow and the instantaneous flow usage data of the priority data flow is less than or equal to the instantaneous flow allocation value of the WIFI device, based on the intelligent control terminal, the flow allocation is performed on the priority data flow in the best transmission frequency band of the priority data flow, and the flow allocation is performed on the ordinary data flow in other frequency bands;

[0077] If the sum of the minimum flow usage value of the ordinary data flow and the instantaneous flow usage data of the priority data flow is greater than the instantaneous flow allocation value of the WIFI device, based on the intelligent control terminal, the flow allocation is performed on the priority data flow in the best transmission frequency band of the priority data flow, and the flow allocation is performed on the ordinary data flow that accesses the WIFI device earliest in other frequency bands.

[0078] Further, a signal enhancement method system for WIFI devices is proposed, which is used to implement the WIFI device signal enhancement method as described above, comprising:

[0079] The intelligent regulation terminal is used for controlling each module to classify, analyze features, calculate mean values and analyze data of historical running data of the WIFI device, and determine the best transmission frequency band of the WIFI device in a high-frequency use period.

[0080] The cloud server is used for storing the historical running data of the WIFI device.

[0081] The built-in storage medium of the WIFI device is used for storing factory information of the WIFI device.

[0082] The communication module is used for realizing communication connection between the intelligent regulation terminal and the cloud server.

[0083] The data classification module classifies the historical running data of the WIFI device by hours, and obtains the historical running data of the WIFI device in different periods.

[0084] The data calculation module is used for calculating mean values of the traffic usage data of the WIFI device in different periods.

[0085] The data judgment module is used for judging the traffic usage data mean values of the WIFI device in different periods and a set traffic usage threshold, and determining the historical running data of the WIFI device in a high-frequency use period to be verified.

[0086] The data verification module is used for verifying the historical running data of the WIFI device in the high-frequency use period to be verified, and determining the historical running data of the WIFI device in the high-frequency use period.

[0087] The frequency band determination module is used for analyzing the frequency band of the historical running data of the WIFI device in the high-frequency use period, and determining the best transmission frequency band of the WIFI device in the high-frequency use period.

[0088] The priority analysis module is used for analyzing the access data flow of the WIFI device, and determining a priority data flow.

[0089] The frequency band selection module selects the frequency band of the WIFI device according to the priority data flow, and determines the best transmission frequency band of the priority data flow.

[0090] The resource allocation module is used for allocating traffic resources of the WIFI device.

[0091] Further, a storage medium is provided, which stores a computer program, and the computer program is called to execute the signal enhancement method for WIFI device as above when running.

[0092] Compared with the prior art, the signal enhancement method and system for WIFI device have the following beneficial effects:

[0093] 1、The historical running data of the WIFI device is analyzed by the frequency band, the best transmission frequency band of the WIFI device in the high-frequency use period is determined, the resource of the electronic device of the user is allocated by the best transmission frequency band of the WIFI device in the high-frequency use period when the user uses the electronic device in the high-frequency use period, the same frequency band is avoided to be used to interfere with each other, the network of the electronic device is avoided to be slow, and the task completion time of the electronic device of the user is shortened.

[0094] 2、The access data flow of the WIFI device is analyzed by priority, the resource of the priority data flow is preferentially allocated, and the task completion time corresponding to the data flow with high priority is shortened. BRIEF DESCRIPTION OF DRAWINGS

[0095] Figure 1 A flowchart of steps S100-S400 in the signal enhancement method for WIFI device is provided for the present application.

[0096] Figure 2 A structure block diagram of the signal enhancement system for WIFI device is provided for the present application. DETAILED DESCRIPTION

[0097] The following description is used to disclose the present application so that those skilled in the art can implement the present application. The preferred embodiments in the following description are only used as examples, and other obvious modifications can be thought by those skilled in the art.

[0098] REFERENCE Figure 1 As shown in the figure, the signal enhancement method and system for WIFI device comprises:

[0099] S100, the historical running data of the WIFI device is acquired, the historical running data of the WIFI device is analyzed and processed based on the intelligent control terminal, and the best transmission frequency band of the WIFI device in the high-frequency use period is determined;

[0100] S200, the access data flow of the WIFI device is acquired, the access data flow of the WIFI device is analyzed by priority based on the intelligent control terminal, and whether there is priority data flow in the access data flow is determined;

[0101] S300, if there is a priority data flow, based on the intelligent regulation and control terminal, the priority data flow and the best transmission frequency band of the WIFI device in the high-frequency use period are matched and processed to determine the best transmission frequency band of the priority data flow;

[0102] S400, the intelligent regulation and control terminal allocates resources to the priority data flow according to the best transmission frequency band of the priority data flow;

[0103] Those skilled in the art can understand that when the WIFI devices in a certain area are used too much, and the frequency bands used by the WIFI devices are the same, the WIFI devices will interfere with each other, thereby causing network fluctuations and slow network speed. Therefore, the frequency bands of the WIFI devices need to be adjusted so that the frequency bands of the WIFI devices of a user are different from the frequency bands of the WIFI devices of other users, reducing mutual interference between the WIFI devices, improving the network, and reducing network fluctuations. In addition, the WIFI device allows multiple devices to be connected, and each device performs different tasks. If the number of connected devices is large and the network speed is evenly distributed, the network speed of each device will be slow. If some users are downloading files or having audio and video calls, the quality of file downloading or audio and video calls will be reduced. Therefore, the access data flow of the WIFI device is analyzed in priority, and the access time of the priority data flow is judged to determine the best transmission frequency band of the priority data flow, so that the frequency band of the priority data flow is not interfered with, and the completion time of the priority data flow is shortened. Further, the WIFI device described in the present application can be a WIFI-7 device.

[0104] Embodiment 1

[0105] S100, obtain the historical running data of the WIFI device, based on the intelligent regulation and control terminal, analyze and process the historical running data of the WIFI device to determine the best transmission frequency band of the WIFI device in the high-frequency use period, which specifically includes the following steps:

[0106] S101, based on the intelligent regulation and control terminal, perform data reading and processing on the cloud server to obtain the historical running data of the WIFI device;

[0107] It can be understood that the built-in storage space of the WIFI device is limited, and the WIFI device will generate data every day. If the data of the WIFI device is stored in the built-in storage medium, the storage space of the built-in storage medium may be insufficient to complete the storage of data. In some embodiments, the storage medium can be a storage hard disk or the like.

[0108] S102, based on the intelligent regulation and control terminal, classify and process the historical running data of the WIFI device to obtain the historical running data of the WIFI device in the high-frequency use period;

[0109] S103, based on the intelligent regulation terminal, analyzing and processing the historical running data of the WIFI device in the high-frequency use period to determine the best transmission frequency band of the WIFI device in the high-frequency use period;

[0110] It can be understood that the period of access to the WIFI device by the electronic device of each user can be the same or different. If the period of access to the WIFI device is the same and the frequency band used by the WIFI device is the same, mutual interference between WIFI devices, network fluctuation, and network speed reduction will occur. Therefore, the historical running data of the WIFI device is classified to determine which period is the use peak of the WIFI device, and the frequency band of the WIFI device in the use peak is adjusted to reduce mutual interference between WIFI devices, improve network speed, and reduce network fluctuation.

[0111] S101, based on the intelligent regulation terminal, data reading and processing of the cloud server to obtain the historical running data of the WIFI device, specifically including the following steps:

[0112] S1011, based on the intelligent regulation terminal, information extraction and processing of the built-in storage medium of the WIFI device to obtain the factory information of the WIFI device;

[0113] S1012, based on the intelligent regulation terminal, information retrieval and processing of the factory information of the WIFI device to determine the IP address of the cloud server;

[0114] S1013, the intelligent regulation terminal establishes a communication connection with the cloud server according to the IP address of the cloud server to determine the communication channel;

[0115] S1014, based on the intelligent regulation terminal, data retrieval and processing of the cloud server according to the communication channel to obtain the historical running data of the WIFI device;

[0116] In a specific embodiment, the data of the WIFI device is backed up to the cloud server to avoid data loss, and the WIFI device is specifically connected to which cloud server needs to be determined according to the factory information of the WIFI device. Because the WIFI devices produced by different manufacturers can be connected to different cloud servers, the factory information of the WIFI device needs to be analyzed to determine the IP address of the cloud server. In some embodiments, the factory information is the factory instruction manual built in the device.

[0117] S102, based on the intelligent regulation terminal, classifying and processing the historical running data of the WIFI device to obtain the historical running data of the WIFI device in the high-frequency use period, specifically including the following steps:

[0118] S1021, based on the intelligent regulation terminal, the historical running data of the WIFI device is classified and processed by hour as a feature, and the historical running data of the WIFI device in different time periods is obtained;

[0119] It can be understood that, in order to determine the high frequency time period of WIFI device, the historical running data of WIFI device is classified and processed by hour as a feature, because the time period of different users' electronic devices accessing WIFI device may be the same or different, when many users access WIFI device in the same time period, it is the high frequency time period of WIFI device;

[0120] S1022, based on the intelligent regulation terminal, the historical running data of the WIFI device in different time periods is calculated and processed, and the flow usage data set of the WIFI device in different time periods is determined;

[0121] It can be understood that the high frequency time period of WIFI device is determined by how much flow is used in a fixed time, so the flow in the historical running data of WIFI device in different time periods is calculated, the flow usage of WIFI device in different time periods is determined, then the flow usage is judged to determine whether the time period is the high frequency time period;

[0122] S1023, based on the intelligent regulation terminal, the flow usage data set of WIFI device in different time periods is calculated, and the flow usage data average value of WIFI device in different time periods is obtained;

[0123] S1024, based on the intelligent regulation terminal, the flow usage data average value of WIFI device in different time periods is analyzed and processed, and the historical running data of WIFI device in the high frequency use time period to be verified is determined;

[0124] S1025, based on the intelligent regulation terminal, the historical running data of WIFI device in the high frequency use time period to be verified is verified and processed, and the historical running data of WIFI device in the high frequency use time period is determined;

[0125] It can be understood that the high-frequency time period is a time period in which the traffic usage data reaches the standard multiple times. If the traffic usage data reaches the standard only once or twice, the time period is not a high-frequency time period. Therefore, in order to reduce the amount of data comparison, the data in the traffic usage data set of the WIFI device in different time periods is subjected to mean value calculation. Because the historical running data of the WIFI device is classified by hours, the traffic usage data of the same hour in different days is different, that is, the data in the traffic usage data set of the WIFI device in different time periods is different. If each data in the traffic usage data set of the WIFI device in different time periods is compared one by one, the amount of comparison will be increased. Therefore, the data in the traffic usage data set of the WIFI device in different time periods is subjected to mean value calculation to obtain an average value. Because the traffic usage data in the high-frequency time period is relatively large, the average value obtained after the mean value calculation also meets the judgment standard of the high-frequency time period.

[0126] The S1024 comprises the following steps:

[0127] The S10241 comprises the following steps:

[0128] The S10242 comprises the following steps:

[0129] The S10243 comprises the following steps:

[0130] It can be understood that a user receives a task and needs to work in certain time periods, but these time periods are not high-frequency time periods before use, and after the task is completed, the user does not need to work in this time period, but before the user completes the task, the user will access the WIFI device, which will increase the traffic usage of the WIFI device in these time periods. However, when the WIFI device is regulated, the user's task has been completed, and the traffic data used by the user before may cause the time period to be divided into a high-frequency use time period, so that the average value of the traffic usage data of the WIFI device in different time periods is greater than or equal to the set traffic usage threshold. The historical running data of the WIFI device in the high-frequency use time period is set as the historical running data of the WIFI device in the high-frequency use time period, and the traffic usage times are further judged to determine the historical running data of the WIFI device in the high-frequency use time period.

[0131] In the step S1025, the historical running data of the WIFI device in the high-frequency use time period is verified based on the intelligent regulation terminal, and the verification of the historical running data of the WIFI device in the high-frequency use time period includes the following steps:

[0132] In the step S10251, the traffic usage data set of the WIFI device in the high-frequency use time period is filtered based on the average value of the traffic usage data corresponding to the historical running data of the WIFI device in the high-frequency use time period, and the traffic usage data set higher than the average value is obtained.

[0133] In the step S10252, the number of data in the traffic usage data set higher than the average value is counted based on the intelligent regulation terminal, and the traffic usage times higher than the average value are determined.

[0134] In the step S10253, the traffic usage times higher than the average value are analyzed based on the intelligent regulation terminal, and the historical running data of the WIFI device in the high-frequency use time period is determined.

[0135] In the step S10253, the traffic usage times higher than the average value are analyzed based on the intelligent regulation terminal, and the historical running data of the WIFI device in the high-frequency use time period is determined.

[0136] In the step S102531, the traffic usage times higher than the average value and the set traffic usage times threshold are judged based on the intelligent regulation terminal.

[0137] In the step S102532, if the traffic usage times higher than the average value are greater than or equal to the set traffic usage times threshold, the historical running data of the WIFI device corresponding to the traffic usage times higher than the average value is set as the historical running data of the WIFI device in the high-frequency use time period.

[0138] S102533, if the number of times of using the flow higher than the average value is less than the set threshold of the number of times of using the flow, the historical running data of the WIFI device in the period does not meet the standard of the historical running data of the WIFI device in the high-frequency use period;

[0139] It can be understood that a user suddenly receives a task and needs to work in some time period, but these time periods are not high-frequency time periods before the time period, and after the task is completed, the user does not need to work in this time period, but before the user completes the task, the user will access the WIFI device, which causes the increase of the flow usage of the WIFI device in these time periods, but when the WIFI device is regulated, the user's task has been completed, and the flow data used by the user before may cause the time period to be divided into a high-frequency use time period. Therefore, by judging the number of times of using the flow higher than the average value, the data of the user accessing the WIFI device in some fixed time periods is filtered out as the historical running data of the WIFI device in the high-frequency use period.

[0140] S103, based on the intelligent regulation terminal, analyzing and processing the historical running data of the WIFI device in the high-frequency use period to determine the best transmission frequency band of the WIFI device in the high-frequency use period, specifically including the following steps:

[0141] S1031, based on the intelligent regulation terminal, reading and processing the historical running data of the WIFI device in the high-frequency use period to obtain network speed change data in different frequency bands;

[0142] It can be understood that when a certain number of WIFI devices are used in the same time period and the frequency bands are the same, interference will occur between the WIFI devices, causing the network speed to change. There are multiple frequency bands in the WIFI device, and some frequency bands are rarely used, and the network change is small. Using electronic devices in the frequency band with small changes will result in a stable network and small network speed changes.

[0143] S1032, based on the intelligent regulation terminal, analyzing and processing the network speed change data in different frequency bands to obtain the network speed change dispersion in different frequency bands;

[0144] S1033, based on the minimum value function, sorting and processing the network speed change dispersion in different frequency bands to determine the minimum value of the network speed change dispersion;

[0145] S1034, based on the intelligent regulation terminal, setting the frequency band corresponding to the minimum value of the network speed change dispersion as the best transmission frequency band of the WIFI device in the high-frequency use period;

[0146] In this embodiment, the frequency band with the smallest network speed change is the best transmission frequency band, and the network speed change can be determined by dispersion, and the frequency band with the smallest dispersion is the frequency band with the smallest network fluctuation, which is the best transmission frequency band of the WIFI device. Therefore, the network speed change data under different frequency bands is analyzed by dispersion, and the frequency band with the smallest dispersion is determined.

[0147] Embodiment 2

[0148] S200, acquiring the access data flow of the WIFI device, based on the intelligent control terminal, analyzing the priority of the access data flow of the WIFI device, and determining whether there is a priority data flow in the access data flow, specifically comprising the following steps:

[0149] S201, based on the intelligent control terminal, performing information extraction processing on each access point of the WIFI device, and acquiring the access data flow of the WIFI device;

[0150] S202, based on the intelligent control terminal, analyzing and processing the metadata of the access data flow of the WIFI device, and acquiring the type of the access data flow;

[0151] It can be understood that the WIFI device can access multiple electronic devices, different electronic devices access the WIFI device to complete different tasks, and the priority of the access data flow is also different, for example, the electronic device is downloading a file or making a voice and video call, so the priority of the data flow is higher than that of the data flow of playing games or watching videos. Therefore, the metadata of the access data flow is read to determine the type of each access data flow;

[0152] S203, based on the intelligent control terminal, analyzing the type of the access data flow, and determining whether there is a priority data flow in the access data flow.

[0153] S203, based on the intelligent control terminal, analyzing the type of the access data flow, and determining whether there is a priority data flow in the access data flow. Specifically, it comprises the following steps:

[0154] S2031, based on the intelligent control terminal, performing type judgment processing on the access data flow;

[0155] S2032, if there is file transmission or voice and video call in the access data flow, there is a priority data flow in the access data flow, the data flow corresponding to the type is set as the priority data flow, and the remaining access data flow is set as the ordinary data flow;

[0156] S2033, if there is no file transmission or voice and video call in the access data flow, there is no priority data flow in the access data flow;

[0157] In this embodiment, the priority of the data stream of file transmission and audio / video call is higher than that of the data stream of playing games or watching videos, therefore, the access data stream type is judged to determine whether the data stream of file transmission and audio / video call exists in the access data stream, and if it exists, it is set as a priority data stream, and subsequent resource priority allocation is performed, and the remaining data stream is set as a normal data stream.

[0158] Embodiment 3

[0159] S300, based on the intelligent control terminal, the priority data stream and the best transmission frequency band of the WIFI device in the high-frequency use period are matched and processed to determine the best transmission frequency band of the priority data stream, which specifically includes the following steps:

[0160] S301, based on the intelligent control terminal, the priority data stream is processed by information extraction to obtain the access time of the priority data stream;

[0161] S302, based on the intelligent control terminal, the access time of the priority data stream and the high-frequency use period are matched and processed to determine whether the priority data stream coincides with the high-frequency use period;

[0162] S303, if the access time of the priority data stream coincides with the high-frequency use period, the best transmission frequency band of the WIFI device in the high-frequency use period is set as the best transmission frequency band of the priority data stream;

[0163] S304, if the access time of the priority data stream does not coincide with the high-frequency use period, based on the intelligent control terminal, the historical running data of the WIFI device is analyzed by frequency band to determine the best transmission frequency band of the priority data stream;

[0164] It can be understood that the access time of the priority data stream is random, therefore, the access time of the priority data stream and the high-frequency use period need to be matched to determine whether the access time of the priority data stream is located in the high-frequency use period, if the access time of the priority data stream is in the high-frequency use period, only the priority data stream needs to be allocated resources according to the best transmission frequency band of the WIFI device in the high-frequency use period, if the access time of the priority data stream is not in the high-frequency use period, the frequency band of the time when the priority data stream is located needs to be selected to determine the best transmission frequency band of the priority data stream, because the access time of the priority data stream does not coincide with the high-frequency use period, it means that the access time of the priority data stream is in other period, and the frequency band of other time is not selected, if a frequency band is randomly selected to allocate resources to the priority data stream, interference may occur, resulting in poor network quality and prolonging the completion time of the priority data stream.

[0165] The S304, based on the intelligent regulation and control terminal, performs frequency band analysis on the historical running data of the WIFI device to determine the best transmission frequency band of the priority data flow, specifically including the following steps:

[0166] S3041, based on the intelligent regulation and control terminal, performs time matching processing on the historical running data of the WIFI device and the access time of the priority data flow in different time periods to determine the historical running data of the WIFI device corresponding to the access time;

[0167] S3042, based on the intelligent regulation and control terminal, performs data reading processing on the historical running data of the WIFI device corresponding to the access time to obtain the network speed change data in different frequency bands corresponding to the access time;

[0168] S3043, based on the intelligent regulation and control terminal, performs discrete degree analysis processing on the network speed change data in different frequency bands corresponding to the access time to obtain the network speed change discrete degree in different frequency bands corresponding to the access time;

[0169] S3044, based on the minimum value function, sorts the network speed change discrete degree in different frequency bands corresponding to the access time to determine the minimum value of the network speed change discrete degree at the access time;

[0170] S3045, based on the intelligent regulation and control terminal, sets the frequency band corresponding to the minimum value of the network speed change discrete degree at the access time as the best transmission frequency band of the priority data flow.

[0171] Embodiment 4

[0172] S400, the intelligent regulation and control terminal performs resource allocation on the priority data flow according to the best transmission frequency band of the priority data flow, specifically including the following steps:

[0173] S401, based on the intelligent regulation and control terminal, performs type analysis on the priority data flow to determine the priority data flow type;

[0174] S402, based on the intelligent regulation and control terminal, performs counting processing on the priority data flow to determine the priority data flow quantity;

[0175] S403, based on the intelligent regulation and control terminal, performs flow analysis on the priority data flow type and the priority data flow quantity to determine the instantaneous flow usage data of the priority data flow;

[0176] S404, based on the intelligent regulation and control terminal, performs analysis processing on the instantaneous flow usage data of the priority data flow to determine the resource allocation of the priority data flow;

[0177] It can be understood that the WIFI device has limited traffic allocation per second, therefore, the type and number of priority data streams need to be calculated, the instantaneous traffic usage data of the priority data streams is determined, and then the instantaneous traffic usage data of the priority data streams and the instantaneous traffic allocation value of the WIFI device are judged to determine whether the instantaneous traffic allocation value of the WIFI device can meet the needs of the priority data streams. It is worth noting that the instantaneous traffic usage data of the priority data streams is the sum of the traffic required for the best operation of each priority data stream. For example, the best operation of the audio and video call in the priority data stream may be 1080P, and the required traffic is also the largest. Therefore, in order to improve the completion quality of the priority data streams, the instantaneous traffic usage data of the priority data streams is calculated according to the traffic data required for the best operation.

[0178] In S404, the intelligent control terminal analyzes and processes the instantaneous traffic usage data of the priority data streams to determine resource allocation of the priority data streams, which includes the following steps:

[0179] In S4041, the intelligent control terminal reads and processes data of the WIFI device to obtain the instantaneous traffic allocation value of the WIFI device.

[0180] In S4042, the intelligent control terminal judges and processes the instantaneous traffic usage data of the priority data streams and the instantaneous traffic allocation value of the WIFI device.

[0181] In S4043, if the instantaneous traffic usage data of the priority data streams is greater than or equal to the instantaneous traffic allocation value of the WIFI device, the intelligent control terminal adjusts the traffic data of the audio and video call in the priority data streams, and allocates traffic according to the minimum traffic usage value of the audio and video call.

[0182] In S4044, if the instantaneous traffic usage data of the priority data streams is less than the instantaneous traffic allocation value of the WIFI device, the intelligent control terminal allocates resources to the ordinary data streams.

[0183] It can be understood that when the instantaneous traffic usage data of the priority data streams is greater than or equal to the instantaneous traffic allocation value of the WIFI device, it means that the instantaneous traffic allocation value of the WIFI device cannot meet the priority data streams under the best operating conditions. In order to make all the priority data streams be able to access the WIFI device and be able to get certain resource allocation, the traffic data of the audio and video call in the priority data streams is adjusted. Because the audio and video call can be conducted in 1080P and also in 480P, the operating conditions of the audio and video call in the priority data streams are adjusted so that each priority data stream can get certain resource allocation.

[0184] The S4044 comprises the following steps:

[0185] The S40441 comprises the following steps:

[0186] The S40442 comprises the following steps:

[0187] The S40443 comprises the following steps:

[0188] The S40444 comprises the following steps:

[0189] In this embodiment, when the WIFI device allocates resources to the priority data stream under the best operation, there are still remaining resources to be allocated. The minimum flow usage value required by the ordinary data stream is determined to determine whether the remaining resources of the WIFI device can meet the usage of all ordinary data streams. If the remaining resources of the WIFI device cannot meet the usage of all ordinary data streams, the access time of the ordinary data stream is determined, and the ordinary data stream with the earliest access time is preferentially allocated resources.

[0190] Referring to FIG. 1, Figure 2 A signal enhancement system for a WIFI device is used to implement the above-mentioned signal enhancement method for the WIFI device, and comprises:

[0191] The intelligent control terminal is used to control each module to classify, analyze features, calculate mean values, and determine the best transmission frequency band of the WIFI device under a high-frequency usage period.

[0192] The cloud server is used to store the historical operation data of the WIFI device.

[0193] The built-in storage medium of the WIFI device is used to store the factory information of the WIFI device.

[0194] The communication module is used to realize the communication connection between the intelligent regulation and control terminal and the cloud server.

[0195] The data classification module classifies the historical operation data of the WIFI device by hours, and obtains the historical operation data of the WIFI device in different time periods.

[0196] The data calculation module is used to calculate the mean value of the traffic usage data set of the WIFI device in different time periods, and obtain the traffic usage data average value of the WIFI device in different time periods.

[0197] The data judgment module is used to judge the traffic usage data average value of the WIFI device in different time periods and the set traffic usage threshold, and determine the historical operation data of the WIFI device in the to-be-verified high-frequency use period.

[0198] The data verification module is used to verify the historical operation data of the WIFI device in the to-be-verified high-frequency use period, and determine the historical operation data of the WIFI device in the high-frequency use period.

[0199] The frequency band determination module is used to analyze the historical operation data of the WIFI device in the high-frequency use period, and determine the best transmission frequency band of the WIFI device in the high-frequency use period.

[0200] The priority analysis module is used to analyze the access data flow of the WIFI device, and determine the priority data flow.

[0201] The frequency band selection module selects the frequency band of the WIFI device according to the priority data flow, and determines the best transmission frequency band of the priority data flow.

[0202] The resource allocation module is used to allocate the traffic resources of the WIFI device.

[0203] Further, a storage medium is provided, which stores a computer program. When the computer program is called and run, it performs the signal enhancement method for the WIFI device as described above. The storage medium can be a magnetic medium, such as a floppy disk, a hard disk, a magnetic tape; an optical medium, such as a DVD; or a semiconductor medium, such as a solid state disk (SSD).

[0204] The above shows and describes the basic principles, main features and advantages of the present application. Those skilled in the art should understand that the present application is not limited to the above-mentioned embodiments, and the above-mentioned embodiments and descriptions in the specification are only the principles of the present application. Various changes and improvements can be made without departing from the spirit and scope of the present application, and these changes and improvements all fall within the scope of the claimed present application. The scope of protection of the present application is defined by the appended claims and their equivalents.

Claims

1. A signal enhancement method for a WIFI device, characterized in that, The application comprises the following steps: acquiring historical running data of a WIFI device, analyzing and processing the historical running data of the WIFI device based on an intelligent control terminal, and determining the best transmission frequency band of the WIFI device in a high-frequency use period; acquiring access data flow of the WIFI device, analyzing the priority of the access data flow of the WIFI device based on the intelligent control terminal, and determining whether there is priority data flow in the access data flow; if there is priority data flow, matching the priority data flow and the best transmission frequency band of the WIFI device in the high-frequency use period based on the intelligent control terminal, and determining the best transmission frequency band of the priority data flow; allocating resources to the priority data flow according to the best transmission frequency band of the priority data flow by the intelligent control terminal; wherein the step of analyzing and processing the historical running data of the WIFI device based on the intelligent control terminal and determining the best transmission frequency band of the WIFI device in the high-frequency use period comprises the following steps: reading and processing data of a cloud server to acquire the historical running data of the WIFI device; classifying the historical running data of the WIFI device by hour to acquire the historical running data of the WIFI device in different periods, calculating the traffic of the historical running data of the WIFI device in different periods to determine a traffic usage data set of the WIFI device in different periods, calculating the average value of the traffic usage data set of the WIFI device in different periods to acquire the average traffic usage data of the WIFI device in different periods, analyzing and processing the average traffic usage data of the WIFI device in different periods to determine the historical running data of the WIFI device in a high-frequency use period to be verified, and verifying the historical running data of the WIFI device in the high-frequency use period to be verified to determine the historical running data of the WIFI device in the high-frequency use period; analyzing and processing the historical running data of the WIFI device in the high-frequency use period to determine the best transmission frequency band of the WIFI device in the high-frequency use period; wherein the step of analyzing the priority of the access data flow of the WIFI device based on the intelligent control terminal and determining whether there is priority data flow in the access data flow comprises the following steps: extracting information from each access point of the WIFI device to acquire the access data flow of the WIFI device; analyzing metadata of the access data flow of the WIFI device to acquire the type of the access data flow; judging the type of the access data flow; if there is file transmission or audio / video call in the access data flow, there is priority data flow in the access data flow, the data flow corresponding to the type is set as the priority data flow, and the remaining access data flow is set as the ordinary data flow; if there is no file transmission or audio / video call in the access data flow, there is no priority data flow in the access data flow.

2. The method for signal enhancement for WIFI device according to claim 1, characterized in that, the step of reading and processing data of the cloud server based on the intelligent control terminal to acquire the historical running data of the WIFI device comprises the following steps: extracting information from the built-in storage medium of the WIFI device based on the intelligent control terminal to acquire the factory information of the WIFI device; Based on the intelligent regulation terminal, the factory information of the WIFI device is retrieved and processed to determine the IP address of the cloud server; The intelligent regulation terminal establishes a communication connection with the cloud server according to the IP address of the cloud server to determine the communication channel; Based on the intelligent regulation terminal, the cloud server is data-processed according to the communication channel to obtain the historical running data of the WIFI device.

3. The method for signal enhancement for WIFI device according to claim 1, characterized in that, Based on the intelligent regulation terminal, the average value of the traffic usage data of the WIFI device in different time periods is analyzed and processed to determine the historical running data of the WIFI device in the to-be-verified high-frequency usage period, which specifically includes the following steps: Based on the intelligent regulation terminal, the average value of the traffic usage data of the WIFI device in different time periods and the set traffic usage threshold are judged and processed; If the average value of the traffic usage data of the WIFI device in different time periods is greater than or equal to the set traffic usage threshold, the WIFI device has more traffic usage in this period, and the historical running data of the WIFI device corresponding to this period is set as the historical running data of the WIFI device in the to-be-verified high-frequency usage period; If the average value of the traffic usage data of the WIFI device in different time periods is less than the set traffic usage threshold, the WIFI device has less traffic usage in this period.

4. The method for signal enhancement for WIFI device according to claim 3, characterized in that, Based on the intelligent regulation terminal, the average value of the traffic usage data corresponding to the historical running data of the WIFI device in the to-be-verified high-frequency usage period is used to filter the traffic usage data set of the WIFI device in this period, and the traffic usage data set higher than the average value is obtained; Based on the intelligent regulation terminal, the number of data in the traffic usage data set higher than the average value is counted to determine the traffic usage frequency higher than the average value; Based on the intelligent regulation terminal, the traffic usage frequency higher than the average value is analyzed to determine the historical running data of the WIFI device in the high-frequency usage period. Based on the intelligent regulation terminal, the traffic usage frequency higher than the average value is analyzed to determine the historical running data of the WIFI device in the high-frequency usage period, which specifically includes the following steps:

5. The method for signal enhancement for WIFI device according to claim 4, characterized in that, Based on the intelligent regulation terminal, the traffic usage frequency higher than the average value and the set traffic usage frequency threshold are judged and processed; If the traffic usage frequency higher than the average value is greater than or equal to the set traffic usage frequency threshold, the historical running data of the WIFI device corresponding to the traffic usage frequency higher than the average value is set as the historical running data of the WIFI device in the high-frequency usage period; If the traffic usage frequency higher than the average value is less than the set traffic usage frequency threshold, the historical running data of the WIFI device corresponding to this period does not meet the standard of the historical running data of the WIFI device in the high-frequency usage period. Based on the intelligent regulation terminal, the historical running data of the WIFI device in the high-frequency usage period is analyzed to determine the best transmission frequency band of the WIFI device in the high-frequency usage period, which specifically includes the following steps:

6. The method for signal enhancement for WIFI device according to claim 5, characterized in that, ​ Based on the intelligent regulation terminal, the historical running data of the WIFI equipment in the high-frequency use period is read and processed to obtain the network speed change data in different frequency bands; Based on the intelligent regulation terminal, the network speed change data in different frequency bands is analyzed and processed to obtain the network speed change dispersion in different frequency bands; Based on the minimum value function, the network speed change dispersion in different frequency bands is sorted and processed to determine the minimum value of the network speed change dispersion; Based on the intelligent regulation terminal, the frequency band corresponding to the minimum value of the network speed change dispersion is set as the best transmission frequency band of the WIFI equipment in the high-frequency use period.

7. The method for signal enhancement for WIFI device according to claim 1, characterized in that, The matching processing of the priority data stream and the best transmission frequency band of the WIFI equipment in the high-frequency use period based on the intelligent regulation terminal to determine the best transmission frequency band of the priority data stream includes the following steps: Based on the intelligent regulation terminal, the access time of the priority data stream is extracted and processed to obtain the access time of the priority data stream; Based on the intelligent regulation terminal, the access time of the priority data stream and the high-frequency use period are matched and processed to determine whether the priority data stream coincides with the high-frequency use period; If the access time of the priority data stream coincides with the high-frequency use period, the best transmission frequency band of the WIFI equipment in the high-frequency use period is set as the best transmission frequency band of the priority data stream; If the access time of the priority data stream does not coincide with the high-frequency use period, the historical running data of the WIFI equipment is analyzed based on the intelligent regulation terminal to determine the best transmission frequency band of the priority data stream.

8. The method for signal enhancement for WIFI device according to claim 7, characterized in that, The frequency band analysis of the historical running data of the WIFI equipment based on the intelligent regulation terminal to determine the best transmission frequency band of the priority data stream includes the following steps: Based on the intelligent regulation terminal, the historical running data of the WIFI equipment in different periods and the access time of the priority data stream are time-matched and processed to determine the historical running data of the WIFI equipment corresponding to the access time; Based on the intelligent regulation terminal, the historical running data of the WIFI equipment corresponding to the access time is read and processed to obtain the network speed change data in different frequency bands corresponding to the access time; Based on the intelligent regulation terminal, the network speed change data in different frequency bands corresponding to the access time is analyzed and processed to obtain the network speed change dispersion in different frequency bands corresponding to the access time; Based on the minimum value function, the network speed change dispersion in different frequency bands corresponding to the access time is sorted and processed to determine the minimum value of the network speed change dispersion at the access time; Based on the intelligent regulation terminal, the frequency band corresponding to the minimum value of the network speed change dispersion at the access time is set as the best transmission frequency band of the priority data stream.

9. The method for signal enhancement for WIFI device according to claim 1, characterized in that, The resource allocation of the priority data stream according to the best transmission frequency band of the priority data stream based on the intelligent regulation terminal includes the following steps: Based on the intelligent regulation terminal, the type of the priority data stream is analyzed to determine the priority data stream type; Based on the intelligent regulation terminal, the priority data stream is counted and processed to determine the number of priority data streams; Based on the intelligent regulation terminal, the traffic of the priority data stream type and the number of priority data streams is analyzed to determine the instantaneous traffic usage data of the priority data stream; The intelligent regulation terminal analyzes and processes the instantaneous flow usage data of the priority data flow, and determines resource allocation for the priority data flow.

10. The method for signal enhancement for WIFI device according to claim 9, characterized in that, The intelligent regulation terminal analyzes and processes the instantaneous flow usage data of the priority data flow, and determines resource allocation for the priority data flow, specifically including the following steps: The intelligent regulation terminal reads and processes data of the WIFI device to obtain the instantaneous flow allocation value of the WIFI device; The intelligent regulation terminal judges the instantaneous flow usage data of the priority data flow and the instantaneous flow allocation value of the WIFI device; If the instantaneous flow usage data of the priority data flow is greater than or equal to the instantaneous flow allocation value of the WIFI device, the intelligent regulation terminal adjusts the flow data of the voice and video call in the priority data flow, and allocates flow according to the minimum flow usage value of the voice and video call; If the instantaneous flow usage data of the priority data flow is less than the instantaneous flow allocation value of the WIFI device, the intelligent regulation terminal allocates resources to the ordinary data flow.

11. The method for signal enhancement for WIFI device according to claim 10, characterized in that, The intelligent regulation terminal allocates resources to the ordinary data flow, specifically including the following steps: The intelligent regulation terminal analyzes the flow of the ordinary data flow to determine the minimum flow usage value of the ordinary data flow; The intelligent regulation terminal judges the minimum flow usage value of the ordinary data flow, the instantaneous flow usage data of the priority data flow, and the instantaneous flow allocation value of the WIFI device; If the sum of the minimum flow usage value of the ordinary data flow and the instantaneous flow usage data of the priority data flow is less than or equal to the instantaneous flow allocation value of the WIFI device, the intelligent regulation terminal allocates flow to the priority data flow in the best transmission frequency band of the priority data flow, and allocates flow to the ordinary data flow in other frequency bands; If the sum of the minimum flow usage value of the ordinary data flow and the instantaneous flow usage data of the priority data flow is greater than the instantaneous flow allocation value of the WIFI device, the intelligent regulation terminal allocates flow to the priority data flow in the best transmission frequency band of the priority data flow, and allocates flow to the ordinary data flow that accesses the WIFI device earliest in other frequency bands.

12. A signal enhancement system for a WIFI device for implementing the signal enhancement method for a WIFI device according to any one of claims 1-11, characterized in that, It includes: An intelligent regulation terminal for controlling each module to classify, analyze, calculate the mean value, and analyze and judge the historical running data of the WIFI device, and determine the best transmission frequency band of the WIFI device in the high-frequency use period; A cloud server for storing the historical running data of the WIFI device; A built-in storage medium of the WIFI device for storing factory information of the WIFI device; A communication module for realizing communication connection between the intelligent regulation terminal and the cloud server; A data classification module for classifying the historical running data of the WIFI device by hour as a feature to obtain the historical running data of the WIFI device in different periods; The data calculation module is configured to perform mean value calculation on the traffic usage data sets of the WIFI device in different time periods to obtain traffic usage data mean values of the WIFI device in different time periods. The data judgment module is configured to perform judgment processing on the traffic usage data mean values of the WIFI device in different time periods and the set traffic usage threshold to determine the historical operation data of the WIFI device in the to-be-verified high-frequency usage period. The data verification module is configured to perform verification processing on the historical operation data of the WIFI device in the to-be-verified high-frequency usage period to determine the historical operation data of the WIFI device in the high-frequency usage period. The frequency band determination module is configured to perform frequency band analysis on the historical operation data of the WIFI device in the high-frequency usage period to determine the best transmission frequency band of the WIFI device in the high-frequency usage period. The priority analysis module is configured to perform priority analysis on the access data flow of the WIFI device to determine a priority data flow. The frequency band selection module is configured to select the frequency band of the WIFI device according to the priority data flow to determine the best transmission frequency band of the priority data flow. The resource allocation module is configured to allocate traffic resources of the WIFI device.

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