Wireless communication network management system

Abstract

The present invention relates to a wireless communication network management system, comprising a time division device, a network disconnection execution device, a time-sharing acquisition device, a layer-by-layer conversion device and a target identification device. The wireless communication network management system of the present invention has a compact design and a wide range of applications, and can provide reliable data for subsequent decisions on whether to execute on-off restriction processing of wireless communication networks.

Description

Technical Field

[0001] The present invention relates to the field of wireless communication networks, and in particular to a wireless communication network management system. Background Art

[0002] The so-called wireless communication network refers to a communication network that can interconnect various communication devices without wiring. Wireless communication network technology covers a wide range, including global voice and data networks that allow users to establish long-distance wireless connections, as well as infrared and radio frequency technologies that are optimized for short-distance wireless connections. Wireless communication networks are generally combined with telecommunication communication networks, and nodes can be linked to each other without cables. Wireless communication networks are generally used in remote control information transmission systems that use electromagnetic waves, such as networks that use radio waves as carriers and physical layers.

[0003] At the wireless routing mechanism end that determines the on and off of the wireless communication network, the identification of children and the statistics and restriction of the access time are relatively rough. The invention with application publication number CN110474784A discloses an Internet time monitoring device, including a monitoring node, the monitoring node includes: a storage module; a system login module: based on the input ID and password, judging whether it corresponds to the stored ID and password; a timing module: timing the Internet time; a facial information collection module: collecting user facial information; a facial information comparison module, comparing the collected user information with the stored facial information to determine whether it is the person himself; a management module: managing the opening or closing of the system according to the output content of the system login module and the facial information comparison module; a power module; a data transmission module: used for signal transmission between each monitoring node; the storage module includes a first storage unit and a second storage unit mapped to the first storage unit. It directly identifies the identity information of the logon user to determine whether it is a teenager, and if so, it directly enters the management. In fact, the time when children are around the wireless routing mechanism is fragmented, and it is necessary to accumulate the various time fragments when children are present to determine the total time that the suspected children are online and to perform subsequent on-off restriction processing of the wireless communication network. Obviously, there is a lack of corresponding solutions in the prior art. Summary of the invention

[0004] In order to solve the technical problems in the prior art, the present invention provides a wireless communication network management system, the system comprising:

[0005] A time division device is provided in the wireless routing mechanism, and is used to divide the interval time between the acquisition time corresponding to the acquisition image frame marked as the child time frame and the previous time as the child online time, and divide the interval time between the acquisition time corresponding to the acquisition image frame marked as the non-child time frame and the previous time as the non-child online time, and accumulate the children's online time between the network opening start time and the current time to obtain the suspected children's online time output;

[0006] A network disconnection execution device, which is arranged in the wireless routing mechanism and connected to the time division device, and is used to execute network disconnection processing for the wireless routing mechanism when the received suspected child's online time is equal to or exceeds a set time threshold;

[0007] A time-sharing acquisition device is used to perform a time-sharing acquisition operation on the working scene of the wireless routing mechanism while the wireless routing mechanism is turned on, so as to obtain respective acquisition image frames corresponding to respective acquisition moments, wherein the startup of the wireless routing mechanism is the network start time;

[0008] A layer-by-layer conversion device, connected to the time-sharing acquisition device, is used to successively perform histogram equalization processing, Lanczos interpolation processing of a 4-pixel×4-pixel neighborhood, and salt-and-pepper noise removal processing on each received acquisition image frame, so as to obtain and output a corresponding layer-by-layer conversion image;

[0009] a target identification device, arranged in the wireless routing mechanism and connected to the time division device and the layer-by-layer conversion device respectively, for marking the collected image frame corresponding to the layer-by-layer conversion image as a child time frame when the received layer-by-layer conversion image has a child imaging region with a number of pixels exceeding a set limit, and for marking the collected image frame corresponding to the layer-by-layer conversion image as a non-child time frame when the received layer-by-layer conversion image does not have a child imaging region with a number of pixels exceeding a set limit;

[0010] Wherein, the network disconnection execution device is further used to maintain the network routing operation of the wireless routing mechanism when the received suspected child's online time is less than the set time threshold;

[0011] The layer-by-layer conversion device includes a front-layer conversion unit, a middle-layer conversion unit and a last-layer conversion unit, wherein the front-layer conversion unit is used to perform histogram equalization processing on the received image data, the middle-layer conversion unit is used to perform Lanczos interpolation processing of a 4-pixel×4-pixel neighborhood on the received image data, and the last-layer conversion unit is used to perform salt and pepper noise removal processing on the received image data;

[0012] Among them, the layer-by-layer conversion device includes a front layer conversion unit, a middle layer conversion unit and a last layer conversion unit, the front layer conversion unit is used to perform histogram equalization processing on the received image data, the middle layer conversion unit is used to perform Lanczos interpolation processing of a 4 pixel × 4 pixel neighborhood on the received image data, and the last layer conversion unit is used to perform salt and pepper noise removal processing on the received image data, including: the front layer conversion unit, the middle layer conversion unit and the last layer conversion unit are connected in sequence.

[0013] The technology of the present invention can use the time segment corresponding to each frame of the image as the statistical basic data for the total time that the suspected children are online, realize the accumulation of the various time segments when children are present around the wireless routing mechanism, and decide whether to execute the on-off restriction processing of the wireless communication network based on the accumulation results, thereby improving the intelligent level of on-off restriction management of the wireless communication network. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] The embodiments of the present invention will be described below with reference to the accompanying drawings.

[0015] Figure 1 FIG. 1 is a diagram showing the internal structure of a wireless communication network management system according to a first embodiment of the present invention.

[0016] Figure 2 FIG. 1 is a diagram showing the internal structure of a wireless communication network management system according to a second embodiment of the present invention.

[0017] Figure 3 FIG. 1 is a diagram showing the internal structure of a wireless communication network management system according to a third embodiment of the present invention. DETAILED DESCRIPTION

[0018] The implementation scheme of the wireless communication network management system of the present invention will be described in detail below with reference to the accompanying drawings.

[0019] First embodiment

[0020] Figure 1 The internal structure diagram of a wireless communication network management system according to the first embodiment of the present invention is shown, and the system includes:

[0021] A time division device is provided in the wireless routing mechanism, and is used to divide the interval time between the acquisition time corresponding to the acquisition image frame marked as the child time frame and the previous time as the child online time, and divide the interval time between the acquisition time corresponding to the acquisition image frame marked as the non-child time frame and the previous time as the non-child online time, and accumulate the children's online time between the network opening start time and the current time to obtain the suspected children's online time output;

[0022] Specifically, the time division device is arranged in the wireless routing mechanism, and is used to divide the interval time between the acquisition time corresponding to the acquisition image frame marked as the child time frame and the previous time as the child online time, and divide the interval time between the acquisition time corresponding to the acquisition image frame marked as the non-child time frame and the previous time as the non-child online time, and accumulate the various children's online time between the network opening start time and the current time to obtain the suspected children's online time output, including: the time division device has a built-in timing statistics unit, which is used to accumulate the various children's online time between the network opening start time and the current time to obtain the suspected children's online time output;

[0023] A network disconnection execution device, which is arranged in the wireless routing mechanism and connected to the time division device, and is used to execute network disconnection processing for the wireless routing mechanism when the received suspected child's online time is equal to or exceeds a set time threshold;

[0024] A time-sharing acquisition device is used to perform a time-sharing acquisition operation on the working scene of the wireless routing mechanism while the wireless routing mechanism is turned on, so as to obtain respective acquisition image frames corresponding to respective acquisition moments, wherein the startup of the wireless routing mechanism is the network start time;

[0025] A layer-by-layer conversion device, connected to the time-sharing acquisition device, is used to successively perform histogram equalization processing, Lanczos interpolation processing of a 4-pixel×4-pixel neighborhood, and salt-and-pepper noise removal processing on each received acquisition image frame, so as to obtain and output a corresponding layer-by-layer conversion image;

[0026] a target identification device, arranged in the wireless routing mechanism and connected to the time division device and the layer-by-layer conversion device respectively, for marking the collected image frame corresponding to the layer-by-layer conversion image as a child time frame when the received layer-by-layer conversion image has a child imaging region with a number of pixels exceeding a set limit, and for marking the collected image frame corresponding to the layer-by-layer conversion image as a non-child time frame when the received layer-by-layer conversion image does not have a child imaging region with a number of pixels exceeding a set limit;

[0027] Wherein, the network disconnection execution device is further used to maintain the network routing operation of the wireless routing mechanism when the received suspected child's online time is less than the set time threshold;

[0028] The layer-by-layer conversion device includes a front-layer conversion unit, a middle-layer conversion unit and a last-layer conversion unit, wherein the front-layer conversion unit is used to perform histogram equalization processing on the received image data, the middle-layer conversion unit is used to perform Lanczos interpolation processing of a 4-pixel×4-pixel neighborhood on the received image data, and the last-layer conversion unit is used to perform salt and pepper noise removal processing on the received image data;

[0029] The layer-by-layer conversion device comprises a front-layer conversion unit, a middle-layer conversion unit and a last-layer conversion unit, wherein the front-layer conversion unit is used to perform histogram equalization processing on the received image data, the middle-layer conversion unit is used to perform Lanczos interpolation processing of a 4-pixel×4-pixel neighborhood on the received image data, and the last-layer conversion unit is used to perform salt and pepper noise removal processing on the received image data. The front-layer conversion unit, the middle-layer conversion unit and the last-layer conversion unit are sequentially connected;

[0030] Among them, when the received suspected child's Internet access time is equal to or exceeds the set time threshold, the wireless routing mechanism is disconnected from the network, including: when the received suspected child's Internet access time is equal to or exceeds two hours, the wireless routing mechanism is disconnected from the network.

[0031] Second embodiment

[0032] Figure 2 FIG. 1 is a diagram showing the internal structure of a wireless communication network management system according to a second embodiment of the present invention.

[0033] exist Figure 2 In the second embodiment of the present invention, the wireless communication network management system may include:

[0034] A time division device is provided in the wireless routing mechanism, and is used to divide the interval time between the acquisition time corresponding to the acquisition image frame marked as the child time frame and the previous time as the child online time, and divide the interval time between the acquisition time corresponding to the acquisition image frame marked as the non-child time frame and the previous time as the non-child online time, and accumulate the children's online time between the network opening start time and the current time to obtain the suspected children's online time output;

[0035] A network disconnection execution device, which is arranged in the wireless routing mechanism and connected to the time division device, and is used to execute network disconnection processing for the wireless routing mechanism when the received suspected child's online time is equal to or exceeds a set time threshold;

[0036] A time-sharing acquisition device is used to perform a time-sharing acquisition operation on the working scene of the wireless routing mechanism while the wireless routing mechanism is turned on, so as to obtain respective acquisition image frames corresponding to respective acquisition moments, wherein the startup of the wireless routing mechanism is the network start time;

[0037] A layer-by-layer conversion device, connected to the time-sharing acquisition device, is used to successively perform histogram equalization processing, Lanczos interpolation processing of a 4-pixel×4-pixel neighborhood, and salt-and-pepper noise removal processing on each received acquisition image frame, so as to obtain and output a corresponding layer-by-layer conversion image;

[0038] a target identification device, arranged in the wireless routing mechanism and connected to the time division device and the layer-by-layer conversion device respectively, for marking the collected image frame corresponding to the layer-by-layer conversion image as a child time frame when the received layer-by-layer conversion image has a child imaging region with a number of pixels exceeding a set limit, and for marking the collected image frame corresponding to the layer-by-layer conversion image as a non-child time frame when the received layer-by-layer conversion image does not have a child imaging region with a number of pixels exceeding a set limit;

[0039] The touch screen is used to receive user input information for the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device according to the user's operation.

[0040] Third embodiment

[0041] Figure 3 FIG. 1 is a diagram showing the internal structure of a wireless communication network management system according to a third embodiment of the present invention.

[0042] exist Figure 3 In the third embodiment of the present invention, the wireless communication network management system may include:

[0043] A time division device is provided in the wireless routing mechanism, and is used to divide the interval time between the acquisition time corresponding to the acquisition image frame marked as the child time frame and the previous time as the child online time, and divide the interval time between the acquisition time corresponding to the acquisition image frame marked as the non-child time frame and the previous time as the non-child online time, and accumulate the children's online time between the network opening start time and the current time to obtain the suspected children's online time output;

[0044] A network disconnection execution device, which is arranged in the wireless routing mechanism and connected to the time division device, and is used to execute network disconnection processing for the wireless routing mechanism when the received suspected child's online time is equal to or exceeds a set time threshold;

[0045] A time-sharing acquisition device is used to perform a time-sharing acquisition operation on the working scene of the wireless routing mechanism while the wireless routing mechanism is turned on, so as to obtain respective acquisition image frames corresponding to respective acquisition moments, wherein the startup of the wireless routing mechanism is the network start time;

[0046] A layer-by-layer conversion device, connected to the time-sharing acquisition device, is used to successively perform histogram equalization processing, Lanczos interpolation processing of a 4-pixel×4-pixel neighborhood, and salt-and-pepper noise removal processing on each received acquisition image frame, so as to obtain and output a corresponding layer-by-layer conversion image;

[0047] a target identification device, arranged in the wireless routing mechanism and connected to the time division device and the layer-by-layer conversion device respectively, for marking the collected image frame corresponding to the layer-by-layer conversion image as a child time frame when the received layer-by-layer conversion image has a child imaging region with a number of pixels exceeding a set limit, and for marking the collected image frame corresponding to the layer-by-layer conversion image as a non-child time frame when the received layer-by-layer conversion image does not have a child imaging region with a number of pixels exceeding a set limit;

[0048] A pressure detection device is arranged on the housing of the network disconnection execution device, the time-sharing collection device, the layer-by-layer conversion device and the target identification device, and is used to measure the instantaneous pressure currently borne by the housing of any of the network disconnection execution device, the time-sharing collection device, the layer-by-layer conversion device and the target identification device;

[0049] Wherein, the pressure detection device is arranged on the shell of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device, and is used to measure the instantaneous pressure currently borne by the shell of any of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device, including: the pressure detection device has a built-in pressure analysis device, which is used to issue a pressure alarm instruction when the instantaneous pressure currently borne by the shell of any of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device exceeds the limit;

[0050] Wherein, the pressure detection device is arranged on the shell of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device, and is used to measure the instantaneous pressure currently borne by the shell of any device of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device, and further includes: the pressure detection device has a built-in pressure analysis device, which is used to issue a pressure safety instruction when the instantaneous pressure currently borne by the shell of each device of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device is within the limit;

[0051] Wherein, the pressure detection device is arranged on the shell of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device, and is used to measure the instantaneous pressure currently borne by the shell of any device of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device, and further comprises: the pressure detection device adopts a plurality of pressure detection units, and is used to respectively measure the instantaneous pressure currently borne by the shell of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device;

[0052] The pressure detection device uses a plurality of pressure detection units for respectively measuring the instantaneous pressure currently borne by the shells of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device, including: the internal structures of the plurality of pressure detection units are the same;

[0053] The pressure detection device uses a plurality of pressure detection units for respectively measuring the instantaneous pressure currently borne by the shells of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device, and further comprises: the pressure measurement upper limit values ​​and the pressure measurement lower limit values ​​of the plurality of pressure detection units are respectively equal;

[0054] The pressure measurement upper limit values ​​and the pressure measurement lower limit values ​​of the plurality of pressure detection units being equal respectively include: the pressure measurement upper limit value is greater than the pressure measurement lower limit value;

[0055] And wherein, the pressure detection device adopts multiple pressure detection units for respectively measuring the instantaneous pressure currently borne by the shells of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device, and also includes: the multiple pressure detection units are respectively installed at the bottom position of the top of the shells of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device and are located in the center of the bottom.

[0056] In addition, in the wireless communication network management system, when the received layer-by-layer conversion image contains a child imaging area whose number of occupied pixels exceeds a set limit, the acquired image frame corresponding to the layer-by-layer conversion image is marked as a child time frame; and when the received layer-by-layer conversion image does not contain a child imaging area whose number of occupied pixels exceeds a set limit, the acquired image frame corresponding to the layer-by-layer conversion image is marked as a non-child time frame, including: identifying each child imaging area in the received layer-by-layer conversion image based on child imaging characteristics.

[0057] It can be seen that the present invention has at least the following significant substantive features:

[0058] First, a time-sharing acquisition operation is performed on the working scene of the wireless routing mechanism to obtain the acquisition image frames corresponding to each acquisition time. Histogram equalization processing, Lanczos interpolation processing of 4 pixel × 4 pixel neighborhood and salt and pepper noise removal processing are successively performed on each received acquisition image frame to obtain and output the corresponding layer-by-layer conversion image, thereby improving the imaging quality of each acquisition image frame;

[0059] Second, when the received layer-by-layer conversion image has a child imaging region whose number of occupied pixels exceeds a set limit, the acquired image frame corresponding to the layer-by-layer conversion image is marked as a child time frame; and when the received layer-by-layer conversion image does not have a child imaging region whose number of occupied pixels exceeds a set limit, the acquired image frame corresponding to the layer-by-layer conversion image is marked as a non-child time frame;

[0060] Thirdly, the time interval between the acquisition moment and the previous moment corresponding to the acquisition image frame marked as the child time frame is classified as the child online time, and the time interval between the acquisition moment and the previous moment corresponding to the acquisition image frame marked as the non-child time frame is classified as the non-child online time. The children's online time between the network opening start time and the current time is accumulated to obtain the suspected children's online time. When the suspected children's online time is equal to or exceeds the set time threshold, the wireless routing mechanism is disconnected from the network, thereby realizing intelligent network disconnection based on the statistical results of the targeted children's online time.

[0061] The wireless communication network management system of the present invention is compact in design and widely applicable. Since the time segment corresponding to each frame of image can be used as the statistical basic data of the total time of suspected children surfing the Internet, the accumulation of each time segment when children exist around the wireless routing mechanism is achieved, thereby providing reliable data for the subsequent decision on whether to execute the on-off restriction processing of the wireless communication network.

[0062] The above embodiments are merely examples for implementing the present invention, and the present invention is not limited thereto. Various modifications to these embodiments are within the scope of the present invention. It can be understood from the above contents that various other embodiments are possible within the scope of the present invention.

Claims

1. A wireless communication network management system, characterized in that: The system comprises: A time division device is provided in the wireless routing mechanism, and is used to divide the interval time between the acquisition time corresponding to the acquisition image frame marked as the child time frame and the previous time as the child online time, and divide the interval time between the acquisition time corresponding to the acquisition image frame marked as the non-child time frame and the previous time as the non-child online time, and accumulate the children's online time between the network opening start time and the current time to obtain the suspected children's online time output; A network disconnection execution device, which is arranged in the wireless routing mechanism and connected to the time division device, is used to execute a network disconnection process for the wireless routing mechanism when the received suspected child's online time is equal to or exceeds a set time threshold; A time-sharing acquisition device is used to perform a time-sharing acquisition operation on the working scene of the wireless routing mechanism while the wireless routing mechanism is turned on, so as to obtain respective acquisition image frames corresponding to respective acquisition moments, wherein the startup of the wireless routing mechanism is the network start time; A layer-by-layer conversion device, connected to the time-sharing acquisition device, is used to successively perform histogram equalization processing, Lanczos interpolation processing of a 4-pixel×4-pixel neighborhood, and salt-and-pepper noise removal processing on each received acquisition image frame, so as to obtain and output a corresponding layer-by-layer conversion image; a target identification device, arranged in the wireless routing mechanism and connected to the time division device and the layer-by-layer conversion device respectively, for marking the collected image frame corresponding to the layer-by-layer conversion image as a child time frame when the received layer-by-layer conversion image has a child imaging region with a number of pixels exceeding a set limit, and for marking the collected image frame corresponding to the layer-by-layer conversion image as a non-child time frame when the received layer-by-layer conversion image does not have a child imaging region with a number of pixels exceeding a set limit; Wherein, the network disconnection execution device is further used to maintain the network routing operation of the wireless routing mechanism when the received suspected child's online time is less than the set time threshold; The layer-by-layer conversion device includes a front-layer conversion unit, a middle-layer conversion unit and a last-layer conversion unit, wherein the front-layer conversion unit is used to perform histogram equalization processing on the received image data, the middle-layer conversion unit is used to perform Lanczos interpolation processing of a 4-pixel×4-pixel neighborhood on the received image data, and the last-layer conversion unit is used to perform salt and pepper noise removal processing on the received image data; Among them, the layer-by-layer conversion device includes a front layer conversion unit, a middle layer conversion unit and a last layer conversion unit, the front layer conversion unit is used to perform histogram equalization processing on the received image data, the middle layer conversion unit is used to perform Lanczos interpolation processing of a 4 pixel × 4 pixel neighborhood on the received image data, and the last layer conversion unit is used to perform salt and pepper noise removal processing on the received image data, including: the front layer conversion unit, the middle layer conversion unit and the last layer conversion unit are connected in sequence.

2. The wireless communication network management system according to claim 1, characterized in that: When the received suspected child's online time is equal to or exceeds the set time threshold, executing the network disconnection processing of the wireless routing mechanism includes: when the received suspected child's online time is equal to or exceeds two hours, executing the network disconnection processing of the wireless routing mechanism.

3. The wireless communication network management system according to claim 2, characterized in that: The system further comprises: The touch screen is used to receive user input information for the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device according to the user's operation.

4. The wireless communication network management system according to claim 2, characterized in that: The system further comprises: The pressure detection device is arranged on the outer shell of the network disconnection execution device, the time-sharing collection device, the layer-by-layer conversion device and the target identification device, and is used to measure the instantaneous pressure currently borne by the outer shell of any one of the network disconnection execution device, the time-sharing collection device, the layer-by-layer conversion device and the target identification device.

5. The wireless communication network management system according to claim 4, characterized in that: The pressure detection device is arranged on the outer shell of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device, and is used to measure the instantaneous pressure currently borne by the outer shell of any of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device, including: the pressure detection device has a built-in pressure analysis device, which is used to issue a pressure alarm instruction when the received instantaneous pressure currently borne by the outer shell of any of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device exceeds the limit.

6. The wireless communication network management system according to claim 5, characterized in that: The pressure detection device is arranged on the outer shell of the network disconnection execution device, the time-sharing collection device, the layer-by-layer conversion device and the target identification device, and is used to measure the instantaneous pressure currently borne by the outer shell of any device of the network disconnection execution device, the time-sharing collection device, the layer-by-layer conversion device and the target identification device. It also includes: the pressure detection device has a built-in pressure analysis device, which is used to issue a pressure safety instruction when the received instantaneous pressure currently borne by the outer shell of each device of the network disconnection execution device, the time-sharing collection device, the layer-by-layer conversion device and the target identification device does not exceed the limit.

7. The wireless communication network management system according to claim 6, characterized in that: The pressure detection device is arranged on the outer shell of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device, and is used to measure the instantaneous pressure currently borne by the outer shell of any one of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device. It also includes: the pressure detection device adopts multiple pressure detection units, which are used to respectively measure the instantaneous pressure currently borne by the outer shell of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device.

8. The wireless communication network management system according to claim 7, characterized in that: The pressure detection device uses multiple pressure detection units to respectively measure the instantaneous pressure currently borne by the shells of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device, including: the internal structures of the multiple pressure detection units are the same.

9. The wireless communication network management system according to claim 8, characterized in that: The pressure detection device uses a plurality of pressure detection units for respectively measuring the instantaneous pressure currently borne by the shells of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device, and further includes: the pressure measurement upper limit values ​​and the pressure measurement lower limit values ​​of the plurality of pressure detection units are respectively equal; The pressure measurement upper limit values ​​and the pressure measurement lower limit values ​​of the plurality of pressure detection units being equal respectively include: the pressure measurement upper limit value is greater than the pressure measurement lower limit value; Among them, the pressure detection device adopts multiple pressure detection units for respectively measuring the instantaneous pressure currently borne by the shells of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device, and also includes: the multiple pressure detection units are respectively installed at the bottom position of the top of the shells of the network disconnection execution device, the time-sharing acquisition device, the layer-by-layer conversion device and the target identification device and are located in the center of the bottom.

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