WO2020119732A1

WO2020119732A1 - Adjusting and testing method and apparatus for communication device networking

Info

Publication number: WO2020119732A1
Application number: PCT/CN2019/124659
Authority: WO
Inventors: 李秉荣; 方彬浩; 陈炳锐
Original assignee: 京信通信系统（中国）有限公司
Priority date: 2018-12-14
Filing date: 2019-12-11
Publication date: 2020-06-18
Also published as: CN109347706A

Abstract

The present application relates to an adjusting and testing method and apparatus for communication device networking, comprising: a master station server receives a first adjusting and testing request sent by a debugging device, debugging software being installed on the master station server, and the first adjusting and testing request being sent by the debugging device to the master station server on the basis of a first communication protocol; the master station server sends a second adjusting and testing request to a slave station device according to the first adjusting and testing request, the second adjusting and testing request being sent by the master station server on the basis of a second communication protocol between the master station server and the slave station device; the master station server receives a first feedback message sent by the slave station device, the first feedback message being sent on the basis of the second communication protocol; the master station server sends a second feedback message to the debugging device, the second feedback message being sent on the basis of the first communication protocol.

Description

Method and device for adjusting and testing communication equipment networking

Technical field

The present application relates to the field of communication technology, and in particular, to a method and a device for commissioning a communication device network.

Background technique

In the simulated communication equipment, the master-slave star network requires that the debugging software can access the equipment of the entire network to realize centralized management and monitoring, centralized opening, centralized authorization, and real-time acquisition of the communication equipment in the entire network The status of the devices in the network.

Because of the analog communication equipment, the equipment of the master station and other stations does not have IP, so the communication between the master station and the slave station uses non-IP communication. In this case, the commissioning software needs to be installed on the user terminal for commissioning the network, configure the user's local data, and then communicate with the master station to access the entire network. Therefore, the prior art commissioning process is more complicated for the user experience and inefficient.

Summary of the invention

The present application provides a method and device for commissioning and testing of communication equipment networking to simplify user operation procedures and improve user experience.

A method for commissioning a communication device network provided by an embodiment of the present application includes:

The master station server receives the first commissioning request sent by the debugging device, the commissioning software is installed on the master station server, and the first commissioning request is sent by the debugging device to the master station server based on the first communication protocol of;

The master station server sends a second commissioning request to the slave station device according to the first commissioning request, the second commissioning request is based on the second between the master server and the slave station device. Sent by communication protocol;

The master server receives the first feedback message sent by the slave device, and the first feedback message is sent based on the second communication protocol;

The master server sends a second feedback message to the debugging device, and the second feedback message is sent based on the first communication protocol;

Wherein, the first communication protocol is an IP-type communication protocol, and the second communication protocol is a non-IP-type communication protocol.

An embodiment of the present application also provides a device for commissioning a communication device network, including:

A receiving unit, configured to receive a first commissioning request sent by a debugging device, the commissioning software is installed on the server of the master station, and the first commissioning request is that the debugging device sends the commissioning device to the master station based on a first communication protocol Sent by the server;

A sending unit, configured to send a second commissioning request to the slave station device according to the first commissioning request, where the second commissioning request is based on the second between the master server and the slave station device Sent by communication protocol;

The receiving unit is further configured to receive a first feedback message sent by the slave station device, where the first feedback message is sent based on the second communication protocol;

The sending unit is further configured to send a second feedback message to the debugging device, where the second feedback message is sent based on the first communication protocol;

An embodiment of the present application also provides an electronic device, including:

At least one processor; and,

A memory communicatively connected to the at least one processor; wherein,

The memory stores instructions executable by the at least one processor, the instructions being executed by the at least one processor to enable the at least one processor to perform the method as described above.

An embodiment of the present application further provides a non-transitory computer-readable storage medium, where the non-transitory computer-readable storage medium stores computer instructions, and the computer instructions are used to cause the computer to execute the method described above.

In the embodiment of the present application, the commissioning software is installed on the master server, the communication protocol between the debugging device and the master server is the first communication protocol, and the communication protocol between the master server and the slave device is the second communication protocol , Where the first communication protocol is an IP-type communication protocol, and the second communication protocol is a non-IP-type communication protocol. The user sends the first commissioning request to the master server through the debugging device. The master server sends the second commissioning request to the slave device connected to it according to the first commissioning request. The slave device processes the second commissioning request. After that, the first feedback message is sent to the main station server, and the main station server sends a second feedback message to the debugging device, wherein the sending of the first commissioning request and the second feedback message conforms to the first communication protocol, and the second commissioning request The sending of the first feedback message conforms to the second communication protocol. Therefore, in the embodiment of the present application, the server is deployed on the master station, and the commissioning software is installed on the server of the master station. The communication between the master station and the slave station is still through the second communication protocol, and between the debugging device and the master station is through One communication protocol communication, so that there is no need to install commissioning software on the debugging device, and different commissioning devices can be used for commissioning of the entire network through the master server, which simplifies the user's processing process and improves the user experience.

BRIEF DESCRIPTION

FIG. 1 is a schematic diagram of a possible system architecture to which an embodiment of this application is applicable;

2 is a schematic flowchart of a method for commissioning a communication device network provided by an embodiment of the present application;

FIG. 3 is a schematic flowchart of a method for commissioning a communication device network provided by Embodiment 1 of the present application;

4 is a schematic flowchart of a method for commissioning a communication device network provided by Embodiment 2 of the present application;

5 is a schematic structural diagram of a commissioning device for networking of communication equipment according to an embodiment of the present application;

6 is a schematic structural diagram of an electronic device provided by an embodiment of the present application.

detailed description

A system architecture applicable to the embodiments of the present application, as shown in FIG. 1, includes a debugging device 101, a master server 102, and a slave device 103. Among them, the debugging software is installed on the master server 102, and the user accesses the master server 102 through the debugging device 101 to further achieve the purpose of accessing different slave devices.

The debugging device 101 can be an electronic device with wireless communication function such as a mobile phone, a tablet computer, or a dedicated handheld device, or a personal computer (personal computer, PC for short), notebook computer, server, or other wired access device to connect to the Internet . The master server 102 and/or the slave device 103 may be network devices such as computers. The master server 102 and/or slave device 103 may be an independent device or a server cluster formed by multiple servers. Preferably, the master server 102 and/or the slave device 103 may use cloud computing technology for information processing.

The debugging device 101 can communicate with the master server 102 through the INTERNET network, or through mobile communication systems such as the Global System for Mobile Communications (GSM), long term evolution (LTE) system, etc. The station server 102 communicates. The communication protocol between the debugging device 101 and the master server 102 is an IP-type communication protocol. Preferably, the communication protocol between the debugging device 101 and the master server 102 is HTTP (HyperText Transfer Protocol, HyperText Transfer Protocol). The application embodiment mainly uses the HTTP protocol as an example. It should be noted that the communication protocol between the debugging device 101 and the master server 102 is not limited to HTTP, but may also be other IP-type communication protocols. Do restrictions. In addition, the communication protocol between the master server 102 and the slave device 103 is a non-IP communication protocol, and the communication protocol between the master server 102 and a plurality of slave devices 103 connected thereto is the same non-IP type Communication protocol, the non-IP type communication protocol is negotiated by the master station and the slave station.

Based on the system architecture shown in FIG. 1, an embodiment of the present application provides a method for commissioning a communication device network. As shown in FIG. 2, a communication device group implemented on the master server side provided by an embodiment of the present application The network commissioning method includes the following steps:

Step 201: The master station server receives a first commissioning request sent by a debugging device, the commissioning software is installed on the master station server, and the first commissioning request is that the debugging device sends the commissioning device to the master based on the first communication protocol Station server.

Step 202: The master station server sends a second commissioning request to the slave station device according to the first commissioning request, where the second commissioning request is based on the relationship between the master server and the slave station device. Of the second communication protocol.

Step 203: The master server receives the first feedback message sent by the slave device, and the first feedback message is sent based on the second communication protocol.

Step 204: The master station server sends a second feedback message to the debugging device, where the second feedback message is sent based on the first communication protocol.

The following describes the networking commissioning method in the embodiments of the present application in detail from the aspects of creation of a master-slave network, access to a slave station, and management of a slave station.

The embodiment of the present application deploys an embedded network system in the server of the master station, so as to satisfy the IP-type communication protocol with the debugging device. During the creation of the network, the first commissioning request is a device scan request. The creation process includes:

The master server receives the device scanning request sent by the debugging device, and the device scanning request is sent by the debugging device to the master server based on the first communication protocol;

The master server sends a file acquisition request to all slave devices;

The master server receives the page file and database file sent from the slave device;

The master server stores the page file and database file of the slave device, and stores the corresponding device identifier in the device management list;

The master server shows all slave devices to the debugging device.

In the process of the specific embodiment, the network commissioning software is deployed in the server of the master station, and the web page information and database information of all slave stations are stored in the database of the master station. The user can connect to the master server through any debugging equipment, so as to access or manage the slave station. Specifically, you first need to create a master-slave network, that is, store data from the slave station to the master station. The debugging device sends a device scanning request to the master server through HTTP to collect page information and database information of all slave stations. According to the received device scanning request, the master server sends a file acquisition request to all slave devices connected to it to obtain the page file and database file of the slave station. After receiving the page file and database file of the slave station device, the master server performs classification storage and writes the device identification of the slave station device into the device management list.

For example, in the embedded network system of the master server, the network system can be divided into multiple folder structures, such as server, html, js, resource, plugins, database, exec, and otherStation. The folder otherStation contains folders dev01 to devN, where dev01 corresponds to slave station 01, dev02 corresponds to slave station 02, and so on, devN corresponds to slave station N. Each dev folder contains folders html, js, resource, database. In this way, the entire folder structure becomes a network system for the master-slave network. Among them, the server stores the embedded network system files of the main station, html stores the html files of the main station, js stores the js files of the main station, the resource folder stores the resource files of the main station, plugins stores some external plug-ins and external frameworks, database stores The database file, exec stores the background executable file cgi of the master station server, and otherStation stores the web page file of each slave station. After that, the master server shows the master-slave networking system to users in the form of topology.

After collecting the page files and database files of the slave station, the master server displays the entire master-slave networking system in the form of topology. The network topology has information such as the alarm status, device number, production serial number and remarks of each slave station. . Among them, the alarm status is displayed in the form of an alarm indicator.

The user can access the slave station device through the network topology. At this time, the first commissioning request sent by the commissioning device to the master server is an access request. The specific process for the user to access the slave device includes:

The master server receives the access request sent by the debugging device, and the access request is sent by the debugging device to the master server based on the first communication protocol;

The master server converts the format of the access request so that the access request conforms to the format of the second communication protocol;

The master server broadcasts the access request, and the access request includes the identity of the accessed slave device;

The master server receives the access feedback message sent by the slave device. The access feedback message is a response message sent by the slave device to the master server after determining that the slave device matches the identifier of the slave device according to the received access request;

The master server converts the format of the access feedback message so that the access feedback message conforms to the format of the first communication protocol;

The master server sends an access feedback message to the debugging device.

In the specific implementation process, when accessing the slave device, the debugging device sends an access request to the master server, and the access request complies with HTTP. Specifically, the user clicks the icon in the network topology to link to the corresponding slave device, and the link address is: http://IP/web/otherStation/dev03/device.html. Among them, IP is the IP address of the master server, and dev03 means accessing the page of slave device 03. After jumping to the above page, the front end of the master server sends an access request to the background through AJAX, and the access request contains the device identification of the accessed slave device. After receiving the access request in the background, the access request in xml format or json format is converted into a message that meets the communication protocol of the master and slave stations, and is carried out through HDLC (High-Level Data Link Control) broadcast. The slave device obtains the access request broadcast by the master server in the background, and determines whether it is the access object of the access request through the device identifier of the slave device carried in the access request, and only the slave device corresponding to the access request responds the data to the master Station server background. The master server receives the access feedback message sent by the slave device, converts the format of the access feedback message into xml format or json format, and responds to the front end. The front end then displays the data to the user. The user can perform operations such as management and setting of the slave station based on the acquired data. Due to the diversity of slave devices, different pages can be designed for different types of slave stations to meet the requirements of distinguishing different device types and personalization.

Further, in the embodiment of the present application, the commissioning device manages the slave stations in the network through the master server, which may specifically include device addition, device removal, device replacement, and the like.

For new equipment, you can send a device scan request to the master server to obtain the page file and database file of the new slave device. That is, when a new device is connected, the scan function of the master server is triggered. The master server assigns a new device number to the newly added slave device and uses the network creation process to obtain the newly accessed slave device Web page files and database files, and add the number of the new slave device to the device management list.

For device removal, embodiments of the present application include:

The master server receives a device removal request sent by the debugging device;

The master server deletes the slave device corresponding to the device removal request from the device management list, and deletes the corresponding page file and database file in the local storage.

Specifically, when the slave device is removed from the network, the user accesses the device management page of the master server through the debugging device. For example, the operation that the user can perform is to click the slave device to be removed, and after deleting the dialog box, click the Delete button. After receiving the removal request, the front end of the master server sends the removal request to the background program. The data format of the removal request can be xml or json. The background program deletes the folder of the corresponding slave device in otherStation, that is, deletes the page file of the slave device, deletes the database file of the slave device, and deletes the device identification of the slave device from the device management list. When the slave device is removed, the user cannot access the slave device.

For device replacement, it can be regarded as simultaneous device removal and device addition, which will not be repeated here.

Further, the management of the slave device also includes device data update, device upgrade, device calibration and station opening, and device authorization.

The commissioning device can send a status display request to the master server to determine the status of each slave device, whether there are new or deleted slave devices, and whether the slave device data is updated. For data update, the specific process includes the following steps:

The master server receives the status display request sent by the debugging device, and the status display request is sent by the debugging device to the master server based on the first communication protocol;

The master server obtains the first verification code of the slave device from the local storage;

The master station server sends the second commissioning request to the slave station device, where the second commissioning request includes the first verification code;

The master server receives the unupdated feedback sent by the slave device. The unupdated feedback is sent when the slave device determines that the first check code is the same as the second check code stored in the slave device; or, the master server receives the slave Update feedback sent by the station device. The update feedback includes the updated page file and/or database file of the slave device. The update feedback determines that the first check code is not the same as the second check code stored in the slave device. Sent at the same time;

The master server shows the slave device to the debugging device.

In the specific implementation process, after receiving the status display request sent by the debugging device, the master server obtains the page file and database file of the slave device. The master server searches for the page files and database files of the slave devices one by one under the local otherStation according to the assigned device ID. If the page file and database file of the slave device are found, the master server obtains the first check code of the slave device from the local storage, such as a CRC (Cyclic Redundancy Check, Cyclic Redundancy Check) code, and sends it to Slave equipment. After receiving the CRC code, the slave device compares it with the CRC code stored by itself. When the page file and/or database file in the slave device is not updated, the CRC code remains unchanged; when the page file and/or database file in the slave device is updated, the CRC code is also updated accordingly, so , You can know whether the file is updated by comparing the CRC code. When the page file and/or database file in the slave device is not updated, respond to the feedback that the master server is not updated, and carry the CRC code that is not updated; when the page file and/or database file in the slave device is updated, Package the updated file and send it to the master server, and carry the new CRC code at the same time. After receiving the message from the slave device, the master server checks the CRC code, and if it is inconsistent, it updates the slave file stored in the master server. After that, the master server shows the status of the slave device to the debugging device. Specially, when the link between a slave station device and the master server is broken, the link topology of the slave station device can be displayed through the network topology to inform the user that the slave station device cannot be accessed.

For the upgrade of the slave device, the debugging device selects the corresponding slave device on the network topology, and uploads the upgrade software to the master server through the file control. After the upload is completed, the front end of the master server sends an upgrade notification and the corresponding slave device identification to the background. Read the file uploaded by the debugging device in the background, and then broadcast it to the corresponding slave device through HDLC, so that the slave device can upgrade the software.

After the slave device completes the software upgrade, the above data update steps need to be performed to determine whether the page file and database file of the slave device have changed. If there is a change, the master server reacquires the page file and database of the slave device file.

For the calibration of the slave device, the debugging device sends a calibration request to the master server, and the calibration request includes the standard frequency band and the input power of the standard frequency band. The specific process of equipment calibration includes the following steps:

The master server receives the calibration request sent by the debugging device, and the calibration request is sent by the debugging device to the master station server based on the first communication protocol;

The master server obtains the frequency bands of all slaves from local storage;

The master server matches all the frequency bands of the slave stations with the standard frequency bands, and determines the slave stations to be calibrated which are in accordance with the standard frequency band

The master server sends a calibration start command to the slave station to be calibrated. The calibration start command includes the input power of the standard frequency band, so that the slave station to be calibrated performs calibration according to the input power of the standard frequency band.

In the specific implementation process, the user controls all the slave devices through the master server, and can calibrate all the slave devices in the same frequency band at one time, so that the target power of the slave devices meets the user's requirements. The calibration of the slave device sends the input power of a frequency band to the master server through the debugging device. The master server obtains all the frequency bands of all the slave stations from the storage and matches the received calibration frequency band. The slave device with the channel As a slave to be calibrated. When the calibration is started, the master server sends the calibration start commands to the slave stations to be calibrated one by one, so that the slave devices can be calibrated to reach the output target power. This calibration method simplifies the calibration process and facilitates the opening and use of slave devices.

In addition, in the embodiment of the present application, the slave station device may be authorized by the master station server to control the slave station device to open a frequency band purchased for purchase. When the authorization of the slave station device is turned on, the unopened frequency band will be hidden on the network topology of the master station server.

In order to understand this application more clearly, the following process will be described in detail with specific embodiments. Embodiment 1 is a process of creating a master-slave network and user access to a slave station. Specific steps are shown in FIG. 3 and include:

Step 301: The debugging device sends a scan request to the master server.

Step 302: The master server sends a file acquisition request to all slave devices connected to it according to the received device scan request.

Step 303: The slave device sends the page file and the database file to the master server.

Step 304: After receiving the page file and database file of the slave station device, the master server performs classification storage, and writes the device identification of the slave station device into the device management list.

Step 305: The master server sends a scan request feedback to the debugging device, and displays the entire master-slave networking system to the debugging device through the network topology.

Step 306: The debugging device sends an access request to the master server through HTTP, and the access request includes the device identification of the accessed slave device.

Step 307: The master server converts the format of the access request into a message that satisfies the communication protocol of the master slave.

Step 308: The master server broadcasts the access request, and the access request includes the identity of the accessed slave device.

Step 309: The slave device obtains the access request, and determines the access object of the access request by identifying the device identifier of the slave device carried in the access request.

Step 310: The slave device sends an access feedback message to the master server, and the slave device is the access object of the access request.

Step 311: The master server converts the received access feedback message into a xml format or a json format.

Step 312: The master server sends an access feedback message to the debugging device via HTTP.

Embodiment 2 The master station server manages the slave station equipment. The specific steps are shown in FIG. 4 and include:

Step 401: The debugging device sends a device removal request to the master server, where the device removal request includes the device identifier of the slave device.

Step 402: The master server deletes the folder corresponding to the slave device according to the device identifier, and deletes the device identifier of the slave device from the device management list.

Step 403: The master server sends device removal feedback to the debugging device.

Step 404: The debugging device sends a status display request to the master server based on HTTP.

Step 405: The master server obtains the first CRC code of the slave device from the local storage.

Step 406: The master server sends a status display request from the slave device. The status display request includes the first CRC code.

Step 407: The slave device compares the received first CRC code with the second CRC code stored by itself. If the two are the same, step 408 is executed, otherwise step 409 is executed.

Step 408: The slave device sends unupdated feedback to the master server.

Step 409: The slave device sends update feedback to the master server, and the update feedback includes the updated page file and/or database file of the slave device.

Step 410: The master server shows the slave device to the debugging device.

An embodiment of the present application also provides a device for commissioning a communication device network, as shown in FIG. 5, including:

The receiving unit 501 is configured to receive a first commissioning request sent by a debugging device, the commissioning software is installed on the server of the master station, and the first commissioning request is that the debugging device sends a request to the master based on the first communication protocol Station server;

The sending unit 502 is configured to send a second commissioning request to the slave station device according to the first commissioning request, where the second commissioning request is based on the first request between the master server and the slave station device. Sent by two communication protocols;

The receiving unit 501 is further configured to receive a first feedback message sent by the slave station device, where the first feedback message is sent based on the second communication protocol;

The sending unit 502 is further configured to send a second feedback message to the debugging device, where the second feedback message is sent based on the first communication protocol;

Further, the first commissioning request is a device scanning request;

The sending unit 502 is also used to send a file acquisition request to all slave station devices;

The receiving unit 501 is also used to receive the page file and the database file sent from the station device;

It also includes a processing unit 503 for storing the page file and database file of the slave device, and storing the corresponding device identification in the device management list;

The sending unit 502 is also used to show all slave devices to the debugging device.

Further, the receiving unit 501 is further configured to receive a device removal request sent by the debugging device;

The processing unit 503 is further configured to delete the slave device corresponding to the device removal request from the device management list, and delete the corresponding page file and database file in the local storage.

Further, the first commissioning request is a status display request;

The processing unit 503 is also used to obtain the first verification code of the slave device from the local storage;

The sending unit 502 is further configured to send the second commissioning request to the slave station device, where the second commissioning request includes the first verification code;

The receiving unit 501 is further configured to receive unupdated feedback sent by the slave station device, where the unupdated feedback determines the first check code and the first stored in the slave station device by the slave station device. Sent when the two check codes are the same; or receiving update feedback sent by the slave device, where the update feedback includes the page file and/or database file updated by the slave device, and the update feedback is the slave The station device determines that the first check code is different from the second check code stored in the slave device;

The sending unit 502 is further configured to show the slave device to the debugging device according to the first feedback message.

Further, the first commissioning request is an access request;

The processing unit 503 is further configured to convert the format of the access request so that the access request conforms to the format of the second communication protocol;

The sending unit 502 is further configured to broadcast the access request, where the access request includes the identity of the accessed slave device;

The receiving unit 501 is further configured to receive an access feedback message sent by the slave station device, where the access feedback message determines that the slave station device matches the identifier of the slave station device according to the received access request Response message sent to the master station server later;

The processing unit 503 is further configured to convert the format of the access feedback message so that the access feedback message conforms to the format of the first communication protocol;

The sending unit 502 is further configured to send the access feedback message to the debugging device.

Further, the first commissioning request is a calibration request, and the calibration request includes a standard frequency band and input power of the standard frequency band;

The processing unit 503 is also used to obtain the frequency bands of all the slave stations from local storage; match the frequency bands of all the slave stations with the standard frequency band, and determine the slave station to be calibrated that matches the standard frequency band;

The sending unit 502 is further configured to send a calibration start command to the slave station to be calibrated, where the calibration start command includes the input power of the standard frequency band, so that the slave station to be calibrated according to the standard frequency band Input power for calibration.

Based on the same principle, this application also provides an electronic device, as shown in FIG. 6, including

It includes a processor 601, a memory 602, a transceiver 603, and a bus interface 604, where the processor 601, the memory 602, and the transceiver 603 are connected through a bus interface 604;

The processor 601 is configured to read the program in the memory 602 and execute the following methods:

Receiving a first commissioning request sent by a debugging device, the commissioning software is installed on the master station server, and the first commissioning request is sent by the debugging device to the master station server based on a first communication protocol;

Sending a second commissioning request to the slave station device according to the first commissioning request, where the second commissioning request is sent by the master server based on a second communication protocol with the slave station device;

Receiving a first feedback message sent by the slave station device, where the first feedback message is sent based on the second communication protocol;

Sending a second feedback message to the debugging device, where the second feedback message is sent based on the first communication protocol;

Claims

A commissioning method for communication equipment networking, including:

The master station server receives the first commissioning request sent by the debugging device, the commissioning software is installed on the master station server, and the first commissioning request is sent by the debugging device to the master station server based on the first communication protocol of;

The master station server sends a second commissioning request to the slave station device according to the first commissioning request, the second commissioning request is based on the second between the master server and the slave station device. Sent by communication protocol;

The master server receives the first feedback message sent by the slave device, and the first feedback message is sent based on the second communication protocol;

The master server sends a second feedback message to the debugging device, and the second feedback message is sent based on the first communication protocol;

Wherein, the first communication protocol is an IP-type communication protocol, and the second communication protocol is a non-IP-type communication protocol.
The method according to claim 1, wherein the first commissioning request is a device scan request;

The master station server sends a second commissioning request to the slave device according to the first commissioning request, including:

The master server sends a file acquisition request to all slave devices;

The receiving of the first feedback message sent by the slave station device by the master station server includes:

The master server receives the page file and database file sent from the slave device;

After the master server receives the first feedback message sent by the slave device, before the master server sends the second feedback message to the debugging device, the method further includes:

The master server stores the page file and database file of the slave device, and stores the corresponding device identifier in the device management list;

The master server sends a second feedback message to the debugging device, including:

The master server shows all slave devices to the debugging device.
The method of claim 2, further comprising:

The master server receives a device removal request sent by the debugging device;

The master server deletes the slave device corresponding to the device removal request from the device management list, and deletes the corresponding page file and database file in the local storage.
The method according to claim 1, wherein the first commissioning request is a status display request;

Before sending the second commissioning request to the slave station device according to the first commissioning request, the master station server further includes:

The master server acquires the first verification code of the slave device from local storage;

The master server sending a second commissioning request to the slave device includes:

The master station server sends the second commissioning request to the slave station device, where the second commissioning request includes the first verification code;

The receiving of the first feedback message sent by the slave station device by the master station server includes:

The master server receives unupdated feedback sent by the slave device, the unupdated feedback determines the first check code and the second check code stored in the slave device for the slave device Sent at the same time; or

The master server receives update feedback sent by the slave device, the update feedback includes a page file and/or database file updated by the slave device, and the update feedback determines that the slave device Sent when the first check code is different from the second check code stored in the slave station device;

The master server sending a second feedback message to the debugging device includes:

The master station server displays the slave station device to the debugging device according to the first feedback message.
The method of claim 1, wherein the first commissioning request is an access request;

The master station server sending a second commissioning request to the slave station device according to the first commissioning request includes:

The master server performs format conversion of the access request so that the access request conforms to the format of the second communication protocol;

The master server broadcasts the access request, and the access request includes the identifier of the accessed slave device;

The receiving of the first feedback message sent by the slave station device by the master station server includes:

The master station server receives an access feedback message sent by the slave station device, where the access feedback message is determined by the slave station device according to the received access request and after matching with the identifier of the slave station device. The response message sent by the master server;

The master station server sends a second feedback message to the debugging device, further including:

The master server converts the format of the access feedback message so that the access feedback message conforms to the format of the first communication protocol;

The master server sends the access feedback message to the debugging device.
The method according to claim 1, wherein the first commissioning request is a calibration request, and the calibration request includes a standard frequency band and input power of the standard frequency band;

Before sending the second commissioning request to the slave station device according to the first commissioning request, the master station server further includes:

The master station server obtains the frequency bands of all slave stations from local storage;

The master station server matches the frequency bands of all the slave stations with the standard frequency band, and determines the slave station to be calibrated that matches the standard frequency band;

The master station server sends a second commissioning request to the slave device according to the first commissioning request, including:

The master server sends a calibration start command to the slave station to be calibrated, the calibration start command includes the input power of the standard frequency band, so that the slave station to be calibrated performs calibration according to the input power of the standard frequency band .
A commissioning device for communication equipment networking, including:

A receiving unit, configured to receive a first commissioning request sent by a debugging device, the commissioning software is installed on the server of the master station, and the first commissioning request is that the debugging device sends the commissioning device to the master station based on a first communication protocol Sent by the server;

A sending unit, configured to send a second commissioning request to the slave station device according to the first commissioning request, where the second commissioning request is based on the second between the master server and the slave station device Sent by communication protocol;

The receiving unit is further configured to receive a first feedback message sent by the slave station device, where the first feedback message is sent based on the second communication protocol;

The sending unit is further configured to send a second feedback message to the debugging device, where the second feedback message is sent based on the first communication protocol;

Wherein, the first communication protocol is an IP-type communication protocol, and the second communication protocol is a non-IP-type communication protocol.
The apparatus according to claim 7, wherein the first commissioning request is a device scanning request;

The sending unit is also used to send a file acquisition request to all slave station devices;

The receiving unit is also used to receive the page file and database file sent from the station device;

It also includes a processing unit for storing the page file and database file of the slave device, and storing the corresponding device identification in the device management list;

The sending unit is also used to show all slave devices to the debugging device.
The device of claim 8, wherein

The receiving unit is further configured to receive a device removal request sent by the debugging device;

The processing unit is further configured to delete the slave device corresponding to the device removal request from the device management list, and delete the corresponding page file and database file in the local storage.
The apparatus according to claim 7, wherein the first commissioning request is a status display request;

The processing unit is also used to obtain the first verification code of the slave device from the local storage;

The sending unit is further configured to send the second commissioning request to the slave station device, where the second commissioning request includes the first verification code;

The receiving unit is further configured to receive unupdated feedback sent by the slave station device, where the unupdated feedback determines the first check code and the second stored in the slave station device for the slave station device Sent when the check codes are the same; or receiving update feedback sent by the slave device, where the update feedback includes the page file and/or database file updated by the slave device, and the update feedback is the slave When the device determines that the first check code is different from the second check code stored in the slave device;

The sending unit is further configured to show the slave station device to the debugging device according to the first feedback message.
The apparatus according to claim 7, wherein the first commissioning request is an access request;

The processing unit is further configured to convert the format of the access request so that the access request conforms to the format of the second communication protocol;

The sending unit is further configured to broadcast the access request, where the access request includes the identity of the accessed slave device;

The receiving unit is further configured to receive an access feedback message sent by the slave station device, where the access feedback message is determined by the slave station device to match the identifier of the slave station device according to the received access request A response message sent to the master server;

The processing unit is further configured to convert the format of the access feedback message so that the access feedback message conforms to the format of the first communication protocol;

The sending unit is further configured to send the access feedback message to the debugging device.
The apparatus according to claim 7, wherein the first commissioning request is a calibration request, and the calibration request includes a standard frequency band and input power of the standard frequency band;

The processing unit is also used to obtain the frequency bands of all the slave stations from local storage; match the frequency bands of all the slave stations with the standard frequency bands, and determine the slave stations to be calibrated corresponding to the standard frequency bands;

The sending unit is further configured to send a calibration start command to the slave station to be calibrated, the calibration start command including the input power of the standard frequency band, so that the slave station to be calibrated according to the input of the standard frequency band Power calibration.
An electronic device, including:

At least one processor; and,

A memory communicatively connected to the at least one processor; wherein,

The memory stores instructions executable by the at least one processor, the instructions being executed by the at least one processor to enable the at least one processor to perform the method of any one of claims 1-6 .
A non-transitory computer-readable storage medium, the non-transitory computer-readable storage medium stores computer instructions, and the computer instructions are used to cause the computer to perform the method according to any one of claims 1 to 6.