WO2018157588A1

WO2018157588A1 - Firmware burning method, system, computer device and storage medium

Info

Publication number: WO2018157588A1
Application number: PCT/CN2017/102979
Authority: WO
Inventors: 陈亮
Original assignee: 百富计算机技术（深圳）有限公司
Priority date: 2017-02-28
Filing date: 2017-09-22
Publication date: 2018-09-07
Also published as: CN106970810B; CN106970810A

Abstract

The present application relates to a firmware burning method, comprising: each control board acquiring a corresponding network protocol (IP) address, there being at least two control boards, each control board comprising a corresponding communication interface; according to the corresponding IP address, the control board acquiring a work instruction sent by an upper computer; according to the corresponding work instruction, the control board acquiring a corresponding file to be burned; and the control board invoking, by means of the corresponding communication interface, a corresponding Android debug bridge (ADB) to burn and write the file to be burned, into the corresponding terminal to be burned.

Description

Firmware burning method, system, computer device and storage medium

The present application claims priority to Chinese Patent Application Serial No. JP-A-------------

Technical field

The present application relates to the field of electronic technologies, and in particular, to a firmware burning method, system, computer device, and storage medium.

Background technique

In the field of electronic technology, especially in the field of embedded technology, firmware burning is often required. Firmware refers to the program code that is solidified inside the integrated circuit. It is responsible for controlling and coordinating the functions of the integrated circuit of the electronic device. The electrically erasable read-only memory EEPROM (Electrically Erasable Programmable ROM) is generally stored in the device. Programmable read-only memory) or FLASH chip.

Generally, a programming system of a terminal such as a POS (point of sale) machine usually includes a PC (personal computer) host computer, a PCI (Peripheral Component Interconnect), a USB expansion card, The burning software is composed of a terminal to be burned. Usually, an ADB (Android Debug Bridge) client is installed on the PC, and an ADB server is installed in each POS terminal. Due to the requirements of industrialization, it is often necessary to simultaneously burn multiple POS terminals on the production line. When directly burning multiple terminals through the USB interface on the PC for burning, the PC needs to call the ADB client and the ADB service in the POS terminal. When the ADB client is connected to a pair of multiple terminal applications, there is obvious resource competition when the POS terminal burns resources. That is, when the PC successfully connects multiple POS programs, each POS burning time is obvious. More than the burning time of a single POS, eventually the overall POS burning process is inefficient.

Summary of the invention

In accordance with various embodiments of the present application, a firmware programming system, method, computer device, and storage medium are provided.

A firmware burning method, the method comprising:

Each control board obtains a corresponding network protocol IP address, and the number of the control boards is at least two, and each of the control boards includes a corresponding communication interface;

The control board acquires a work instruction sent by the host computer according to the corresponding IP address;

The control board acquires a corresponding file to be burned according to the corresponding work instruction; and

The control board invokes the corresponding Android debugging bridge ADB to write the to-be-burned file to the corresponding to-be-burned terminal through the corresponding communication interface.

A firmware burning system, the system comprising: a first communication module and a first main control module, wherein the first main control module is connected to the first communication module, and the first main control module comprises at least two Each of the control boards is connected to the first communication module, and each of the control boards includes a corresponding communication interface, and each of the control boards can pass through a corresponding one. The communication interface is connected to the terminal to be burned;

The first communication module is configured to communicate with the upper computer by the first main control module, and allocate a corresponding network protocol IP to each of the control boards of the upper computer and the first main control module. Address; and

The control board is configured to receive, according to the corresponding IP address, a corresponding work instruction sent by the host computer by using the first communication module, and obtain a corresponding file to be burned according to the work instruction, and pass the corresponding The communication interface calls the burning tool and the Android debugging bridge ADB to burn the to-be-burned file into the corresponding to-be-burned terminal.

A computer device comprising a memory and a processor, the memory storing computer readable instructions, the instructions being executed by the processor, causing the processor to perform the following steps:

Each control board obtains a corresponding network protocol IP address, and the number of the control boards. At least two, each of the control boards includes a corresponding communication interface;

The control board obtains a work instruction sent by the host computer according to the corresponding IP address;

And causing the control board to obtain a corresponding file to be burned according to the corresponding work instruction;

Through the corresponding communication interface, the control board invokes the corresponding burning tool and the Android debugging bridge ADB to write the to-be-burned file into the corresponding to-be-burned terminal.

One or more computer readable non-volatile storage media storing computer readable instructions, when executed by one or more processors, cause the one or more processors to perform the steps of:

Details of one or more embodiments of the present application are set forth in the accompanying drawings and description below. Other features, objects, and advantages of the invention will be apparent from the description and appended claims.

DRAWINGS

In order to more clearly illustrate the technical solutions in the embodiments of the present application, the drawings to be used in the embodiments will be briefly described below. Obviously, the drawings in the following description are only some embodiments of the present application, Those skilled in the art can also obtain other drawings based on these drawings without any creative work.

1 is a hardware environment diagram of a firmware burning method in an embodiment;

2 is a flow chart of a firmware burning method in an embodiment;

3 is a flow chart of a firmware burning method in another embodiment;

4 is a flow chart of a firmware burning method in another embodiment;

5 is a structural block diagram of assigning an IP address to each control board in an embodiment;

6 is a structural block diagram of a firmware burning system in another embodiment;

7 is a schematic diagram of an interface for assigning an IP address to each control board in another embodiment;

FIG. 8 is a schematic diagram of a log interface of a control board burning process in an embodiment; FIG.

FIG. 9 is a block diagram showing the internal structure of a control board in an embodiment.

detailed description

In a specific embodiment, the hardware environment of the firmware burning method is as shown in FIG. 1 , and includes a host computer 110 , a control board module 120 , and a to-be-programmed terminal module 130 , wherein the control board module 120 includes at least two The control board includes a plurality of terminals to be burned, and each of the terminals to be burned can communicate with each control board, and the communication manner includes not limited to a universal serial bus interface (USB) (Universal Serial Bus, The host computer 110 can communicate with each of the control boards of the control board module 120, including but not limited to, at least one of a wireless network communication WiFi, a serial communication interface, and an Ethernet communication interface. Wired Ethernet communication method and wireless network communication method WiFi.

Wherein, in a specific embodiment, the hardware configuration of the control board is as follows:

Table 1

In one embodiment, a firmware burning method is provided, which is applied to the above hardware environment, as shown in FIG. 2, and includes the following steps:

In step S210, each control board obtains a corresponding network protocol IP address, and the number of control boards is at least two, and each control board includes a corresponding communication interface.

Specifically, the upper computer and the control board module can perform network communication through the network communication device, and each control board in the upper computer and the control board module is in the same local area network, and the corresponding network communication device can be used. The corresponding network protocol IP address is assigned to each control board. In this way, the upper computer can communicate with each of the control boards. The number of control boards in the control board module can be set as required, but many In two. In addition, the number of control board modules can also be multiple. The newly added control board module can be connected to the upper-level control board module through the network communication interface, so as to realize network communication with the upper computer, or directly The upper computer is connected to the network through the network interface. Similarly, each control board and the upper computer in the newly added control board are in the same local area network. The upper computer can communicate with each of the control boards. .

In addition, each control board has a corresponding communication interface, including but not limited to a USB interface, a WiFi interface, a serial communication interface, and an Ethernet communication interface, through which each control board can be treated The programming terminal communicates.

In a specific embodiment, the upper computer is a PC, the number of the control board modules is one, each control board module includes four control boards, and the network communication device is an Ethernet switch, and each control board is The Ethernet switch is connected, and the IP address is assigned to the host computer and each control board through the Ethernet switch. The IP address of the host computer is set to 192.168.100.10, and the IP address is assigned to the control board in the order of the control board. That is, 192.168.100.20, 192.168.100.21, 192.168.100.22, and 192.168.100.23. Thus, each control board and the upper computer are in the same local area network, and the upper computer can communicate independently with each control board. That is, each control board can be accessed independently after each control board system is started. If you add an identical control board module and connect to the switch or the upper-level control board module through the Ethernet interface, the corresponding IP address is assigned to the Ethernet switch, which is 192.168.100.24 and 192.168.100.25. 192.168.100.26 and 192.168.100.27, and so on, the rest are the same.

Step S220: The control board acquires a work instruction sent by the host computer according to the corresponding IP address.

Specifically, the IP address of the host computer can be set by the network communication device according to the requirement, so that the upper computer and each control board are in the same local area network, so that after each control board is started, Each control board communicates with the host computer as a server. The host computer can send corresponding work instructions to the control board. The work command is determined by the host computer according to the acquired input parameters.

Step S230: The control board acquires a corresponding file to be burned according to the corresponding work instruction.

Specifically, the work instruction includes a corresponding to-be-installed file, a check code, and a burning sequence corresponding to the file, wherein the check code may adopt an MD5 check code, and the control board receives the corresponding work instruction, and receives the corresponding machine to send the corresponding The file to be burned is stored and stored.

In one embodiment, the to-be-burned file includes: an initial boot software bootloader, a configuration file, a boot logo file, an operating system kernel OS (OS), and a terminal application.

In step S240, the control board invokes the corresponding burning tool and the Android debugging bridge ADB to write the to-be-burned file to the corresponding to-be-burned terminal through the corresponding communication interface.

Specifically, each control board has a corresponding communication interface connected to the terminal to be burned, and obtains After the corresponding file to be burned, the control board completes the burning of the basic file of the terminal to be burned by first calling the corresponding burning tool. Since the control board is installed with the ADB client, the ADB server is installed on the terminal to be burned. The control board communicates with the terminal to be burned by calling the ADB client, and can further write the corresponding application to the terminal to be burned.

In one embodiment, the control board is connected to the terminal to be burned by USB, and the file to be burned includes basic files such as an initial running software bootloader, a configuration file, a boot logo file, and an operating system kernel OS, wherein the bootloader refers to embedding. The first software running during system startup is used to initialize the hardware and load the operating system kernel. The control board completes the burning of the above basic files by first calling the corresponding burning tool such as Flashwrite tool. Further, by calling the ADB client. The terminal communicates with the terminal to be burned, and writes the corresponding application software in the file to be burned to the terminal to be burned.

The above-mentioned programming method obtains the corresponding network protocol IP address by each control board, and the number of the control boards is at least two. Each control board includes a corresponding communication interface, and the control board is controlled according to the corresponding IP address. Obtain the work command sent by the host computer, and control the board to obtain the corresponding file to be burned according to the corresponding work command, and control the board to call the corresponding burning tool and the Android debugging bridge ADB to be burned through the corresponding communication interface. The programming is written to the corresponding terminal to be burned, so that each control board can separately call the ADB client to perform file burning, and the number of control boards can be arbitrarily added and configured as needed, so that the same can be simultaneously burned. A plurality of terminals overcome the shortcomings of inefficiency in the burning process caused by resource competition of multiple terminals in a pair of multiple terminal application scenarios in the ADB client end face, improve the burning efficiency, and meet the requirements of industrial production.

In an embodiment, the method further includes: at a first preset time, the control board feeds back the corresponding current work instruction to the upper computer, so that the upper computer determines whether the corresponding current work instruction needs to be updated and obtains a corresponding As a result of the first determination, the control board receives the corresponding first determination result returned by the upper computer, and according to the corresponding first determination result, if the work instruction needs to be updated, the process proceeds to step S220, otherwise, the control is performed every first preset time. The board returns the corresponding current work command to the upper computer.

Specifically, after the control board system is started, the upper computer reads and controls every preset time interval. The current command corresponding to the board, the control board feeds the corresponding current work command to the host computer, so that the host computer checks whether the current work command needs to be updated, and obtains the corresponding first judgment result, and the control board receives the corresponding return of the host computer. The first determination result is based on the first determination result, and if yes, the process proceeds to step S220 to acquire the latest work instruction, and if not, the process proceeds to step S250.

In a specific embodiment, each control board module includes four control boards, and the IP address of the host computer is set to 192.168.100.10, and the IP address is assigned to the control board in the order of priority. #:192.168.100.20, 2#: 192.168.100.21, 3#: 192.168.100.22 and 4#: 192.168.100.23, so that the host computer runs through the console software named "controller.exe" and accesses it by using CURL. Control the RESTFUL API communication interface corresponding to the board to read the work instruction. The format of the control command corresponding to "controller.exe" is:

Controller.exe ID=1, File_n=filename_n, File_n_type=type_1, etc.

The ID is the number of the board in each system and corresponds to the IP address of the board. The IP address of the board with ID=1 is 192.168.100.20, and the IP address of the board with ID=2 is 192.168.100.21. The IP address of the board with ID=6 is 192.168.100.27; File_n indicates the number is n. The file path to be installed or burned is required to be uploaded to the control board. n is a positive integer. File_n_type indicates the type of the nth file to be burned.

The process of reading the control board work instruction with the label 1# is as follows, where CURL is an open source file transfer tool that works in the command line mode by using the URL syntax.

The access command of the upper computer to read the control board 1# work instruction is:

CURL http://192.168.100.20/api/instruction.

The board returns data as follows.

Where "app_name" indicates the name of the currently burning application software file, "app_md5_value" indicates the consistency verification code of the currently burned file name (using the MD5 algorithm), and "configuration_file_name" indicates the configuration file in the current burning file, "configuration_md5_value" Indicates the corresponding consistency check code (using the MD5 algorithm), "OS_file_name" indicates the operating system kernel of the currently burned file, and "os_md5_value" indicates the consistency check code corresponding to the operating system of the currently burned file (using the MD5 algorithm) "logo_file_name" indicates the name of the boot logo file.

That is, the current work order contains the file name and MD5 code value that need to be burned configuration file, boot logo image, operating system and application software. Since the initial boot software bootloader and pubso (application software depends on the dynamic library) do not need to be installed, the values are all no.

Similarly, the command to access the 2# control board is: CURL http://192.168.100.30/api/instruction, and so on, that is, the host computer can query the current status of the control board according to the IP address of each control board. Work instructions.

In an embodiment, as shown in FIG. 3, before step S240, the method further includes:

In step S250, the control board detects whether the corresponding terminal to be burned is accessed. If yes, the process proceeds to step 240. If no, the process proceeds to step S250.

In one embodiment, the control board includes a distributed cache module and an agent component, and step S220 includes: according to the corresponding IP address, the agent component receives the corresponding work instruction, and sends the work instruction to the distributed cache module for storage. .

Specifically, the control board adopts a distributed cache module and an agent component, and according to the corresponding IP address, the control board processor first sends a work instruction request to the agent component after receiving the work instruction request sent by the host computer, and then The work order request is updated to the distributed cache module for storage by the agent component.

The use of the agent component reduces the coupling between the software modules of the control board, and the distributed cache module improves the response speed and operation efficiency of the entire system of the control board.

In a specific embodiment, the agent component employs a broker component and the distributed cache module employs a distributed caching system. The agent component in the control board adopts the broke mode component. The communication protocol between the control board and the host computer adopts the HTTP protocol. The processor in the control board serves as the HTTP server to provide access services for the upper computer and control the board. After receiving the request sent by the upper computer, the HTTP server passes the data request to the broke mode component, and the broke mode component updates the work instruction to the distributed cache module according to the content of the request, and controls the board according to the work instruction. The obtained file to be burned is copied to the specified file path.

In an embodiment, the method further includes: controlling the burning status of the corresponding file to be burned to the upper computer every second preset time, so that the upper computer judges the burning state and obtains Corresponding second determination result, the control board receives the corresponding second determination result returned by the upper computer, and determines whether the burning process of the to-be-burned file is normal according to the corresponding second determination result, and if abnormal, ends the burning; Normally, determining whether the burning progress of the to-be-burned file is completed according to the corresponding second determination result, and if not, disconnecting the communication connection with the terminal to be burned; if not, entering every second The preset time is used to control the board to feed back the burning status of the corresponding file to be burned to the upper computer.

Specifically, every second preset time, the upper computer reads the burning state of the file to be burned corresponding to the control board, and performs judgment and obtains a corresponding second determination result, and sends the result to the control board, where the burning is performed. The recording status includes information such as whether the burning process of the file to be burned is normal and the progress of burning. According to the second determination result, if abnormal, the programming is ended; if the burning process is normal, it is further determined whether the corresponding burning progress is completed, and if completed, disconnecting the communication connection with the terminal to be burned, if not, Then, the burning status of the file to be burned corresponding to the control board is continuously obtained, and the judgment is made.

In a specific embodiment, each control board module includes four control boards, and the IP address of the host computer is set to 192.168.100.10, and the IP address is assigned to the control board in the order of priority. #:192.168.100.20, 2#: 192.168.100.21, 3#: 192.168.100.22 and 4#: 192.168.100.23, so that the host computer runs through the console software named "controller.exe", through the host computer here. Use the RESTFUL API communication interface corresponding to the CURL access control board to read the burning status of the control board. For example, the process of reading the burning status of the control board labeled 1#-4# is as follows:

CURL http://192.168.100.20/api/status;

CURL http://192.168.100.21/api/status;

CURL http://192.168.100.22/api/status;

CURL http://192.168.100.23/api/status.

For example, refer to the 1# control board. The data returned by the 1# control board is as follows:

Among them, action indicates the current burning status, the runtime is "start", and "stop" indicates that it is in the stopped state.

In addition, a firmware burning system is provided, as shown in FIG. 4, including: a first communication module 310 and a first main control module 320. The first main control module 320 is connected to the first communication module 310. The main control module 320 includes at least two independent control boards, each of which is connected to the first communication module 310. Each control board includes a corresponding communication interface, and each control board can respectively pass corresponding communication. The interface is connected to the terminal to be burned;

The first communication module 310 is configured to communicate with the upper computer by the first main control module 320, and allocate a corresponding network protocol IP address to each control board of the upper computer 330 and the first main control module 320;

The control board is configured to receive, according to the corresponding IP address, the corresponding work instruction sent by the host computer through the first communication module 310, obtain a corresponding file to be burned according to the work instruction, and invoke the burning tool through the corresponding communication interface. The Android debugging bridge ADB writes the to-be-burned file to the corresponding to-be-burned terminal.

In one embodiment, as shown in FIG. 5, the first main control module 320 includes four corresponding control boards, namely,

control boards

322, 324, 326, and 328. The first communication module 310 is an Ethernet switch, and is controlled. The

boards

322, 324, 326, and 328 are respectively connected to the first communication module 310. The first main control module 320 is connected to the upper computer 330 through the first communication module 310, and the IP address is allocated to the upper computer through the first communication module 310. For the 192.168.100.10, the IP addresses are assigned to the control boards in the order of 192.168.100.20, 192.168.100.21, 192.168.100.22, and 192.168.100.23. Each control board and host computer 330 are in the same state. In a local area network, the host computer 330 can communicate independently with each of the control boards described above. The

control boards

322, 324, 326, and 328 are connected to the to-

be-recorded terminals

322a, 324a, 326a, and 328a, and the board 322a is controlled as an example for receiving the upper unit through the first communication module 310 according to the corresponding IP address. Corresponding work instruction sent by the machine 330, according to the work instruction, acquires a corresponding file to be burned, and calls the burning tool and the Android debugging bridge ADB through the corresponding communication interface 322a1 to write the to-be-burned file into the corresponding burned file. The terminal 322a is recorded.

The above firmware burning system configures a separate control board for each terminal to be burned, and sets a plurality of control boards and the upper computer through the first communication module in the same local area network communication, so that each control The board can independently invoke the ADB client to perform terminal programming, and the number of control boards can be arbitrarily added and configured as needed, so that multiple terminals can be simultaneously burned, and the ADB client end-to-face pair is overcome. In the terminal application scenario, each device to be burned has exclusive control board resources, and multiple terminals have the disadvantages of resource competition resulting in inefficient programming, which improves the burning efficiency and meets the requirements of industrial production.

In an embodiment, as shown in FIG. 6, the firmware burning system further includes a second main control module. 420 and the second communication module 430, the second main control module 420 is connected to the second communication module 430, the second main control module 420 includes at least two control boards, and the second communication module 430 can be connected to the upper computer 330 or the A communication module 310 is connected, and the second communication module 410 is used for the second main control module 420 to communicate with the upper computer 330, and allocates a corresponding network protocol IP address for each control board in the second main control module 420.

Specifically, in one embodiment, as shown in FIG. 7, the first communication module 410 is an Ethernet switch, and the number of control boards in the second control module is four, and the second main control module 420 includes four. The

control boards

422, 424, 426, and 428 are respectively connected to the second communication module 410, and the second main control module 420 is connected to the first communication module 310 through the second communication module 310. If the IP address of the host computer is 192.168.100.10 The IP addresses corresponding to the

control boards

422, 424, 426, and 428 are 192.168.100.24, 192.168.100.25, 192.168.100.26, and 192.168.100.27, respectively, so that each control board in the second main control module can be independent. In the communication with the host computer, the

control boards

422, 424, 426, and 428 are connected to the

terminals

422a, 424a, 426a, and 428a, and the board 422 is used as an example to pass the corresponding IP address. The second communication module 410 receives the corresponding work instruction sent by the host computer 330, acquires a corresponding file to be burned according to the work instruction, and invokes the burning tool and the Android debugging bridge ADB to record the file to be burned through the corresponding communication interface 422a1. The programming is written to the corresponding to-be-recorded terminal 422a.

By analogy, the above firmware burning system can be expanded according to the same mode according to the needs, which can double the efficiency of the firmware burning system, further adapt to the needs of industrial large-scale production, reduce economic costs, and improve the economy. benefit.

In one embodiment, using the firmware burning system shown in FIG. 7, after batch testing of the actual production line, 800 POS terminals can be burned in one shift (12 hours), and if an existing burning system is used, Use PC to connect USB for POS programming. When the cost is basically the same, use two upper computers, such as one PC to connect 4 (optimally achieved), one shift (12 hours) can only complete 500. The burning of the station, therefore, using the firmware burning system shown in Figure 7, the efficiency of a single process is increased by more than 50%.

The single control board burning includes the following files, as shown in Table 2:

固件安装顺序Firmware installation sequence	大小size
配置文件Configuration file	1000字节1000 bytes
开机图片Boot picture	230740字节230,740 bytes
操作系统operating system	10509145字节10509145 bytes
密钥Key	550字节550 bytes
APPAPP	137709字节137,709 bytes

Table 2

Take a single control board 322 as an example. In the whole process, you need to first burn the operating system kernel OS. The entire burning process log is shown in Figure 8. Obviously, you can see from the actual working log, from 1:45:57. Start burning to 1:47:24 until the end of the burning, the entire duration is 87 seconds (including the restart process of about 20 seconds in the middle), if multiple units are carried out at the same time, the burning time of the single machine is not affected, thus doubled Improve the efficiency of burning.

In one embodiment, as shown in FIG. 9, the control board 322 is taken as an example, and includes a processor 322b, a memory 322c, and a distributed cache module 322d and an agent component 322e. The agent component 322e is configured to receive the first The work instruction sent by the communication module is sent to the distributed cache module 322d for storage.

In one embodiment, the communication interface includes at least one of a universal serial bus USB interface, a serial communication interface, and an Ethernet interface.

In one embodiment, the distributed cache module 322d employs Memcache.

In one embodiment, a computer apparatus is provided, comprising: a memory and a processor, the memory storing computer readable instructions, wherein when the computer readable instructions are executed by the processor, the processor performs the step of: causing each control board to separately Obtain the corresponding network protocol IP address, and the number of the control boards is at least two. Each control board includes a corresponding communication interface. The control board obtains the work command sent by the host computer according to the corresponding IP address. The work instruction is used to enable the control board to obtain the corresponding file to be burned; and the corresponding control interface is used to enable the control board to call the corresponding burning tool and the Android debugging bridge ADB to write the to-be-burned file into the corresponding file. Waiting for the terminal to be burned.

In one embodiment, when the computer readable instructions are executed by the processor, the processor further causes the processor to perform the following steps: every second preset time, causing the control board to feed back the corresponding current work instruction to the upper computer to enable the upper position Determine whether the corresponding current work instruction needs to be updated and obtain the corresponding first The result of the determination is that the control board receives the corresponding first judgment result returned by the upper computer, and according to the corresponding first determination result, if the work instruction needs to be updated, the control board enters the corresponding IP address, so that the control board acquires the sending by the upper computer. The steps of the work order.

In one embodiment, when the computer readable instructions are executed by the processor, the processor further performs the steps of: causing the control board to detect whether the corresponding terminal to be burned is accessed; if yes, entering the corresponding communication interface, so that The control board calls the corresponding burning tool and the Android debugging bridge ADB to write the to-be-burned file to the corresponding terminal to be burned; and if not, enter the control board to check whether the corresponding terminal to be burned corresponds to The steps to access.

In one embodiment, the control board includes a distributed cache module and an agent component; when the computer readable instructions are executed by the processor, the processor further causes the processor to perform the following steps: the agent component receives the corresponding job according to the corresponding IP address The instructions are sent to the distributed cache module for storage.

In one embodiment, when the computer readable instructions are executed by the processor, the processor further causes the processor to perform the following steps: the control board returns the burning status of the corresponding file to be burned to the upper position every second preset time. The machine is configured to determine the burning status of the host computer and obtain a corresponding second determination result; the control board receives the corresponding second determination result returned by the upper computer, and determines the file to be burned according to the corresponding second determination result. Whether the burning process is normal, if abnormal, the burning is ended; if it is normal, it is further determined according to the corresponding second determination result whether the burning progress of the to-be-burned file is completed, and if completed, disconnecting the terminal to be burned If the communication is not completed, the control board returns to the second predetermined time, so that the control board feeds back the burning status of the corresponding to be burned file to the upper computer.

In one embodiment, one or more computer readable non-volatile storage media storing computer readable instructions are executable by one or more processors, such that one or more processors execute The following steps are performed: each control board obtains the corresponding network protocol IP address, and the number of the control boards is at least two. Each control board includes a corresponding communication interface. The control board obtains the corresponding board according to the corresponding IP address. The working instruction sent by the upper computer; according to the corresponding working instruction, the control board acquires the corresponding file to be burned; and the corresponding communication interface enables the control board to call the corresponding burning tool and the Android debugging bridge ADB Burning file to be written to correspond to The terminal to be burned.

In one embodiment, when the computer readable instructions are executed by one or more processors, the processor further causes the processor to perform the following steps: causing the control board to feed back the corresponding current work instruction to the upper computer every first preset time In order for the host computer to determine whether the corresponding current work instruction needs to be updated and obtain a corresponding first determination result; the control board receives the corresponding first determination result returned by the upper computer, according to the corresponding first determination result, if the work instruction If the update is required, the control board obtains the work instruction sent by the host computer according to the corresponding IP address.

In one embodiment, when the computer readable instructions are executed by one or more processors, the processor further causes the processor to perform the steps of: causing the control board to detect whether the corresponding terminal to be burned is accessed; if yes, entering the corresponding The communication interface is configured to enable the control board to call the corresponding burning tool and the Android debugging bridge ADB to write the to-be-burned file to the corresponding terminal to be burned; and if not, enter the control board corresponding to the corresponding processing The step of burning the terminal is connected.

In one embodiment, the control board includes a distributed cache module and an agent component; when the computer readable instructions are executed by one or more processors, the processor further causes the processor to perform the following steps: the agent component according to the corresponding IP address The corresponding work instruction is received, and the work instruction is sent to the distributed cache module for storage.

In one embodiment, when the computer readable instructions are executed by one or more processors, the processor further causes the processor to perform the following steps: causing the control board to burn the corresponding file to be burned every second preset time The state feedback is sent to the upper computer, so that the upper computer judges the burning state and obtains the corresponding second determination result; the control board receives the corresponding second determination result returned by the upper computer, and determines the waiting according to the corresponding second determination result. Whether the burning process of the burning file is normal, if abnormal, the burning is ended; if it is normal, it is further determined according to the corresponding second judgment result whether the burning progress of the to-be-burned file is completed, and if it is completed, disconnected and waiting The communication connection between the terminals is programmed; if not, the process proceeds to the second preset time, so that the control board feeds back the burning status of the corresponding to be burned file to the upper computer.

Those skilled in the art can understand that all or part of the flow in the method of the above embodiment is implemented. The program can be executed by a computer program to instruct related hardware, and the program can be stored in a computer readable storage medium. In the embodiment of the present application, the program can be stored in a storage medium of the computer system, and Executed by at least one processor in the computer system to implement a process comprising an embodiment of the methods as described above. The storage medium may be a magnetic disk, an optical disk, a read-only memory (ROM), or a random access memory (RAM).

The technical features of the above-described embodiments may be arbitrarily combined. For the sake of brevity of description, all possible combinations of the technical features in the above embodiments are not described. However, as long as there is no contradiction between the combinations of these technical features, All should be considered as the scope of this manual.

The above-mentioned embodiments are merely illustrative of several embodiments of the present application, and the description thereof is more specific and detailed, but is not to be construed as limiting the scope of the claims. It should be noted that a number of variations and modifications may be made by those skilled in the art without departing from the spirit and scope of the present application. Therefore, the scope of the invention should be determined by the appended claims.

Claims

A firmware burning method, the method comprising:

Each control board obtains a corresponding network protocol IP address, and the number of the control boards is at least two, and each of the control boards includes a corresponding communication interface;

The control board acquires a work instruction sent by the host computer according to the corresponding IP address;

The control board acquires a corresponding file to be burned according to the corresponding work instruction; and

The control board invokes the corresponding burning tool and the Android debugging bridge ADB to write the to-be-burned file to the corresponding to-be-burned terminal through the corresponding communication interface.
The method of claim 1 further comprising:

The control board feeds back the corresponding current work instruction to the upper computer every first preset time, so that the upper computer determines whether the corresponding current work instruction needs to be updated and obtains a corresponding first judgment. Result; and

The control board receives the corresponding first determination result returned by the upper computer, and according to the corresponding first determination result, if the work instruction needs to be updated, the control board is entered according to the corresponding IP address. Get the work instruction sent by the host computer.
The method according to claim 1, wherein the control board calls a corresponding burning tool and an Android debugging bridge ADB to write the to-be-burned file into a corresponding one through a corresponding communication interface. Before the terminal is burned, it also includes:

The control board detects whether the corresponding terminal to be burned is accessed;

If yes, the control board enters the corresponding communication interface, and the control board calls the corresponding burning tool and the Android debugging bridge ADB to write the to-be-burned file into the corresponding to-be-burned terminal;

If not, the control board is sent to detect whether the corresponding to-be-burned terminal is connected.
The method according to claim 1, wherein the control board comprises a distributed cache module and an agent component, and the obtaining, by the control board, the work instruction sent by the host computer according to the corresponding IP address comprises:

The agent component receives a corresponding work instruction according to the corresponding IP address, and sends the work instruction to the distributed cache module for storage.
The method of claim 1 further comprising:

The control board feeds back the burning status of the corresponding file to be burned to the upper computer every second preset time, so that the upper computer determines the burning state and obtains a corresponding number. Second judgment result;

Receiving, by the control board, a corresponding second determination result returned by the upper computer, and determining, according to the second determination result, whether the burning process of the to-be-burned file is normal;

If abnormal, the burning is finished;

If it is normal, determining whether the burning progress of the to-be-burned file is completed according to the corresponding second determination result;

If completed, disconnect the communication connection with the terminal to be burned; and

If not completed, the control board enters the second predetermined time, and the control board feeds back the burning status of the corresponding file to be burned to the upper computer.
A firmware burning system, the system comprising: a first communication module and a first main control module, wherein the first main control module is connected to the first communication module, the first main control The module includes at least two independent control boards, each of which is connected to the first communication module, and each of the control boards includes a corresponding communication interface, and each of the control boards can respectively Connecting to the terminal to be burned through the corresponding communication interface;

The first communication module is configured to communicate with the upper computer by the first main control module, and allocate a corresponding network protocol IP to each of the control boards of the upper computer and the first main control module. address;

The control board is configured to receive, according to the corresponding IP address, a corresponding work instruction sent by the host computer by using the first communication module; and

Obtaining a corresponding file to be burned according to the work instruction, and calling the burning tool and the Android debugging bridge ADB to write the to-be-burned file to the corresponding to-be-burned terminal through the corresponding communication interface.
The system of claim 6 wherein said system further comprises a second master a module and a second communication module, wherein the second main control module is connected to the second communication module, the second main control module includes at least two control boards, and the second communication module can be connected to the upper The first communication module is connected to the first communication module, and the second communication module is configured to communicate with the upper computer by the second main control module, and is used for each of the second main control modules. The board assigns the corresponding network protocol IP address.
The system according to claim 6, wherein the control board further comprises a distributed cache module and an agent component, wherein the agent component is configured to receive a work instruction sent by the first communication module, and send the Stored to the distributed cache module.
The system of claim 6 wherein said communication interface comprises at least one of a universal serial bus USB interface, a serial communication interface, and an Ethernet interface.
The system of claim 8 wherein said distributed cache module employs Memcache.
A computer apparatus, comprising: a memory and a processor, the memory storing computer readable instructions, wherein when the computer readable instructions are executed by the processor, the processor performs the following steps:

Each control board obtains a corresponding network protocol IP address, and the number of the control boards is at least two, and each of the control boards includes a corresponding communication interface;

The control board obtains a work instruction sent by the host computer according to the corresponding IP address;

And causing the control board to obtain a corresponding file to be burned according to the corresponding work instruction;

Through the corresponding communication interface, the control board invokes the corresponding burning tool and the Android debugging bridge ADB to write the to-be-burned file into the corresponding to-be-burned terminal.
A computer apparatus according to claim 11, wherein said computer readable instructions, when executed by said processor, further cause said processor to perform the following steps:

The control board returns the corresponding current work instruction to the upper computer every first preset time, so that the upper computer determines whether the corresponding current work instruction needs to be updated and obtains a corresponding first determination result;

And causing the control board to receive a corresponding first determination result returned by the upper computer, according to the corresponding As a result of the judgment, if the work instruction needs to be updated, the control board enters the work instruction sent by the host computer according to the corresponding IP address.
A computer apparatus according to claim 11, wherein said computer readable instructions, when executed by said processor, further cause said processor to perform the following steps:

And causing the control board to detect whether the corresponding terminal to be burned is accessed;

If yes, the step of entering the corresponding communication interface, causing the control board to call the corresponding burning tool and the Android debugging bridge ADB to write the to-be-burned file into the corresponding to-be-burned terminal; and

If not, the step of causing the control board to detect whether the corresponding terminal to be burned is accessed is entered.
The computer device of claim 11, wherein the control board comprises a distributed cache module and an agent component; when the computer readable instructions are executed by the processor, the processor further causes the processor to execute the following step:

The agent component receives the corresponding work instruction according to the corresponding IP address, and sends the work instruction to the distributed cache module for storage.
A computer apparatus according to claim 11, wherein said computer readable instructions, when executed by said processor, further cause said processor to perform the following steps:

The control board feeds the burning status of the corresponding to-be-burned file to the upper computer every second preset time, so that the upper computer judges the burning state and obtains a corresponding second determination result. ;

And causing the control board to receive a corresponding second determination result returned by the upper computer, and determining, according to the second determination result, whether the burning process of the to-be-burned file is normal;

If abnormal, the burning is finished;

If it is normal, determining whether the burning progress of the to-be-burned file is completed according to the corresponding second determination result;

If completed, disconnect the communication connection with the terminal to be burned; and

If not completed, the process proceeds to the step of the second predetermined time, so that the control board feeds back the burning status of the corresponding file to be burned to the upper computer.
One or more computer readable non-volatile storage media storing computer readable instructions, The computer readable instructions are executed by one or more processors such that the one or more processors perform the following steps:

Each control board obtains a corresponding network protocol IP address, and the number of the control boards is at least two, and each of the control boards includes a corresponding communication interface;

The control board obtains a work instruction sent by the host computer according to the corresponding IP address;

And causing the control board to obtain a corresponding file to be burned according to the corresponding work instruction;

Through the corresponding communication interface, the control board invokes the corresponding burning tool and the Android debugging bridge ADB to write the to-be-burned file into the corresponding to-be-burned terminal.
The storage medium of claim 16, wherein the computer readable instructions are executed by one or more processors such that the one or more processors perform the following steps:

The control board returns the corresponding current work instruction to the upper computer every first preset time, so that the upper computer determines whether the corresponding current work instruction needs to be updated and obtains a corresponding first determination result;

And causing the control board to receive the corresponding first judgment result returned by the upper computer, according to the corresponding first determination result, if the work instruction needs to be updated, enter the corresponding IP address, so that the control board acquires the upper position. The work order sent by the machine.
The storage medium of claim 16, wherein the computer readable instructions are executed by one or more processors such that the one or more processors perform the following steps:

And causing the control board to detect whether the corresponding terminal to be burned is accessed;

If yes, the step of entering the corresponding communication interface, causing the control board to call the corresponding burning tool and the Android debugging bridge ADB to write the to-be-burned file into the corresponding to-be-burned terminal; and

If not, the step of causing the control board to detect whether the corresponding terminal to be burned is accessed is entered.
The storage medium of claim 16, wherein the control board comprises a distributed cache module and an agent component; the computer readable instructions being executed by one or more processors to cause the one or more The processors perform the following steps:

The agent component receives the corresponding work instruction according to the corresponding IP address, and sends the work instruction to the distributed cache module for storage.
The storage medium of claim 16, wherein the computer readable instructions are executed by one or more processors such that the one or more processors perform the following steps:

The control board feeds the burning status of the corresponding to-be-burned file to the upper computer every second preset time, so that the upper computer judges the burning state and obtains a corresponding second determination result. ;

And causing the control board to receive a corresponding second determination result returned by the upper computer, and determining, according to the second determination result, whether the burning process of the to-be-burned file is normal;

If abnormal, the burning is finished;

If it is normal, determining whether the burning progress of the to-be-burned file is completed according to the corresponding second determination result;

If completed, disconnect the communication connection with the terminal to be burned; and

If not completed, the process proceeds to the step of the second predetermined time, so that the control board feeds back the burning status of the corresponding file to be burned to the upper computer.