Embedded intelligent voice welding system centralized controller device
The embedded intelligent voice welding system controller solves the problems of inconvenient human-computer interaction and limited microcontroller resources of traditional welding machine platforms, realizes multi-device control, remote monitoring and cloud data optimization, and improves welding quality and efficiency.
Patent Information
- Application Number
- CN202510723579.2
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-05-31
- Publication Date
- 2025-09-12
AI Technical Summary
The human-computer interaction mode of the traditional welding platform is inconvenient to operate, difficult to monitor in real time, and has great safety risks. The limited resources of the single-chip microcomputer lead to a simple interface, which cannot display welding parameters and data in real time. The welding quality depends on the user's knowledge reserves.
It uses an embedded intelligent voice welding system controller, integrates a high-performance processor running the Linux operating system, connects to a mobile phone/computer via a wireless network to achieve remote control and data visualization, and uses a cloud server to optimize welding parameters and provide intelligent guidance.
It improves the operational flexibility and monitoring intuitiveness of welding equipment, reduces the knowledge reserve requirements of welders, and improves welding quality and work efficiency.
Smart Images

Figure CN120619680A_ABST
Abstract
Description
Technical Field
[0001] The present invention belongs to the technical field of intelligent welding, and more specifically, relates to an embedded intelligent voice welding system controller device. Background Art
[0002] In the field of intelligent welding control technology, traditional welding machine platforms use a combination of digital screens and knobs as the main method of human-computer interaction. The screen is connected to the main control board of the equipment by wire. Due to the complex on-site environment, the welding gun and the interactive end are often far apart, resulting in inconvenient operation, difficulty in real-time monitoring, and potential safety hazards. In addition, the display driver of the screen is completed by the microcontroller inside the welding machine. Due to the limited resources of the microcontroller, the human-computer interaction interface is relatively simple, unable to display welding parameters in real time, dynamically monitor welding status, and users cannot store welding data in a timely manner. The amount of static database data stored in the microcontroller is also small, and it does not support database updates and expansions. For new welding processes, the welding quality mainly depends on the user's knowledge reserves in welding, and welding is more difficult.
[0003] To this end, the present invention provides an embedded intelligent voice welding system controller device. Summary of the Invention
[0004] In view of the above-mentioned problems existing in the existing technology, the purpose of the present invention is to provide an embedded intelligent voice welding system centralized controller device. The centralized controller has rich expansion interfaces and can meet the needs of controlling multiple welding power supply equipment at the welding site. The high-performance processor supports the centralized controller to run the Linux operating system, which greatly solves the problem of limited single-chip computer resources of existing equipment. Through the Internet, users can remotely control the welding equipment on mobile phones / computers to complete parameter setting and adjustment, and at the same time send real-time voltage and current data of the welding process back to the mobile phone / computer for data visualization and storage, thereby improving the flexibility of equipment control. At the same time, with the help of the Internet service of the centralized controller, the welding data can be uploaded to the cloud server to realize the update and optimization of the welding expert database. The centralized controller is interconnected with the cloud and with the help of cloud intelligent services, it gives guiding suggestions on welding parameters, reduces the requirements for welder knowledge reserves, and improves work efficiency and welding quality.
[0005] The purpose of the present invention can be achieved through the following technical solutions:
[0006] An embedded intelligent voice welding system centralized controller device includes a centralized controller, several welding devices, a mobile phone app, a computer host computer, and a cloud server. The centralized controller is connected to the several welding devices via a fieldbus, and is connected to a touch screen or display screen via a MIPI interface or an HDMI interface. The centralized controller is connected to the mobile phone app and the computer host computer via a wireless network, 5G, or Bluetooth. The mobile phone app and the computer host computer complete intelligent query of welding parameters through voice input or text input, and can also perform online adjustment of some key welding parameters.
[0007] The centralized controller serves as a multi-device control center, receives welding parameters sent from a mobile phone APP or a computer host computer through the network, reads touch screen operation signals, communicates with several welding equipment to complete welding parameter adjustment settings, and simultaneously receives real-time welding voltage, current and other welding data transmitted by several welding equipment, completes data processing and packaging, and then feeds back to the mobile phone and computer host computer through the network to realize data visualization.
[0008] As a further preferred technical solution of the present invention, the field bus connecting the centralized controller and several welding equipment is RS485 bus, RS232 bus or CAN bus, the centralized controller communicates with the touch screen through the MIPI interface, and the centralized controller communicates with the display through the HDMI interface.
[0009] As a further preferred technical solution of the present invention, the centralized controller integrates multiple circuits and modules, including:
[0010] Power conversion circuit, including 24V to 15V power supply circuit and 15V to 3.3V / 5V power supply circuit;
[0011] TF SD storage circuit;
[0012] Multiple serial communication circuits, including USB Type-C serial communication circuit, USB Type-C OTG serial communication circuit, and USB 3.0 serial communication circuit;
[0013] A variety of network and serial communication circuits, including Gigabit Ethernet port circuits, RS485 bus circuits, RS232 bus circuits, and CAN bus circuits;
[0014] Various video and audio interface circuits, including MIPI interface circuit, MIC interface circuit and HDMI interface circuit;
[0015] A variety of wireless communication modules, including WIFI circuit modules, Bluetooth circuit modules and 5G circuit modules;
[0016] The core processor of the multiple circuits and modules integrated in the centralized controller adopts Rockchip RK3568 as the main controller.
[0017] As a further preferred technical solution of the present invention, the central controller runs an embedded Linux operating system based on ARM architecture, and based on the multiple circuits and modules integrated in the central controller, the central controller implements peripheral drivers including gigabit network port circuit, RS485 bus circuit, RS232 bus circuit, CAN bus circuit, MIPI interface circuit, MIC interface circuit, HDMI interface circuit, WIFI circuit module, Bluetooth circuit module and 5G circuit module on the Linux operating system, and the central controller completes the development of embedded applications of the central controller based on embedded QT5 and Linux file system.
[0018] As a further preferred technical solution of the present invention, the centralized controller monitors the data of the CAN bus, RS485 bus and RS232 bus in real time. At the same time, the centralized controller establishes a network socket connection with the computer host computer and the mobile phone APP through a wireless local area network. The centralized controller receives the welding field data through the CAN bus, RS485 bus and RS232 bus, packages the data after completing the data verification, and then sends it to the computer host computer and the mobile phone APP through the network to complete the cloud management of the welding data;
[0019] The centralized controller realizes the coordinated scheduling and remote control of multiple devices through RS485 bus, RS232 bus or CAN bus, and performs real-time visual monitoring of the status of multiple welding machines. The centralized controller is also connected to a computer host and a mobile phone APP through the network and visualizes the real-time data of the status of multiple welding machines on the computer host and the mobile phone APP;
[0020] The centralized controller accesses the Internet based on a WIFI circuit module and a gigabit network port circuit, and supports intelligent query of user on-site parameters.
[0021] As a further preferred technical solution of the present invention, the network connection established between the centralized controller and the computer host computer and the mobile phone APP is a network Socket connection based on the TCP / IP protocol established in a wireless local area network through WIFI.
[0022] As a further preferred technical solution of the present invention, the data verification adopts the CRC16 verification method of the Modbus communication protocol.
[0023] As a further preferred technical solution of the present invention, the mobile phone APP or computer host computer inputs welding parameters such as welding materials, welding thickness, and wire diameter through voice input or text, completes intelligent query of welding parameters to the database of the cloud server, and completes online adjustment of welding parameters based on the intelligent recommendation query results of the cloud server;
[0024] The centralized controller device performs the following tasks at different stages of the welding process:
[0025] During the welding preparation stage, the centralized controller receives synchronization instructions from a mobile phone APP or a computer host computer, receives parameter setting instructions from the mobile phone APP or the computer host computer through the network, and sends them to the designated equipment on site through the field bus to complete parameter adjustment;
[0026] During the welding process, the centralized controller sends real-time voltage or current data to a mobile phone APP or a computer host computer, and visualizes the data on the mobile phone APP or the computer host computer, and stores it in the cloud in the database of the cloud server.
[0027] As a further preferred technical solution of the present invention, the interface of the touch screen is designed and developed based on QT5, which provides settings for functions such as the display of WIFI connection, network data transmission, and parameters of the RS485 interface. The interface of the touch screen is correspondingly provided with a WIFI interface and an RS485 interface;
[0028] In the WIFI interface, the centralized controller completes the scan of wireless devices, and the user can select the scanned WIFI list to connect. The RS485 interface provides a communication interface parameter adjustment function, including parity check settings, and also provides a field bus data transceiver test interface.
[0029] As a further preferred technical solution of the present invention, the touch screen interface is designed and developed based on the UI of QT5, and the specific implementation method is as follows:
[0030] Fieldbus part: During the UI initialization phase, a QSerialPort object is created, and its receive / send signals are connected to the corresponding slot functions. The system's currently available serial port sequence is then obtained through a QSerialPortInfo scan. After the scan is complete, the completion signal is released, and the corresponding slot function completes the RS485 baud rate, data length and other parameter settings, and sets the parameters to the QSerialPort object, and finally opens the serial port. At the same time, the above parameters are added to the drawing UI list to complete the visualization of the parameter adjustment settings. When QSerialPort receives data transmitted by the RS485 bus, it triggers its receive signal, and at the same time completes the data verification, parsing and processing in the slot function to which it is connected;
[0031] Networking: Create a Socket server using QTcpServer to monitor the mobile / computer client, and establish a network connection using QTcpSocket. After parsing the data on the RS485 bus, package the data into a JSON file and transmit it to the mobile / computer client via a byte stream.
[0032] As described above, the embedded intelligent voice welding system controller device provided by the present invention has the following beneficial effects:
[0033] The present invention utilizes the above-mentioned embedded intelligent voice welding system centralized controller device. Compared with the existing technology, it can solve the performance problems that are difficult to solve with the existing technology. The rich expansion interface can meet the needs of controlling multiple welding equipment in the welding site. The way of controlling the welding equipment through the wireless network improves the operational flexibility of the equipment. The visual drawing improves the intuitiveness of the welding process monitoring. The use of the cloud server reduces the requirements for the welder's knowledge reserve, thereby improving work efficiency and welding quality.
[0034] Additional aspects and advantages of the present invention will be set forth in part in the description which follows and, in part, will be obvious from the description which follows, or may be learned by practice of the present invention. BRIEF DESCRIPTION OF THE DRAWINGS
[0035] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the following briefly introduces the drawings required for use in the embodiments or the description of the prior art. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative work.
[0036] Figure 1 This is a schematic diagram of the overall system of an embedded intelligent voice welding system controller device applied for by the present invention;
[0037] Figure 2 This is a circuit block diagram of an embedded intelligent voice welding system controller device applied for by the present invention;
[0038] Figure 3 This is a working diagram of an embedded intelligent voice welding system centralized controller device applied for by the present invention;
[0039] Figure 4 This is one of the touch screen interfaces of an embedded intelligent voice welding system centralized controller device applied for by the present invention;
[0040] Figure 5 This is the second touch screen interface of the embedded intelligent voice welding system centralized controller device applied for by the present invention;
[0041] Figure 6 This is a simplified diagram of the application software UI architecture of an embedded intelligent voice welding system controller device applied for by the present invention.
[0042] Summary of reference numerals and their descriptions:
[0043] 1. Centralized controller; 2. Welding machine equipment; 3. Mobile phone APP; 4. Computer host computer; 5. Cloud server. DETAILED DESCRIPTION
[0044] The following describes the implementation of the present invention through specific embodiments. People skilled in the art can easily understand other advantages and effects of the present invention from the contents disclosed in this specification.
[0045] It should be noted that the structures, proportions, sizes, etc. illustrated in the drawings of this specification are only used to match the contents disclosed in the specification for people familiar with this technology to understand and read, and are not used to limit the limiting conditions for the implementation of the present invention. Therefore, they have no technical substantive significance. Any modification of the structure, change in the proportional relationship, or adjustment of the size should still fall within the scope of the technical content disclosed by the present invention without affecting the efficacy and purpose that can be achieved by the present invention. At the same time, the terms such as "upper", "lower", "left", "right", "middle" and "one" quoted in this specification are only for the convenience of description and are not used to limit the scope of the implementation of the present invention. Changes or adjustments in their relative relationships should also be regarded as the scope of the implementation of the present invention without substantially changing the technical content. The specific structure can be described with reference to the drawings of the patent application.
[0046] The present invention provides an embedded intelligent voice welding system controller 1 device, please refer to Figures 1 to 6 As shown, it includes a centralized controller 1, several welding devices 2, a mobile phone APP 3, a computer host computer 4 and a cloud server 5. The centralized controller 1 is connected to the several welding devices 2 through a field bus, and the centralized controller 1 is connected to a touch screen or a display screen through a MIPI interface or an HDMI interface. The centralized controller 1 is connected to the mobile phone APP 3 and the computer host computer 4 through a wireless network or 5G or Bluetooth. The mobile phone APP 3 and the computer host computer 4 complete intelligent query of welding parameters through voice input or text input, and can adjust some key welding parameters online;
[0047] The centralized controller 1 serves as a multi-device control center, receives welding parameters sent from a mobile phone APP 3 or a computer host computer 4 through the network, reads touch screen operation signals, communicates with a number of welding equipment 2 to complete welding parameter adjustment settings, and at the same time receives real-time welding voltage, current and other welding data transmitted by a number of welding equipment 2, completes data processing and packaging, and then feeds back to the mobile phone and computer host computer 4 through the network to realize data visualization.
[0048] The field bus connecting the centralized controller 1 and the plurality of welding equipment 2 is an RS485 bus, an RS232 bus or a CAN bus. The centralized controller 1 communicates with the touch screen via a MIPI interface, and the centralized controller 1 communicates with the display screen via an HDMI interface.
[0049] Combine Figure 2 As shown, the centralized controller 1 integrates multiple circuits and modules, including:
[0050] Power conversion circuit, including 24V to 15V power supply circuit and 15V to 3.3V / 5V power supply circuit;
[0051] TF SD storage circuit;
[0052] Multiple serial communication circuits, including USB Type-C serial communication circuit, USB Type-C OTG serial communication circuit, and USB 3.0 serial communication circuit;
[0053] A variety of network and serial communication circuits, including Gigabit Ethernet port circuits, RS485 bus circuits, RS232 bus circuits, and CAN bus circuits;
[0054] Various video and audio interface circuits, including MIPI interface circuit, MIC interface circuit and HDMI interface circuit;
[0055] A variety of wireless communication modules, including WIFI circuit modules, Bluetooth circuit modules and 5G circuit modules;
[0056] The core processor of the various circuits and modules integrated in the centralized controller 1 uses Rockchip RK3568 as the main control. The processor adopts a quad-core Cortex-A55 architecture based on a 22nm process technology and has a main frequency of up to 2.0GHz, providing computing power support for the operation of the embedded Linux system. At the same time, the embedded Linux system provides support for network communication, file management, intelligent parameter query and other services of the intelligent welding platform.
[0057] It should be noted that: the USB 3.0 serial port communication circuit is used to support the input of standard input devices such as mouse and keyboard, the USB Type-C OTG serial port communication circuit is used for firmware upgrade and burning, the gigabit network port circuit serves as the Internet underlying hardware interface of the device, the RS485 bus circuit, RS232 bus circuit and CAN bus circuit are used for communication and control with multiple devices on site, and the WIFI circuit module, Bluetooth circuit module and 5G circuit module are used for wireless connection between mobile phone APP3, computer host computer 4 and several welding equipment 2 for data exchange and communication control.
[0058] The central controller 1 runs an embedded Linux operating system based on the ARM architecture, and based on the multiple circuits and modules integrated in the central controller 1, the central controller 1 implements peripheral drivers including gigabit network port circuit, RS485 bus circuit, RS232 bus circuit, CAN bus circuit, MIPI interface circuit, MIC interface circuit, HDMI interface circuit, WIFI circuit module, Bluetooth circuit module and 5G circuit module on the Linux operating system, and the central controller 1 completes the development of embedded applications of the central controller 1 based on embedded QT5 and Linux file system.
[0059] The centralized controller 1 monitors the data of the CAN bus, RS485 bus and RS232 bus in real time. At the same time, the centralized controller 1 establishes a network socket connection with the computer host computer 4 and the mobile phone APP3 through the wireless local area network. The centralized controller 1 receives the welding field data through the CAN bus, RS485 bus and RS232 bus, packages it after completing the data verification, and then sends it to the computer host computer 4 and the mobile phone APP3 through the network to complete the cloud management of the welding data;
[0060] The centralized controller 1 realizes the coordinated scheduling and remote control of multiple devices through the RS485 bus, RS232 bus or CAN bus, and performs real-time visual monitoring of the status of multiple welding equipment 2. The centralized controller 1 is also connected to the computer host computer 4 and the mobile phone APP 3 through the network and visualizes the real-time data of the status of multiple welding equipment 2 on the computer host computer 4 and the mobile phone APP 3;
[0061] The centralized controller 1 accesses the Internet based on a WIFI circuit module and a gigabit network port circuit, and supports intelligent query of user on-site parameters.
[0062] The network connection established between the centralized controller 1 and the computer host computer 4 and the mobile phone APP 3 is a network Socket connection based on the TCP / IP protocol established in the wireless local area network through WIFI.
[0063] The data verification adopts the CRC16 verification method of the Modbus communication protocol.
[0064] Combine Figure 3 As shown, the mobile phone APP 3 or the computer host computer 4 inputs welding parameters such as welding materials, welding thickness and wire diameter through voice input or text, completes the intelligent query of welding parameters to the database of the cloud server 5, and completes the online adjustment of welding parameters according to the intelligent recommendation query results of the cloud server 5;
[0065] The centralized controller 1 device performs the following tasks at different stages of the welding process:
[0066] During the welding preparation phase, the centralized controller 1 receives synchronization instructions from the mobile phone APP 3 or the computer host 4, and receives parameter setting instructions from the mobile phone APP 3 or the computer host 4 through the network, and also sends them to the designated equipment on site through the field bus to complete parameter adjustment;
[0067] During the welding process, the centralized controller 1 sends real-time voltage or current data to the mobile phone APP3 or the computer host computer 4, and visualizes the data on the mobile phone APP3 or the computer host computer 4, and stores it in the cloud in the database of the cloud server 5.
[0068] Combine Figure 4 and Figure 5 As shown, the interface of the touch screen is designed and developed based on QT5, which provides settings for functions such as WIFI connection, display of network data transmission, and parameters of RS485 interface. The interface of the touch screen is correspondingly provided with WIFI interface and RS485 interface;
[0069] In the WIFI interface, the centralized controller 1 completes the scanning of wireless devices, and the user can select the scanned WIFI list to connect. The RS485 interface provides a communication interface parameter adjustment function, including parity check settings, and also provides a field bus data transceiver test interface.
[0070] Combine Figure 6 As shown, the touch screen interface is designed and developed based on the UI of QT5, and the specific implementation is as follows:
[0071] Fieldbus part: During the UI initialization phase, a QSerialPort object is created, and its receive / send signals are connected to the corresponding slot functions. The system's currently available serial port sequence is then obtained through a QSerialPortInfo scan. After the scan is complete, the completion signal is released, and the corresponding slot function completes the RS485 baud rate, data length and other parameter settings, and sets the parameters to the QSerialPort object, and finally opens the serial port. At the same time, the above parameters are added to the drawing UI list to complete the visualization of the parameter adjustment settings. When QSerialPort receives data transmitted by the RS485 bus, it triggers its receive signal, and at the same time completes the data verification, parsing and processing in the slot function to which it is connected;
[0072] Networking: Create a Socket server using QTcpServer to monitor the mobile / computer client, and establish a network connection using QTcpSocket. After parsing the data on the RS485 bus, package the data into a JSON file and transmit it to the mobile / computer client via a byte stream.
[0073] It will be apparent to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above and that the invention can be embodied in other specific forms without departing from the spirit or essential characteristics of the invention. Therefore, the embodiments should be considered in all respects as illustrative and non-restrictive, and the scope of the invention is defined by the appended claims, not the foregoing description, and all variations within the meaning and range of equivalents of the claims are intended to be included therein. Any reference sign in a claim should not be construed as limiting the claim to which it relates.
Claims
1. An embedded intelligent voice welding system controller device, characterized in that: The system includes a centralized controller, several welding devices, a mobile phone APP, a computer host computer and a cloud server. The centralized controller is connected to the several welding devices through a field bus, and is connected to a touch screen or display screen through a MIPI interface or an HDMI interface. The centralized controller is connected to the mobile phone APP and the computer host computer through a wireless network or 5G or Bluetooth. The mobile phone APP and the computer host computer complete intelligent query of welding parameters through voice input or text input, and can adjust some key welding parameters online; The centralized controller serves as a multi-device control center, receives welding parameters sent from a mobile phone APP or a computer host computer through the network, reads touch screen operation signals, communicates with several welding equipment to complete welding parameter adjustment settings, and simultaneously receives real-time welding voltage, current and other welding data transmitted by several welding equipment, completes data processing and packaging, and then feeds back to the mobile phone and computer host computer through the network to realize data visualization.
2. The embedded intelligent voice welding system centralized controller device according to claim 1, characterized in that: The field bus connecting the centralized controller and several welding equipment is RS485 bus, RS232 bus or CAN bus. The centralized controller communicates with the touch screen through the MIPI interface and communicates with the display screen through the HDMI interface.
3. The embedded intelligent voice welding system centralized controller device according to claim 1, characterized in that: The centralized controller integrates multiple circuits and modules, including: Power conversion circuit, including 24V to 15V power supply circuit and 15V to 3.3V / 5V power supply circuit; TF SD storage circuit; Multiple serial communication circuits, including USB Type-C serial communication circuit, USB Type-C OTG serial communication circuit, and USB 3.0 serial communication circuit; A variety of network and serial communication circuits, including Gigabit Ethernet port circuits, RS485 bus circuits, RS232 bus circuits, and CAN bus circuits; Various video and audio interface circuits, including MIPI interface circuit, MIC interface circuit and HDMI interface circuit; A variety of wireless communication modules, including WIFI circuit modules, Bluetooth circuit modules and 5G circuit modules; The core processor of the multiple circuits and modules integrated in the centralized controller adopts Rockchip RK3568 as the main controller.
4. An embedded intelligent voice welding system centralized controller device according to claim 2 or 3, characterized in that: The central controller runs an embedded Linux operating system based on the ARM architecture, and based on the multiple circuits and modules integrated in the central controller, the central controller implements peripheral drivers including gigabit network port circuit, RS485 bus circuit, RS232 bus circuit, CAN bus circuit, MIPI interface circuit, MIC interface circuit, HDMI interface circuit, WIFI circuit module, Bluetooth circuit module and 5G circuit module on the Linux operating system, and the central controller completes the development of embedded applications of the central controller based on embedded QT5 and Linux file system.
5. The embedded intelligent voice welding system centralized controller device according to claim 2 or 3, characterized in that: The centralized controller monitors the data of CAN bus, RS485 bus and RS232 bus in real time. At the same time, the centralized controller establishes a network socket connection with the computer host computer and mobile phone APP through the wireless local area network. The centralized controller receives the welding field data through the CAN bus, RS485 bus and RS232 bus, packages it after completing the data verification, and then sends it to the computer host computer and mobile phone APP through the network to complete the cloud management of welding data; The centralized controller realizes the coordinated scheduling and remote control of multiple devices through RS485 bus, RS232 bus or CAN bus, and performs real-time visual monitoring of the status of multiple welding machines. The centralized controller is also connected to a computer host and a mobile phone APP through the network and visualizes the real-time data of the status of multiple welding machines on the computer host and the mobile phone APP; The centralized controller accesses the Internet based on a WIFI circuit module and a gigabit network port circuit, and supports intelligent query of user on-site parameters.
6. The embedded intelligent voice welding system centralized controller device according to claim 5, characterized in that: The network connection established between the centralized controller and the computer host computer and the mobile phone APP is a network Socket connection based on the TCP / IP protocol established in the wireless local area network through WIFI.
7. The embedded intelligent voice welding system centralized controller device according to claim 5, characterized in that: The data verification adopts the CRC16 verification method of the Modbus communication protocol.
8. The embedded intelligent voice welding system centralized controller device according to claim 1, characterized in that: The mobile phone APP or computer host computer inputs welding parameters such as welding materials, welding thickness and wire diameter through voice input or text, completes intelligent query of welding parameters to the database of the cloud server, and completes online adjustment of welding parameters based on the intelligent recommendation query results of the cloud server; The centralized controller device performs the following tasks at different stages of the welding process: During the welding preparation stage, the centralized controller receives synchronization instructions from a mobile phone APP or a computer host computer, receives parameter setting instructions from the mobile phone APP or the computer host computer through the network, and sends them to the designated equipment on site through the field bus to complete parameter adjustment; During the welding process, the centralized controller sends real-time voltage or current data to a mobile phone APP or a computer host computer, and visualizes the data on the mobile phone APP or the computer host computer, and stores it in the cloud in the database of the cloud server.
9. The embedded intelligent voice welding system centralized controller device according to claim 1, characterized in that: The touch screen interface is designed and developed based on QT5, which provides settings for functions such as WIFI connection, display of network data transmission, and parameters of RS485 interface. The touch screen interface is correspondingly provided with WIFI interface and RS485 interface; In the WIFI interface, the centralized controller completes the scan of wireless devices, and the user can select the scanned WIFI list to connect. The RS485 interface provides a communication interface parameter adjustment function, including parity check settings, and also provides a field bus data transceiver test interface.
10. The embedded intelligent voice welding system centralized controller device according to claim 9, characterized in that: The touch screen interface is designed and developed based on the UI of QT5, and the specific implementation is as follows: Fieldbus part: During the UI initialization phase, a QSerialPort object is created, and its receive / send signals are connected to the corresponding slot functions. The system's currently available serial port sequence is then obtained through a QSerialPortInfo scan. After the scan is complete, the completion signal is released, and the corresponding slot function completes the RS485 baud rate, data length and other parameter settings, and sets the parameters to the QSerialPort object, and finally opens the serial port. At the same time, the above parameters are added to the drawing UI list to complete the visualization of the parameter adjustment settings. When QSerialPort receives data transmitted by the RS485 bus, it triggers its receive signal, and at the same time completes the data verification, parsing and processing in the slot function to which it is connected; Networking: Create a Socket server using QTcpServer to monitor the mobile / computer client, and establish a network connection using QTcpSocket. After parsing the data on the RS485 bus, package the data into a JSON file and transmit it to the mobile / computer client via a byte stream.