Description
- 32-bit DSP digital control mode
- Low vibration, low noise, low power consumption
- Maximum output current 3A/phase
- Adopting CAN bus and supporting standard CANopen communication protocol, it can load up to 127 devices
- Supports three modes: protocol position control, speed control, and periodic position control
- Current setting, subdivision, motor start stop control, and real-time monitoring of motor operation can be achieved through the bus
- 2-channel optoelectronic isolation programmable input interface
medical equipment, various types of robots, robotic arms, automated production lines, and various CNC machine tools.
3Configuring Siemens PLCFor PLC, Siemens S-1200PLC is used. Siemens PLC needs to be configured and programmed in Botu software. After the program is completed, the communication settings between the robot and PLC can be set. First, select the device and network in the Porto software, then add a new device and select the controller model as Siemens 1212, as shown in Figure 5. After adding the device, you need to set up the PLC network. The computer and PLC must set corresponding IP addresses in the same network segment to facilitate downloading and uploading PLC programs. After the settings are completed, click on the project tree on the left to select the program block, and then enter program writing. After the entire program is written, you can check whether the robot has received the signal from the PLC through the input and output menu call in the ABB industrial robot teaching pendant, or you can check online whether the PLC has received the signal from the robot through the Botu software. When the line connection is good, the operator can set some signals to complete the test work. If the test communication is normal, further PLC programming can be performed.Figure 5 Botu software configures new equipment4 ConclusionThis article explains in detail the communication setting process between ABB industrial robots and Siemens PLC, making full use of the characteristics of industrial fieldbus technology. During the communication process, signal settings are based on DeviceNet fieldbus technology. The actual operation verifies the content described in this article. feasibility. In communication settings, special attention should be paid to the process of setting parameters such as address signals. Based on DeviceNet fieldbus technology, communication between ABB industrial robots and PLCs can be completed more quickly and conveniently.In modern industry, the communication technology between industrial robots and PLC has improved the level of production line automation and can better utilize the flexible and expandable characteristics of industrial robots. Therefore, it is foreseeable that the application of communication technology in the production line will continue to increase, thus exerting a great influence on industrial production. greater effect.
XV-432-57CQB-1-10-PLC-SET Intelligent operation control system
XP-DVI-12T-10 Capacitive touch screen and resistive touch screen
xv-440-10tvb-1-20 EATON HMI Human Machine Interface
SW-MXPRO Intelligent operation control system
MC2-442-57CQB-1-1H-2 EATON HMI Human Machine Interface
XN-KO/13 Capacitive touch screen and resistive touch screen
XV-303-15-C00-A00-1B Eaton human-machine touch screen
XV-DVI-GTI-12-000 Intelligent operation control system
XV-440-10TVB-X-13-1 EATON HMI Human Machine Interface
XV-442-57CQB-1-2AIVAR15 Human Machine Interaction
XP-301-12T-10 EATON Touch Panel
XV-102-B3-35TQR-10-PLC Human Machine Interaction
XV-442-57CQB-1-1C Human Machine Interaction
5485KPMPP5000 Capacitive touch screen and resistive touch screen
92-02123-00 EATON HMI Human Machine Interface
XV-303-10-C00-A00-1C Human Machine Interaction
MH2-342-57EIB-1-20 EATON Touch Panel
XN-2DO-R-NC Intelligent operation control system
XV-230-57CNN-1-10 Capacitive touch screen and resistive touch screen
XV-442-57cQB1-1W Human Machine Interaction
XV-432-57CQB-1-10-PLC Eaton human-machine touch screen
XN-P3T-SBB Intelligent operation control system
XV-442-57CQB-1-1AB Intelligent operation control system
XV440-10TVB-1-10 Eaton human-machine touch screen
MS2-440-57MPI-1-10 Human Machine Interaction
XV-DVI-GTR-12-000 Capacitive touch screen and resistive touch screen
XN-P4T-SBBC-B EATON HMI Human Machine Interface
MS2-440-57MPI-1-10 Intelligent operation control system
OS-HDU-A7-S EATON HMI Human Machine Interface
XN-1CNT-24VDC EATON Touch Panel
XN-KO/15 Intelligent operation control system
XV-430-10TVB-1-10 EATON HMI Human Machine Interface
MC2-430-10TVB-1-10 Eaton human-machine touch screen
XV-102-B0-35TQR-10-PLC EATON Touch Panel
XV-252-57CNN-1-1AE EATON HMI Human Machine Interface
XT-MEM-CF32M-01 EATON HMI Human Machine Interface
XV-442-57CQB-1-2AI EATON Touch Panel
XV-303-70-B00-A00-1C EATON HMI Human Machine Interface
XV-442-57CQB-1-1W EATON Touch Panel
XVH-330-57CAN-1-10 EATON Touch Panel
XV-152-D8-57TVRC-10 EATON HMI Human Machine Interface
MC2-442-57CQB-1-1D EATON HMI Human Machine Interface
XN-WEW-35/2-SW Human Machine Interaction
XN-4DI-24VDC-N Human Machine Interaction
XN-GW-PBDP-1.5MB Capacitive touch screen and resistive touch screen
XVM-430-65TVB-1-11 Human Machine Interaction
XV-102-D8-70TWRC-10 Capacitive touch screen and resistive touch screen
XVH-340-57CAN-1-50 Capacitive touch screen and resistive touch screen
MC2-440-10TVB-1-2A Intelligent operation control system
XN-QV/8 Intelligent operation control system