1. Creating a robot system and workstation using RobotStudio
RobotStudio uses version 6.08.01
(1) Import the robot model
Import the robot model IRB5700 from the ABB model library. A selection box will pop up, select the robot version, select one, and click OK. When the operation is completed, the robot model will appear in the graphics area of RobotStudio.
(2) Create a robot system
Select Basic - Robot System - From Layout, and the Create System from Layout dialog box pops up.
(3) Configuration of the robot system
Without further ado, let me show you the configuration of the robot system. Pay special attention to the contents in the red box.
The above is the setting of the robot system.
2. Import library files
Basic--Import Model Library--Browse Library File
Select the two library files and choose Open.
There are two library files, one is the DIO digital communication file, and the other is the GIO group variable communication file. It should be mentioned here that this library file is an encapsulated TCP/IP communication protocol. It will be used emphatically later.
3. Establishment of the Botu Project
1. The PLC I added is the 1500 series because it is more convenient to simulate the 1500 series when using PLCSIM Adv.
Add a subnet and set the PLC's IP address to 192.168.0.2
2. Create a virtual PLC
Open PLCSIM Adv software and create a PLC project. The IP is the same as in the diagram 192.168.0.2. The subnet is 255.255.255.0. Remember to select OnlineAccess mode. The specific reason is shown in the red box. That is, the two library files of ABB mentioned above realize communication through TCP/IP protocol.
3. Create a PLC variable table
The following are the variables I used for this project.
4. Create variables in PLC
1. Create DeviceNet Device
Controller - Configuration - I/O System, right-click DeviceNet Device and select New DeviceNet Device.
Use the value from the template: DSQC 652 24VDC I/O Device.
Use the default values for the rest. Click OK.
A dialog box pops up, "The changes will take effect only after the controller is restarted." Click OK, then go to Controller - Restart - Restart (hot start), and wait for the system to restart.
2. Create variables
Controller - Configuration - I/O System, right-click and select Signal, select New Signal, and a dialog box pops up.
According to the options in the figure above, add the input and output variables of each robot system, create a digital input signal di0Start signal, which is a Bool value, and the Meeping offset value input and output both start from 0 and increase by 1.
A dialog box pops up prompting "Changes will take effect only after the controller is restarted", I restarted it after all signals were added.
3. Connection of simulation communication
Basic--right click "Snap7" file--properties. Open the following window
Set the PLC IP address 192.168.0.1, rack number, number of digital input and output and the corresponding address in the PLC. Then click Connection at the bottom of the window to connect.
5. Connection between robot IO and simulation signal
Select Simulation > Workstation Logic > Design. Connect the simulator signals to the IO signals of each robot. Associate the simulator signals with the signals of each Smart component.
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