
Start with motivation and set expectations, then introduce pid control concepts, and explain why changing the main task from continuous to periodic matters for pid scanning.
Change the periodic task to 100 milliseconds and name it accordingly. Add a routine in the PADI function block diagram environment and make it scannable via a jump to subroutine.
Add a PIDE instruction in the function block environment, configure lead lag and dead time, and simulate a loop using auto tune and storage arrays.
Pin the simulation loop in a function block to run in auto mode, wiring probe requests and a dead time array to model hiccups for PIDE tuning.
Configure a real-time simulation by adding a set point, applying dead time, and implementing a lead-lag with a seven-second loop. Explore gain, bias, and autotuning with proportional integral concepts.
Explore pid equations and how independent gains differ from dependent gains, with a focus on proportional, integral, and derivative terms, order of operation, and setpoint and unit considerations.
Create a pid trend to visualize how process setpoint, error, and actual temperature respond during auto tuning. Observe how integral and proportional terms shape the trend in real time.
Understand how dead time and the DDT array shape PID tuning, data flow, and trending by adjusting dead time and main task scan time, with proportional, integral, and derivative settings.
Tune the pid loop manually in independent mode, adjusting the proportional and integral gains, observe overshoot and the deadman zero crossover behavior, and plan auto tune.
Discover auto-tuning for independent PID loops, switch between manual and automatic modes, acquire tags, and interpret dead time, time constant, and gains to optimize control.
Switch to dependent mode and run auto tune to adjust PID gains and timing, measure dead time, and compare with independent mode.
Explore how the PIDE trainer logic operates, including manual and automatic modes, setpoint and CV control, slider-based tuning, and CSV-based scaling to simulate a PID process.
Learn to implement the PIDE trainer by rebuilding files, importing routines and trend, configuring FactoryTalk site edition, and validating CLX tag substitutions for version 20 and 31.
Reiterate how to rebuild and import using Studio 5000 versions 19 through 31. Provide access to trend data and FactoryTalk Site Edition to obtain all necessary files and guidance.
Learn how a PIDE loop works in independent & dependent mode with a simple & easy trainer that you can use anytime you want to practice. We also use the first section of this course to teach you how to program a PIDE loop in function block & why it is important to have the PIDE loop in a periodic task.
From programming a PIDE loop from scratch to building a trend & why using a trend is important for tuning in manual tune, also to see how a PIDE is responding in normal operation. This trainer has been proven to share deep knowledge with anyone who attends & is also designed to save you time by keeping the video length short & to the point.
We give you the HMI screen & the logic downloads to make learning easy.
It really doesn't get any better than this.
Key things that are included:
Program a Function Block PIDE Loop
Set up an Easy To Understand Trend
Manual Tune a PIDE Process Loop
Auto-Tune a PIDE Process Loop
Download the Trainer for Your Own Use
All video content zooms in to give an easy view of the screen where it is important to see along with highlighting areas as well. We have placed easy-to-read notes in the videos for extra guidance.