Increase Kp until the loop responds
Proportional gain creates an immediate correction. Too little is slow; too much produces cycling or actuator saturation.
Change Kp, Ki and Kd, run the process, and get an objective tuning score.
First challenge
Tune a delayed temperature loop
Hold a 60 °C setpoint on a first-order process with an 8 s time constant and 2 s transport delay.
Reusable lab resources
PID tuning recordCSVInteractive tuning lab
Hold a 60 °C setpoint on a first-order process with an 8 s time constant and 2 s transport delay.
The backend calculates the expected result and returns individual checks, a score and reproducible evidence. Client-supplied scores are ignored.
Your run is free. Keep the evidence when it matters.
Create an account only when you want saved attempts, projects, sharing and progress.
Training outcomes
Each run teaches a transferable industrial workflow and produces evidence you can inspect, repeat and discuss.
See how proportional, integral and derivative terms change the same process.
Compare overshoot, settling time, final error and IAE instead of tuning by appearance.
Save alternate tunings and share a read-only setup for peer review.
Progress from a free run to graded tuning records and training evidence.
Field method
Proportional gain creates an immediate correction. Too little is slow; too much produces cycling or actuator saturation.
Integral action accumulates error and eliminates steady-state offset. Aggressive integral gain creates overshoot and wind-up, especially when the output saturates.
Derivative action anticipates change and can damp a clean process. On noisy measurements it amplifies noise, so real controllers normally filter the derivative term.
Continue from a single exercise to a complete training record.
Guided scenarios, saved progress, fault diagnosis and instructor reporting are built into the main platform.