One of the greatest strengths of Tinkercad is the smooth transition to physical hardware. Once you have a working PID simulation:

double Kp = 2.0, Ki = 0.5, Kd = 1.0; // These are your "tuning" parameters double setpoint, input, output; double error, lastError, cumError, rateError; void loop() input = readSensor(); // Get current position setpoint = readPotentiometer(); // Get desired position error = setpoint - input; // Calculate the gap cumError += error; // Integral: Sum of errors over time rateError = error - lastError; // Derivative: Change in error // The PID Formula output = (Kp * error) + (Ki * cumError) + (Kd * rateError); driveMotor(output); // Apply the correction lastError = error; // Save for next loop delay(10); Use code with caution. How to Tune Your PID in Tinkercad

Reacts to the current error. If the error is large, the correction is large.

// 2. Calculate Time

Tinkercad Pid Control _top_

One of the greatest strengths of Tinkercad is the smooth transition to physical hardware. Once you have a working PID simulation:

double Kp = 2.0, Ki = 0.5, Kd = 1.0; // These are your "tuning" parameters double setpoint, input, output; double error, lastError, cumError, rateError; void loop() input = readSensor(); // Get current position setpoint = readPotentiometer(); // Get desired position error = setpoint - input; // Calculate the gap cumError += error; // Integral: Sum of errors over time rateError = error - lastError; // Derivative: Change in error // The PID Formula output = (Kp * error) + (Ki * cumError) + (Kd * rateError); driveMotor(output); // Apply the correction lastError = error; // Save for next loop delay(10); Use code with caution. How to Tune Your PID in Tinkercad tinkercad pid control

Reacts to the current error. If the error is large, the correction is large. One of the greatest strengths of Tinkercad is

// 2. Calculate Time