ME-323: Chemical process control

Lectures in this course (68)

Covers the linearization method through two examples in process control.

Explores the Laplace transform of unit jump, exponential, sine, and cosine signals.

Covers Laplace transform rules, examples, signal transformation, and process control.

Introduces the concept of transfer function in dynamic systems analysis.

Covers the inverse Laplace transform with examples and methods for solving complex roots.

Covers complex roots, transfer functions for nonlinear systems, and Laplace transforms in forced responses.

Explains poles, zeros, and static gain in control systems and discusses thermal room studies.

Explores the impact of time constants on first-order system responses and introduces the concept of dominant time constant.

Explores the response of a first-order system to step and ramp inputs.

Covers the step response and gain of first-order integrating systems.

Covers the response of an overdamped second-order system to a step input.

Recaps the overdamped response of second-order systems and how damping affects the system's behavior.

Explores the critically damped response of a second-order system and the significance of steady-state gain.

Explores the underdamped response of a 2nd order system and how damping affects oscillation frequency and decay.

Explores how pole positions in a complex plane influence system responses.

Covers the calculation of transfer functions and responses for dynamical systems.

Presents exam problem examples illustrating the application of mathematical concepts in practical problem-solving.

Covers the types of control systems and loop transfer functions in process control.

Explains temperature regulation in tank systems through control loop elements and process control.

Covers the elements of a control loop and process control.

Page 2 of 4