Combine models of physical processes—such as fluid flow and heat transfer—with statecharts to manage event-driven actions, effectively mimicking real-world industrial process automation.

Find an optimal control signal for a continuously stirred tank reactor (CSTR).

Understand the workings of PI controllers used in a three-tank system and visualize the tanks.

Use the Functional Mock-up Interface (FMI) to export a model from System Modeler and import it in NI VeriStand to test a system in real time.

Connect a process plant model and a real-world Programmable Logic Controller (PLC) in System Modeler.

This model analyzes the stresses that a pressure vessel experiences from expanding and contracting gases. Characteristics for different gases are built in, taken from the Modelica.Media library.

An important control problem is to design controllers for nonlinear systems using model inversion control. The following example uses an InverseBlockConstraints component to easily construct inverse models. It also uses the Modelica_Synchronous Library to automatically discretize the continuous-time nonlinear feedforward controller.

When doing a chemical experiment, it is useful to know how much product you will obtain when you mix certain amounts of reactants. This is particularly useful in real-world settings, such as in chemical production or chemical analysis. In this example, you will learn how to predict the outcome of a reaction, given the initial amounts of reactants and the ratio between the products and substrates.

Most chemical reactions are not irreversible and in fact go in both directions. However, all reversible reactions reach a steady state in which the concentrations of the substrates within the reaction become constant. In this example, you will learn to model a reversible chemical reaction and analyze the dynamics of the reaction. You will learn about equilibrium constants and reaction rates.

Heterogenous equilibrium refers to reversible reactions where the substrates of the reactions are in different phases. One of the most useful types of such reactions is where a solid is dissolved in an aqueous solution. In this example, you will learn about heterogenous equilibrium and understand the concept of solubility.

Chemical reactions occur at different rates and vary widely in the speeds at which they occur. Some reactions occur very fast; for example, an explosion or combustion of fuel in a race car. In this example, you are going to work with chemical kinetics and the study of rates of chemical processes. You will learn how to calculate rate, reaction order and half-life of a reaction.