Model ice contact with propellers and investigate these forces with standardized load test cases.

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.

Use System Modeler’s reliability capabilities to study how heat affects the mean time to failure for an electrical circuit.

Have you thought about making your own music instruments? This example shows how you can design sound using virtual modular synthesizers.

The world model is one of the most famous applications of the system dynamics methodology, here implemented using the System Dynamics library.

Boost converters are used to step up voltage from a lower level to a higher level. Boost converters can be found in electrical vehicles to increase the voltage from a battery stack to the engine and in LED lights to increase the voltage from a battery cell to the light diode.

Buck-boost converters are used both to step up voltage from a lower level to a higher level and to step down voltage from a higher level to a lower level. Buck-boost converters can be found in applications where the supply voltage changes over time, such as battery-powered applications.

Buck converters can be found in a large number of applications, including the conversion of the main voltage in computers to a lower level that can be used by processors.

Model a full-wave bridge rectifier to efficiently convert alternating current to direct current.

Import standalone models from other FMI-compliant tools and run in synchronous mode with your models. This example models a satellite with a combination of 3D mechanics and block-based control logic.

Perform immediate and interactive analysis of your system using customizable plots in the Simulation Center. This example illustrates that, using a model with a series of clutches engaging at different times.

Speed control mechanisms have a wide range of applications, ranging from supervising the motion of elevators to steering an autonomous vehicle. This example shows a workflow of how you could create a speed controller for a DC motor.

Hovering control aids in the maneuverability of underwater vehicles. This example shows how to create a controller that rejects disturbances and improves the stability of a submarine.

Navigating quickly from one depth to another is an operational requirement for a submarine. For stealth operations, it is important that there be no oscillations during this motion. The following example shows how to design a controller for such applications.