Ansys Innovation Courses

Ansys Innovation Courses are award-winning, free, online physics and engineering courses designed for educators, students and engineers to enhance simulation and physics learning.

Ansys Innovation Courses are award-winning, free, online physics and engineering courses.

The ever-expanding course offering is designed with educators, students and engineers in mind. High school educators and college professors can assign the courses to enhance simulation and physics learning in the classroom, while students and engineers can take these self-paced courses to deepen their understanding of selected subjects.

The course content uses an Ansys simulation environment to present and reinforce physics fundamentals. Each Ansys course includes videos, handouts, practice or homework problem sets and short quizzes.


Comprehensive skill-building courses providing just-in-time and on-demand learning


Watch engaging online video lectures from subject matter experts


Solve practical hands-on examples using Ansys software


Test your retention using quizzes and homework



3D Design




Student Teams






Learn through predefined series of courses

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In this course, will go over several workshop examples, that demonstrate the fundamental aspects of the Ansys Fluent Meshing Watertight Geometry Workflow, to generate simulation ready mesh. Each example contains a video walkthrough to be used for recreating the mesh. CAD files will be provided for recreating the mesh based on the walkthrough. Final mesh file has also been provided for reference.

Fluid-solid heat transfer simulations model heat transfer within and between fluids and solids to allow analysis of temperature distribution in both regions. In this course, you will learn how to use Ansys Discovery to perform a conjugate heat transfer (CHT) simulation to predict temperature and flow distribution.

Be it the plumbing in our homes or transportation of oil through pipelines, we encounter internal flows in various aspects of our lives. Hence, having the knowledge of simulating internal flows becomes very significant. In this course, you will learn how to use Ansys Discovery to perform internal fluid flow simulations.

A static structural simulation determines the effect of steady (or static) loading on a structure. Stress, strain, and deformation of a structure can be studies under a range of loading conditions. This helps to identify weak areas with low strength and durability at the design stage and avoid expensive failures. In this course, you will learn how to use Ansys Discovery to perform static structural simulations.


In this course, we will demonstrate the workflow for setting up an Ansys Lumerical FDE simulation to find the supported modes of a waveguide and analyze the frequency response of the modes. We will learn what types of devices and applications can be simulated using the FDE solver, and the types of results that can be obtained using the analysis tools.

In this course, we will discuss the algorithm used to find the eigenmodes of a given structure and the properties of those modes in Ansys Lumerical FDE. We will also explain the overlap and power coupling calculations, the feature that tracks modes as a function of frequency, and how properties such as dispersion and group velocity are calculated. By the end of this course, you will be able to describe the algorithm used by the FDE solver, know when the FDE method can be applied, understand the difference between the overlap and power coupling quantities, and know how the overlap frequency sweep calculations are performed.

In this course, we will learn about the material database and how to add new materials. We will also learn when broadband material fits need to be generated and how to check material fits. By the end of this course, you will be able to add new materials to the material database, know when broadband material fits need to be used, check material fits in the material explorer, and know where to find more information on the material models.

In this course, we will simulate the following microwave passive components from one of the standard microwave textbooks using HFSS, HFSS Circuit and HFSS 3D Layout design types which are part of the AEDT platform.

- Branchline Coupler

- T Junction Power Divider

- Wilkinson Power Divider

- Microwave Filter

- Single Section Coupler

In this course, the Ansys Maxwell Eddy Current solver and electrothermal two-way coupling between Ansys Maxwell and Ansys Icepak will be discussed.
This course starts with the simulation of an electromagnetic brake (EMB) using the Maxwell Eddy Current solver. It also covers the simulation workflow required to perform electrothermal analysis using Maxwell and Icepak inside Ansys Electronics Desktop (AEDT) Student version. Finally, we will see the temperature rise in parts of the EMB by changing the source parameters.


Every electronic device or circuit generates heat during its operation. The level of heat thus generated may vary depending on operating power, components density, type of components, etc. present in that device. Heat can degrade the performance of any electronic circuit if it is above the threshold level. Even a small amount of heat over the long run can also have negative effects. For any designer, it is crucial to see if the amount of heat generated is within the operable limits of the device or not. Hence thermal analysis of any electronic device is very important as it can identify the heat sources and the amount of heat generated at various operating points.
This course is designed to demonstrate the workflow for Electro-Thermal Management (ETM) using HFSS and Icepak inside the student version of Ansys Electronics Desktop.



Scripting is a useful tool available in Ansys Discovery. In this course, we will cover the basics of core scripting skills to get started with scripting in Ansys Discovery. We will learn how to access different objects in Ansys Discovery, select entities by their names, or by named selections. In a series of demonstrations, we will learn how to do geometric feature operations such as cylinder, cone and block creation, making copies of an object, and rotating or translating objects. After completing this course, you will be ready to use the scripting capabilities in Ansys Discovery.

This course will introduce you to various orbital transfers and their uses.

This course introduces you to various orbit types and the orbital elements that define them. You will also learn about the common uses and benefits of the different orbit types.

An orbit is a closed “path” around which a planet or satellite travels.  In the simplest sense, orbits are a type of "racetrack" in space that a satellite "drives" around. How fast would a car have to “drive” to stay in orbit? In this course you will learn the basics of orbits. You will learn the Keplerian orbital elements, Kepler’s laws, and coordinate systems.