Learn computational methods for stress, strain, and thermal analysis of complex structures using industry-standard simulation tools.
About this course
Finite Element Analysis (FEA) is a computational method used to predict how structures behave under real-world loads, heat, and other physical effects. In this course, you will learn to model complex geometries and solve for stress, strain, and thermal distribution using industry-standard simulation software.
You will start with the mathematical foundations of the method, then move to practical application. You will build models, apply boundary conditions, and interpret results to make engineering decisions. The course emphasizes accuracy, validation, and the limitations of simulation data.
Who takes this course
This course is an elective for students in the Mechanical Engineering Technology program. It is designed to give you advanced skills in structural analysis that are highly valued in manufacturing, automotive, and aerospace industries.
While not mandatory for graduation, this course complements the capstone project in Mechanical Engineering Technology, where you will need to demonstrate structural integrity in your final design.
Credits: 3 · Hours: 45
Prerequisites
Learning outcomes
- Select appropriate element types and boundary conditions for structural and thermal problems.
- Build finite element models using industry-standard simulation software.
- Interpret simulation results to validate design performance against safety standards.
- Identify sources of numerical error and refine mesh density for accuracy.
- Analyze thermal gradients and their impact on material stress in complex assemblies.
Evaluation
| Component | Weight (%) |
| Simulation assignments | 40 |
| Mid-term exam | 25 |
| Final project report | 35 |