ansys static structural analysis examples

You will learn how to define contacts and boundary conditions.Īble to do coupled thermal structural analysis.Īble to understand the practical approach of ANSYS workbench solver through examples. You will learn a step by step procedure to solve engineering problems using ANSYS workbench. How to create geometry using ANSYS modeler. You will learn about ANSYS workbench FEA numerical engineering problem solver. You will learn about what is finite element analysis and finite element methods. Simulate electrical devices such as motors, solenoids, etc. Temperature-dependent conductivity, convection, radiation, and materials allowed. Solve for temperature field and heat flux. Heat Transfer (steady-state and transient): Modal, harmonic, response spectrum, random vibration, flexible and rigid dynamics.

Linear and Nonlinear Structural analyses. The course basically covers the interface to ANSYS workbench for mechanical preference.Īnalysis types available in Workbench - Mechanical The course is about to correlate the Lerner with actual engineering problems.Īble to make understand the problem definition and solve it. This course covers the mechanical analysis using ANSYS workbench. Used to simulate interactions of all disciplines of Physics, Structural, Vibration, Fluid Dynamics, Heat Transfer and Electromagnetic for engineers. The dynamic amplification factor and phase lead are shown in Figure 1-5 and are plotted as functions of forcing frequency.ANSYS Workbench is the Numerical type of Engineering problem-solving software. In this case, the magnification factor is 1/(2ζ), and the phase angle is 270 degrees. In addition, any measurable displacement response will be 180 degrees out of phase with the loading (i.e., the displacement response will have the opposite sign from the force).

In this case, the structure does not respond to the loading because the loading is changing too fast for the structure to respond. If ω/ω n is much greater than 1, the dynamic amplification factor approaches zero, yielding very little displacement response. If ω/ω n is much less than 1, the dynamic amplification factor approaches 1 and a static solution is represented with the displacement response in phase with the loading.

The interrelationship among the natural frequency, the applied load frequency, and the phase angle can be used to identify important dynamic characteristics.

Ansys static structural analysis examples