Design|
Simulate| Innovate.

Master Computational Fluid Dynamics (CFD) using ANSYS through a comprehensive, practical, and project-oriented training program designed to develop real-world simulation skills. The course takes you through the complete CFD workflow, starting with geometry preparation and computational domain development, followed by professional meshing techniques, mesh-quality evaluation, and mesh-independence studies. You will learn to set up and analyze laminar and turbulent flows, investigate external aerodynamic flows, and understand the simulation of compressible flows under different operating conditions. The course also introduces coupled fluid-structural simulations, moving-zone simulations, and the fundamentals of reacting-flow analysis, providing exposure to a broad range of engineering CFD applications. Particular emphasis is placed on understanding solver settings, numerical schemes, simulation setup, convergence, and result interpretation, rather than simply learning software commands. You will learn how to evaluate pressure and velocity fields, interpret flow behavior, identify important flow characteristics, and extract meaningful engineering conclusions from simulation results. The training combines live interactive instruction, hands-on practical simulations, assignments, and project-based learning, allowing participants to apply the concepts to engineering problems and develop a structured approach to CFD analysis. The course is suitable for beginners as well as engineering professionals and does not require prior ANSYS experience.

Master ANSYS Mechanical from the fundamentals to practical engineering simulation through a structured, hands-on learning program designed for beginners. This course provides a comprehensive introduction to the ANSYS Mechanical environment and the complete workflow required to perform engineering simulations. Starting with geometry preparation and DesignModeler, participants will learn how to prepare models, generate high-quality meshes, define materials, establish contacts and boundary conditions, apply realistic loading conditions, and set up simulations correctly. The course covers a broad range of mechanical engineering analyses, including Static Structural, Nonlinear Structural, Transient Structural, Explicit Dynamics, Steady-State Thermal, Transient Thermal, Modal, and Harmonic Response Analysis. Particular attention is given to understanding the underlying engineering concepts, selecting appropriate analysis settings, evaluating mesh quality, and interpreting simulation results correctly. Participants will learn how to investigate stress, strain, deformation, temperature distribution, natural frequencies, mode shapes, dynamic response, and other important engineering parameters through practical simulation exercises. The training emphasizes learning by doing, with practical examples, guided exercises, assignments, and project-based learning. By the end of the course, participants will have developed a structured understanding of the ANSYS Mechanical workflow and the confidence to approach engineering simulation problems independently. No prior ANSYS or FEA experience is required. The course is suitable for beginners as well as engineering students and professionals who want to develop practical skills in finite element analysis and mechanical simulation.