The design and verification of pressure vessels are regulated by the design requirements outlined in the ASME Boiler and Pressure Vessel Code (BPVC). Designing a convention that meets the standards of the ASME BPVC code would result in a design that is characterized by a cautious approach. The present scenario may be effectively addressed via the use of contemporary finite element analysis (FEA) commercial software packages such as ANSYS. This training session will focus on the discussion of size optimization for pressure vessels that adhere to the design-by-analysis standards outlined in the ASME Sec. VIII Division 2 specification. The integration of ANSYS is used to do stress analysis, hence achieving the desired outcome.

This session introduces the ASME global plastic collapse criteria used in Design-by-Analysis to prevent gross structural failure under primary loads. It explains the concept of plastic collapse, the difference between global and local collapse, and the role of limit load and elastic–plastic analysis. Participants will gain practical insight into collapse load identification, including the Limit Load and Twice Elastic Slope methods, with relevance to real-world FEA and code-compliant design.

This 9-session layout is suitable for training, interview prep, or a short course module focused specifically on local criteria as per ASME Section VIII Div. 2.

The design and verification of pressure vessels are regulated by the design requirements outlined in the ASME Boiler and Pressure Vessel Code (BPVC). Designing a convention that meets the standards of the ASME BPVC code would result in a design that is characterized by a cautious approach. The present scenario may be effectively addressed via the use of contemporary finite element analysis (FEA) commercial software packages such as ANSYS. This training session will focus on the discussion of size optimization for pressure vessels that adhere to the design-by-analysis standards outlined in the ASME Sec. VIII Division 2 specification. The integration of ANSYS is used to do stress analysis, hence achieving the desired outcome.

This training provides a comprehensive understanding of Fitness-For-Service (FFS) assessments based on API 579-1/ASME FFS-1 (2021), focusing on evaluating the structural integrity of components containing flaws. Participants will learn the practical application of Level 1, Level 2, and Level 3 assessments, including Failure Assessment Diagram (FAD), crack growth analysis, and Leak-Before-Break (LBB) methodologies. The course also integrates 3D fracture mechanics simulation using tools such as ANSYS/SMART and FRANC3D, enabling accurate prediction of stress intensity factors, crack propagation behavior, and remaining life. Real industrial case studies and hands-on examples are included to bridge the gap between theory and practice.