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Basic Theory for Finite Element Analysis (FEA) and Implementation in the Framework of ASME Sec VIII D2 Part 5

Anindya Bhattacharya

Anindya Bhattacharya

Asset Engineer

$ 320

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Oil & GasMechanical
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Basic Theory for Finite Element Analysis (FEA) and Implementation in the Framework of ASME Sec VIII D2 Part 5

  • Trainers feedback

    5

    (1 reviews)

  • Course type

    Instructor led live training

  • Course duration

    14 Hrs

  • Course start date

    October 4, 2025

  • Language

    English

Why enroll

Here are some strong reasons why participants should join this online course:

1. Gain specialized knowledge in applying FEA according to ASME Section VIII, Division 2, Part 5—crucial for pressure vessel design and certification.

2. Learn only the necessary theoretical minimum, streamlining your understanding without overwhelming complexity—ideal for professionals who want clarity and focus.

3. Go beyond theory to understand how to implement FEA in real-world engineering scenarios, with a focus on stress classification, failure modes, and verification.

4. Bridges the Gap Between Theory and Industry Practice

5. Understand how FEA is used in actual Code compliance, which is often missing in general FEA courses.

6. Improves Confidence in Design-by-Analysis Methods

7. Avoid the trial-and-error approach by learning a concise, curated path designed specifically for pressure vessel engineers.

8. Mastering FEA for Code compliance is a highly valued skill in oil & gas, power, and process industries—making you a more competitive and capable engineer.

Opportunities that awaits you!

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Course details

This course aims to provide a rigorous and application-focused foundation in the theoretical minimum required for understanding and applying Finite Element Analysis (FEA), specifically within the framework of ASME Section VIII, Division 2, Part 5. The course is designed for engineers and professionals involved in pressure vessel design and analysis, who seek a deep yet streamlined grasp of the essential mathematical and physical concepts underlying FEA.

Participants will first be introduced to the fundamentals of solid mechanics, variational methods, and the finite element formulation of structural problems. Emphasis will be placed on interpreting stress-strain behavior, boundary conditions, and convergence requirements critical to accurate simulations. Building upon this foundation, the course will transition into practical implementation aspects, including mesh design, element selection, and verification strategies.

A core focus of the course is on applying FEA to meet the rigorous design-by-analysis requirements of ASME Sec VIII, Div 2, Part 5. This includes stress classification, elastic-plastic analysis, fatigue evaluation, and compliance with failure modes specified in the Code. By the end of the course, participants will be equipped with both the theoretical insight and practical tools to confidently apply FEA for Code-compliant design and evaluation of pressure-containing components.

The total duration of the online live course will be around 14 hours which will be conducted on 5 consecutive Saturdays (1:30 PM IST to 4:30 PM IST) starting from 4th October 2025 onwards.

Course suitable for

  • Oil & Gas
  • Energy & Utilities
  • Chemical & Pharmaceutical
  • Mechanical
  • Piping & Layout
  • Civil & Structural

Key topics covered

  1. What is Finite element analysis? Difference between analytical, finite element , finite difference and boundary element methods.

  2. The two approaches- Galerkin and Principle of minimum potential energy. How governing equations are developed for FEA?

  3. Displacement based approaches and other approaches of finite element analysis for structural mechanics.

  4. Element formulation- linear and higher order displacement functions.

  5. Different element types including their higher order versions- beam elements, triangular, quadrilateral, 3D elements, plate and shell elements,

  6. How to choose elements for an application?

  7. Mesh generation, mesh grading, element distortions, their allowable limits. Their effect on analysis results.

  8. Solutions of FE equations. Integration orders, reduced and full integration. Their effects. Brief overview of shear and membrane locking., rigid body modes, phantom modes, hourglass modes.

  9. Averaging vs non-averaging, convergence check.

  10. Post processing of FE results for piping and pressure vessel analysis.

  11. A brief overview of FE analysis for thermal/heat transfer problems.

  12. A brief overview of design by analysis rule of ASME SEC VIII D2 Part 5.

  13. How FE theory is incorporated in ASME SEC VIII D2 Part 5.

  14. Element of theory of plasticity, its incorporation in ASME SEC VIII D2 Part 5 and its FE implementation. Brief overview of Riks algorithm.

  15. FE analysis of bucking/elastic/elastic-plastic instability problems and its implementation in the framework of ASME SEC VIII D2 Part 5.

Training details

This is a live course that has a scheduled start date.

Live session

2.8 Hours every day

5 Days

Why people choose EveryEng

Industry-aligned courses, expert training, hands-on learning, recognized certifications, and job opportunities—all in a flexible and supportive environment.

$ 320

October 4, 2025

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