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Mastering Pipe Stress Analysis using Caesar II Software (Basics to Advanced) with Certification banner
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Mastering Pipe Stress Analysis using Caesar II Software (Basics to Advanced) with Certification

Mastering Pipe Stress Analysis using Caesar II Software (Basics to Advanced) with Certification banner
Preview this course
Self-paced Advanced

Mastering Pipe Stress Analysis using Caesar II Software (Basics to Advanced) with Certification

4(408)
31 enrolled
15269 views
₹ 35000
2161 min
Anytime
English
15269 views
Anup Kumar Dey
Anup Kumar DeyOwner of https://whatispiping.com/
  • 7-day money-back guarantee
  • Lifetime access
  • Certificate of completion
Volume pricing for groups of 5+

Why enroll

This course is the most comprehensive pipe stress analysis course available in the market. By joining this course you will be able to learn all the basic concepts of pipe stress analysis. The participant will be able to learn the use of Caesar II software. All the examples used in Caesar II modeling and analysis are from actual projects, so you will have an actual understanding of the job that you will be performing in live projects.

Finally, by digesting the contents delivered through the modules you will be able to improve your skill to such an extent that you will be easily employable by various reputed organizations. Also, if you are looking for a job change, the job-hunting process will be easier for you.

Is this course for you?

You should take this if

  • You work in Oil & Gas Upstream or Pharmaceutical & Healthcare
  • You're a Mechanical Engineering / Piping & Layout Engineering professional
  • You have 3+ years of hands-on experience in this field
  • You prefer self-paced learning you can revisit

You should skip if

  • You're new to this field with no prior experience
  • You need a different specialisation outside Mechanical Engineering
  • You need live interaction with an instructor

Course details

Please note that due to certain technical problems, the course is renamed and full content is moved to a new link as follows: https://www.everyeng.com/learn/96aa8069/advanced-pipe-stress-analysis-for-beginners-layout-materials-and-construction-professionals

Whoever had enrolled in this course has already given access to the above new link. Kindly check at your end and confirm.

The main objective of this course is to help you upgrade your knowledge to such an extent that you can feel yourself as an advanced pipe stress engineer. This course will cover all the basic concepts, and theories, in a simple way. The course will be divided into 4 parts.

Part A will cover the basic theories that are required to analyze stress systems using software programs. This section will prepare you to work as a pipe stress engineer.

Part B will cover the static analysis methodologies of the piping system in Caesar II software. This section will explain various modeling techniques, analysis methodologies, nozzle load qualification, and other required details.

Part C will cover the dynamic analysis philosophies and explain some of the dynamic modules of Caesar II.

Part D will explain some other details that are required for becoming an advanced pipe stress engineer.

So, overall, the course will cover the maximum of the pipe stress analysis methodologies in great extent. Please be patient as the course is going to be very long as it will clear most of your doubts. Even it will prepare you for your upcoming interviews by answering some of the questions.

Additionally, All participants will get 2-hours of doubt clearing session directly with the mentor.

Course suitable for

Key topics covered

Please note that due to certain technical problems, the course is renamed and full content is moved to a new link as follows: https://www.everyeng.com/learn/96aa8069/advanced-pipe-stress-analysis-for-beginners-layout-materials-and-construction-professionals

Whoever had enrolled in this course has already given access to the above new link. Kindly check at your end and confirm.

Part A: Basics of Pipe Stress Analysis

  • What is Pipe Stress Analysis?

  • Stress Critical Line List Preparation with Practical Case Study

  • Inputs Required for Pipe Stress Analysis

  • Basics of ASME B31 3 for a Piping Stress Engineer

    • ASME B31.3 Scopes and Exclusions

    • Why stress is generated in a piping system

    • Types of Pipe Stresses

    • Pipe Thickness Calculation

    • Reinforcement Requirements

    • ASME B31.3 Code Equations and Allowables

  • Introduction to Pipe Supports

    • Role of Pipe Supports in Piping Design

    • Types of Pipe Supports

    • List of Pipe Supports

    • Pipe Support Span

    • How to Support a Pipe?

    • Pipe Support Optimization Rules

    • Pipe Support Standard

    • Support Engineering Considerations

  • What is a Piping Isometric?

  • What is an Expansion Loop?

  • Bonus Lecture: Introduction to Pipe Stress

  • Bonus Lecture: Pressure Stresses in Piping

Part-B: Static Analysis in Caesar II

  • Introduction to Caesar II

  • Getting Started in Caesar II

  • Stress Analysis of Pump Piping System

  • Creating Load Cases

  • Wind and Seismic Analysis

  • Generating Stress Analysis Reports

  • Editing Stress Analysis Model

  • Spring Hanger Selection and Design in Caesar II

    • Introduction

    • Types of Spring Hangers

    • Components of a Spring Hanger

    • Selection of Variable and Constant Spring hangers

    • Case Study of Spring Hanger Design and Selection

    • Certain Salient Points

  • Flange Leakage Analysis in Caesar II

    • Introduction

    • Types of Flange Leakage Analysis and Background Theory

    • Case Study-Pressure Equivalent Analysis

    • Case Study-NC Method

    • Case Study-ASME Sec VIII method

  • Stress Analysis of PSV Piping System

    • Introduction

    • PSV Reaction force Calculation

    • Applying PSV Reaction force

    • Practical Case Study

    • Certain best practices

  • Heat Exchanger Pipe Stress Analysis

    • Introduction

    • Creating Temperature Profile

    • Modeling the Heat Exchanger

    • Nozzle Load Qualification

    • Practical Case Study

    • Methodology for shell and tube inlet nozzle stress analysis

  • Vertical Tower Piping Stress Analysis

    • Introduction

    • Creating Temperature Profile

    • Equipment Modeling

    • Modeling Cleat Supports

    • Skirt temperature Calculation

    • Nozzle Load Qualification

    • Practical Example

  • Storage Tank Piping Stress Analysis

    • Introduction

    • Reason for Criticality of storage tank piping

    • Tank Settlement

    • Tank Bulging

    • Practical example of tank piping stress analysis

    • Nozzle Loading

  • Pump Piping Stress Analysis

    • API610 Pump nozzle evaluation using Caesar II

Part C: Dynamic Analysis is Caesar II

  • Introduction-Dynamic Analysis in Caesar II

  • Types of Dynamic Analysis

  • Static vs Dynamic Analysis

  • Dynamic Modal Analysis

  • Equivalent Static Slug Flow Analysis

  • Dynamic Response Spectrum Analysis

Part D: Miscellaneous other details

  • WRC 297/537 Calculation

    • What is WRC 537 and WRC 297

    • Inputs for WRC Calculation

    • WRC Calculation with Practical Example

  • Underground Pipe Stress Analysis

  • Jacketed Piping Stress Analysis

  • Create Unit and configuration file in CAESAR II

  • ASME B31J for improved Method for i, k Calculation in Caesar II

  • Discussion about certain Questions and Answers

  • GRE/FRP Pipe stress analysis

    • GRE Pipe Stress Analysis using Caesar II

    • GRE Stress Analysis-Basics

    • FRP Pipe Stress Analysis Case Study

    • GRE Flange leakage Analysis

    • Meaning of Stress Envelope; Understand it

  • Reviewing A Piping Stress System

    • Introduction

    • What to Review

    • Reviewing Steps

    • Case Study of Reviewing Pipe Stress Analysis Report

    • Reviewing Best Practices

  • FIV Study

    • Flow Induced Vibrations-Introduction

    • What is Flow Induced Vibration

    • Flow Induced Vibration Analysis

    • Corrective-Mitigation Options

  • AIV Study

    • Introduction

    • What is Acoustic Induced Vibration

    • Acoustic Induced Vibration Analysis

    • Corrective-Mitigation Options

  • 2-hours of Doubt-clearing session with the mentor

Course content

The course is readily available, allowing learners to start and complete it at their own pace.

2 modules48 lectures36 hr 1 min
  1. Part-A: What is Pipe Stress Analysis?
    57 min
  2. Part-A: Bonus Lecture: Introduction to Pipe Stress
    63 min
  3. Part-A: Bonus Lecture: Pressure Stresses in Piping
    11 min
  4. Part B: Bonus-Large Storage Tank nozzle evaluation on CaesarII based on API650
    38 min
  5. Part B: Pump Piping Stress Analysis Part 1
    126 min
  6. Part B: Pump Piping Stress Analysis-Part 2
    88 min
  7. Part B: Pump Piping Stress Analysis-Part 3
    129 min
  8. Part B: Pump Piping Stress Analysis-Part 4
    114 min
  9. Part B: Pump Piping Stress Analysis-Final Part
    89 min
  10. Part B: API610 Pump nozzle evaluation using CaesarII
    16 min
  11. Part D: Jacketed Piping Stress Analysis
    51 min
  12. Part D: Create Unit and configuration file in CAESAR II
    10 min
  13. Part D: ASME B31J for improved Method for i, k Calculation in Caesar II
    37 min
  14. Part D: Discussion about certain question and answers on pipe stress analysis
    82 min
  15. Part D: Questions and Answers
    58 min
  16. Part D: Questions and Answers-Final Part
    55 min
  17. Part D: GRE Stress Envelope-Part1
    23 min
  18. Part D: GRE Stress Envelope-Part2
    23 min
  19. Part D: GRE Stress Envelope-Final Part
    28 min
  20. Part D: An Overview of Pipe Stress Analysis-A detailed study
    258 min
  21. Part D: Additional Resources-Material Stresses in Piping
    7 min
  22. Part D: Additional Resources-Radial Stresses in Piping
    8 min
  23. Part D: Additional Resources-Forces and Moments in Piping
    6 min
  24. Part D: Additional Resources: Stress vs Strain
    8 min
  25. Part D: Additional Resources-Mohr's Circle & Principle Stresses
    10 min
  26. Part D: Additional Resources-Secrets Behind Caesar II-Theory and Calculations
    16 min
  27. Certain basics of HDPE Pipe Stress Analysis
    105 min
  28. Trunnion Support Design in Caesar II
    25 min
  1. Fiberglass and Steel Piping: Differences in Engineering
    75 min
  2. PIPING SPRING HANGER CONCEPT
    37 min
  3. Types of Pipe Stresses
    79 min
  4. Stress Intensification Factor (SIF) & Sustained Stress Index (SSI)
    46 min
  5. Air Cooler Modeling on Caesar II
    10 min
  6. Pump Station Piping Design and Stress Analysis
    9 min
  7. A brief about Reboiler Piping Stress Analysis
    7 min
  8. Gas Outlet Piping Stress Analysis
    8 min
  9. Air-Cooled Heat Exchanger Piping
    9 min
  10. Solving vibration problems in a two-phase flowline
    82 min
  11. Analysis of Surge Problems with CAESAR-II and BOS-fluids
    62 min
  12. Integration for Productivity with CAESAR II & CADWorx
    53 min
  13. CAESAR II UNDERGROUND PIPE STRESS ANALYSIS
    32 min
  14. Flange calculations according to EN 1591-1
    61 min
  15. Spring Supports in Piping Design
    11 min
  16. Mechanism of variable spring hanger
    4 min
  17. Mechanism of constant spring hanger
    5 min
  18. How to install Spring Support at site
    7 min
  19. How to select spring hanger - for piping engineers
    14 min
  20. Internals of variable spring hanger
    9 min

Opportunities that await you!

Skills & tools you'll gain

Caesar II

Career opportunities

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Questions and Answers

A: That's the most common mistake — assuming anchors when stiffness is unknown. The difference matters because nozzle loads swing hard with restraint stiffness, and COMAH auditors look for uncertainty management. Sensitivity runs show you've bounded risk rather than guessed a single compliant case.

A: That's the most common mistake — jumping straight to yield. The difference matters because fully restrained thermal stress is E·α·ΔT, and for CS that's roughly 200 GPa × 12e-6 × 150, landing near 30–40 MPa, not plastic collapse.

A: That's the most common mistake — mixing sulfidation with wet H2S. The difference matters because at these temperatures and partial pressures, sulfide stress cracking governs, so hardness limits and PWHT drive both material and stress allowables.

A: That's the most common mistake — swapping to rigid because data’s missing. The difference matters because over-constraining vertical movement inflates stresses. Bounding spring behaviour and checking travel shows you've respected as-built intent.