Introduction to Pipe Stress Engineering: Fundamentals 1
-
7hr 30min
-
818 enrollments
-
Rated 4.9 / 5.0
-
Certificate included
-
Self-paced
-
ASME B31.3
-
ASME B31.8
Why take this course?
Build a structured foundation in pipe stress engineering, so you can understand piping loads, codes, equipment interfaces, stress criticality selection, and wall thickness calculations with stronger engineering judgement.
What you'll learn
After this course, you will be able to:
- Understand why pipe stress analysis is performed and where it fits in piping system design
- Recognize the different loads relevant for pipe stress engineering and how they are classified
- Understand primary, secondary, occasional, and dynamic loads
- Explain the basic relationship between force, moment, material stress, and piping system behaviour
- Understand the differences between stress analysis for piping, pipelines, onshore systems, and offshore systems
- Recognize the role of piping codes, equipment codes, and international standards in pipe stress work
- Understand equipment interfaces, overloaded nozzles, and the relevance of pumps, compressors, turbines, heat exchangers, vessels, columns, and other equipment
- Understand the main types of stress analysis, including visual, manual, computational, static, and dynamic analysis
- Perform piping stress criticality selection at a basic level
- Understand pipe wall thickness calculations according to ASME B31.3 and ASME B31.8
-
1-year access
-
By Industry Experts
-
100% Online Course
About the course
Pipe stress engineering is not only about running calculations. Engineers need to understand why a pipe stress analysis is required, which loads matter, how piping systems behave, and how codes, standards, equipment limits, and wall thickness requirements influence design decisions.
This course gives you a structured introduction to pipe stress engineering. It explains the design philosophy behind pipe stress analysis, the basic mechanics of forces, moments, and material stress, and the differences between piping, pipelines, onshore systems, offshore systems, static analysis, and dynamic analysis.
The course also introduces the codes and standards that affect pipe stress work, including ASME, European, international, local, onshore, and offshore piping codes. It connects these requirements to equipment codes, nozzle loading, equipment interfaces, piping stress criticality selection, and wall thickness calculations according to ASME B31.3 and ASME B31.8.
-
Self-Paced Course
-
7hr 30min
-
7.5 PDH Credit
-
English
-
SPC501
Meet your instructor
Stressman Engineering
Stressman Engineering is the course partner for this training, whose expertise listed in pipe stress, piping design, FEA, and Ansys. Their courses focus on practical pipe stress engineering topics that help engineers understand piping loads, design philosophy, code context, analysis methods, equipment interfaces, and calculation decisions used in real piping system work.
Who should attend this course
- Piping design engineers and piping design leads who need to understand the basics of pipe stress engineering to make better design decisions
- Junior pipe stress engineers with 0–3 years of experience who want a structured introduction to the discipline
- Mechanical engineers who need a broader understanding of piping system design and pipe stress requirements
- Process engineers who work with piping systems and need to understand how loads, equipment interfaces, and codes affect design decisions
- Structural engineers who interface with pipe supports, loads, equipment, and piping stress requirements
- Engineers who want to improve technical discussions with colleagues, vendors, and clients on pipe stress topics
Program & Details
-
Module 1 - Why do a Pipe Stress Analysis?
Understand the purpose of pipe stress analysis and why it matters in piping system design.
- Definition of pipe stress analysis
- What a piping stress analysis is
- Why engineers perform stress analysis -
Module 2 - Back to Basics
Build the mechanical foundation required to understand pipe stress behaviour.
- Forces and moments
- Material stress
- Common types of stress
- Primary loads
- Secondary and occasional loads
- Primary versus secondary load classification
- Dynamic loads
- Summary and further discussion of piping load classification -
Module 3 - Stress analysis on various systems
Learn how pipe stress analysis differs across system types and project contexts.
- Types of loads
- Piping versus pipelines
- Onshore versus offshore systems
- Piping stress analysis scenarios
- Pipeline stress analysis scenarios
- Static versus dynamic stress analysis -
Module 4 - Piping Codes & Standards
Understand the codes and standards that provide the technical basis for pipe stress work.
- Codes and standards for pipe stress
- ASME codes
- European codes
- International standards
- ASD versus LFRD
- Onshore and offshore piping codes
- Other international and local piping codes
- Recommended reference document -
Module 5 - Equipment Codes & Standards
Understand how equipment codes and equipment interfaces affect piping stress decisions.
- Equipment codes in process piping systems
- Overloaded nozzles and further discussion
- Centrifugal pumps
- Positive displacement pumps
- Centrifugal compressors
- Reciprocating compressors
- Steam turbines
- Shell-and-tube heat exchangers
- Plate heat exchangers
- Air-cooled heat exchangers
- Remaining equipment types
- ASME vessels and columns
- PD5500 vessels and columns
- Onshore pipeline equipment and components
- Offshore equipment codes
- Plastic piping codes -
Module 6 - Types of stress analysis
Learn the main types of pipe stress analysis and how analysis depth is selected.
- Stress criticality selection
- Visual analysis
- Manual analysis
- Comparison of analysis types
- Computational analysis and FEA
- Static versus dynamic computational analysis
- Selection methods
- Stress criticality selection examples -
Module 7 - Wall thickness calculation
Work through pipe wall thickness calculation concepts according to ASME B31.3 and ASME B31.8.
- Wall thickness calculation per ASME B31.3
- Weld Joint Quality Factor, E
- Weld Joint Strength Reduction Factor, W
- Material Coefficient Factor, Y
- Corrosion allowance
- Wall thickness calculation per ASME B31.8
- ASME B31.3 Chapter II examples based on OD and ID
- ASME B31.3 Chapter IX high-pressure piping examples based on OD and ID
- ASME B31.8 Chapter VIII examples
Certification
Related courses
Why choose EngineeringTrainer?
-
Earn a course certificate
-
Courses by Industry Authorities
-
Advance Technical Competences
This course is one of the best I have seen with a high content of information for pipe stress engineering, supported with references in codes and standards, and showing very clear examples.
Daniel Melgar, Piping Engineer
Request a Quote
Train Smarter. Grow Faster.
Build real-world skills that help you make better engineering decisions, reduce errors, and stand out in your field.