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Fundamentals of AIV, FIV, and Random Vibrations in Industrial Piping banner
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Fundamentals of AIV, FIV, and Random Vibrations in Industrial Piping

Fundamentals of AIV, FIV, and Random Vibrations in Industrial Piping banner
Preview this course
Self-paced Advanced

Fundamentals of AIV, FIV, and Random Vibrations in Industrial Piping

4(84)
16 enrolled
4941 views
₹ 10999
475 min
Anytime
English
4941 views
Anindya Bhattacharya
Anindya BhattacharyaAsset Engineer
  • 7-day money-back guarantee
  • Lifetime access
  • Certificate of completion
Volume pricing for groups of 5+

Why enroll

Participants should join this online course to understand

1. Theory of random vibrations.

2. Background theory behind acoustic and flow-induced vibrations.

3. Essentials of Energy Institute guideline for avoiding vibration-induced fatigue.

which will in turn up-skill the participant with the required knowledge to perform FIV and AIV analysis.

Is this course for you?

You should take this if

  • You work in Oil & Gas Upstream or Pharmaceutical & Healthcare
  • You're a Civil & Structural / Mechanical 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 Civil & Structural
  • You need live interaction with an instructor

Course details

This course provides a comprehensive introduction to Acoustic-Induced Vibrations (AIV), Flow-Induced Vibrations (FIV), and Random Vibrations in industrial piping systems. Participants will learn the fundamental mechanisms that cause vibrations in piping due to fluid flow, pressure fluctuations, and acoustic phenomena, as well as the impact of these vibrations on system integrity, fatigue life, and operational safety.

The program covers the theoretical background, practical analysis methods, and code-based considerations for vibration assessment, helping engineers understand how to predict, evaluate, and mitigate vibration-related issues.

Course suitable for

Key topics covered

1. What makes a vibration problem categorised as “random vibration”?-Some real life examples.

2. Various approaches to address random vibrations- Introduction to statistical approaches, concept of probability distribution functions.

3. Fourier Transform- the heart of random vibrations.

4. Acoustic and Flow induced vibrations- Associated fluid dynamics, Theoretical background

5. How to address Acoustic and Flow induced vibrations? - A detailed review of Energy Institute Guidelines.

6. Pipe supports used to suppress vibrations- Some real life examples.

7. Use of Viscous dampers to address random vibrations in piping systems- Background theory and applications.

Course content

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

3 modules26 lectures7 hr 55 min
  1. Intro to Trainer
    2 min
  2. Roadmap of the course
    6 min
  3. Vibration Basics
    42 min
  4. Random Vibration
    39 min
  5. Fourier Transformation
    16 min
  6. Concepts and Equations relevant to frequency domain analysis
    18 min
  7. Broadband and White Noise
    22 min
  1. Recap of First Session
    8 min
  2. Meaning of FIV & AIV
    22 min
  3. Monopole Dipole Quadrupole
    4 min
  4. Beam and Shell Modes of Vibration
    4 min
  5. Carucci & Mueller's Work on AIV
    37 min
  6. Eisinger and CSTI DT limits Different Methods available for AIV Analysis
    16 min
  7. Eisinger Approach, NORSOK L-002 Criteria
    4 min
  8. EI Guideline for AIV, Mathematical Analysis of AIV
    21 min
  9. Development of Screening Methodology
    29 min
  10. AIV-State of the Art
    2 min
  11. Steps to Mitigate damage due to AIV
    24 min
  1. Some Questions and Answers
    41 min
  2. Flow Induced Vibration Details
    17 min
  3. FIV as per EI Guidelines
    8 min
  4. Assessment of SBC
    18 min
  5. SBC Assessment-Part2
    26 min
  6. Appendix C of EI Guidelines, Mainline and SBC LOF-Based Actions
    8 min
  7. Quantification of Forces due to FIV
    10 min
  8. Vibration Acceptance Criteria and Miscellaneous
    31 min

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Questions and Answers

A: The hard boundary is acoustic power, not line velocity or ΔP by itself. EI screening is driven by sound power generated at the restriction because that energy excites shell modes and small-bore attachments; Mach number and ΔP are inputs, not the trigger. ISO 10816 is machinery-focused and comes too late in the lifecycle.

A: The gating value is geometry-driven excitation. FIV on small-bore connections correlates with unsupported length and branch configuration; verifying physical layout before forcing flow avoids adding energy into an unknown system. Measuring vibration after excitation or assuming self-damping skips the causal check.

A: The key fraction is percent-level conversion of ΔP·Q to sound power. EI-based screening stems from empirical observation that only a small slice of hydraulic energy becomes broadband noise, yet that slice is enough to drive shell vibration. Equal-power or velocity-only proxies miss the energy balance.

A: The controlling variable is sound power at the source. Diffusers reduce acoustic generation; thicker wall or material change addresses response, not excitation, and insulation affects radiated noise, not shell stress from internal pressure fluctuations.