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Fluid Mechanics

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Preview this course
Self-paced Advanced

Fluid Mechanics

3(115)
4 enrolled
130 views
FREE
2074 min
Anytime
English
130 views
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Why enroll

Fluid Mechanics is a core subject for civil engineering students and professionals, as it underpins advanced topics such as hydraulics, irrigation engineering, environmental engineering, and river engineering. A strong understanding of this subject enables engineers to design safe and efficient pipelines, channels, pumps, and hydraulic structures. It is also essential for competitive exams, higher studies, and technical interviews.

Is this course for you?

You should take this if

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

Course details

The Fluid Mechanics course provides a comprehensive understanding of the physical laws governing the behavior of fluids under rest and motion conditions. It explains how fluid properties such as density, viscosity, surface tension, and compressibility influence flow behavior in engineering systems. The course builds a strong theoretical foundation for analyzing real-life fluid flow problems encountered in water supply, hydraulic structures, environmental systems, and industrial applications.

The course covers fluid statics, kinematics, and dynamics in detail, helping learners understand pressure variation in fluids, velocity and acceleration fields, and energy transfer in flowing fluids. Emphasis is placed on fundamental governing equations, dimensional analysis, and similitude, enabling students to model and predict fluid behavior accurately. By the end of the course, learners develop the ability to analyze pipe flow, open channel flow basics, and flow measurement systems, forming a base for advanced subjects like hydraulics, river engineering, and environmental engineering.

SOURCE-YouTube [NPTEL IIT Guwahati]

Course suitable for

Key topics covered

  1. Properties of fluids and fluid statics

  2. Pressure measurement and manometry

  3. Fluid kinematics and flow descriptions

  4. Fluid dynamics and fundamental equations

  5. Bernoulli’s equation and applications

  6. Flow through pipes and pipe networks

  7. Boundary layer theory

  8. Flow measurement devices

  9. Dimensional analysis and model studies

  10. Introduction to compressible flow

Course content

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

37 lectures34 hr 34 min
  1. Lec 1: Basic Concepts of Fluid
    67 min
  2. Lec 2: Properties of Fluid
    72 min
  3. Lec 3: Fluid Flow Analysis
    65 min
  4. Lec 4: Concepts of Hydrostatic
    60 min
  5. Lec 5: Measurement of Pressure and Hydrostatic forces
    47 min
  6. Lec 6: Buoyancy, Metacentre, Stability and Rigid body motion
    63 min
  7. Lec 7: Reynolds Transport Theorem
    68 min
  8. Lec 8: Conservation of Mass
    62 min
  9. Lec 9: Conservation of Momentum
    59 min
  10. Lec 10: Conservation of Momentum Applications
    61 min
  11. Lec 11: Bernoulli’s Equation
    55 min
  12. Lec 12: Applications of Bernoulli’s Equation
    58 min
  13. Lec 13: Fluid Statics Applications: Example Problems
    49 min
  14. Lec 14: Conservation of Momentum: Example problems
    47 min
  15. Lec 15: Bernoulli’s Equation : Problems Solving on Black Board
    53 min
  16. Lec 16: Lagrangian and Eulerian Descriptions
    59 min
  17. Lec 17: Motion and deformation of fluid elements
    46 min
  18. Lec 18: Problems Solving on Black Board
    57 min
  19. Lec 19: Dimensional Homogeneity
    46 min
  20. Lec 20: Dimensional Analysis and Similarity
    45 min
  21. Lec 21: Laminar and Turbulent Flows
    56 min
  22. Lec 22: Losses in Pipe Fittings
    57 min
  23. Lec 23: Flow in Noncircular Conduits and Multiple Path Pipeflow
    55 min
  24. Lec 24: Mass Conservation Equation- I
    30 min
  25. Lec 25: Mass Conservation Equation- II
    54 min
  26. Lec 26:Stream Function
    64 min
  27. Lec 27: Cauchy's Equation
    55 min
  28. Lec 28: The Navier-Stokes Equation
    62 min
  29. Lec 29: The Navier-Stokes Equation part 2
    61 min
  30. Lec 30: The Navier-Stokes Equation III
    56 min
  31. Lec 31: Approximate solutions of Navier Stokes Equation: Bounary Layer Approximation
    69 min
  32. Lec 32: Boundary Layer Approximation II
    60 min
  33. Lec 33: Boundary Layer Approximation III
    50 min
  34. Lec 34: Open Channel Flow Unlisted
    56 min
  35. Lec 35: Open Channel Flow II
    45 min
  36. Lec 36: Open Channel Flow III
    56 min
  37. Lec 37: Drag and Lift
    49 min

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Questions and Answers

A: Pulling pressure or raising level first drives droplets deeper into the demister, risking re-entrainment and wet gas downstream that can damage compressors. Throttling upstream cuts inlet momentum and gas velocity through the pad, addressing the root cause rather than masking it, and avoids overloading internals that are already near their face velocity limit.

A: Accepting the claim leads to chronic standing liquid, corrosion, and failed drains during operations. With 0.3 m head over 40 m, you have ~3 kPa to spend; Darcy friction for a 3-inch line at even modest flow burns that quickly, and fittings consume the rest, so the physics don't close without additional slope or diameter.

A: Assuming the PSV covers everything lets liquid push through internals and into rotating equipment, where damage is immediate. A PSV lifts on pressure, not level, so with a failed ESD and continuing inflow, overfill and carryover remain credible despite pressure protection.

A: Signing off lets a wrong internal slip into fabrication, leading to chronic carryover or excessive DP once installed. Forcing reconciliation stops a silent design error; vane packs and mesh pads have very different velocity envelopes, and the documents can't both be right.