22. Non-Uniform Flow and Hydraulic Jump (Contd.) - Hydraulic Engineering - Vol 2
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22. Non-Uniform Flow and Hydraulic Jump (Contd.)

22. Non-Uniform Flow and Hydraulic Jump (Contd.)

This chapter delves into the intricacies of hydraulic jumps and their implications in hydraulic engineering. It explores the calculations for determining depths, velocities, and energy losses during hydraulic jumps using Froude numbers. A systematic approach to problem-solving is demonstrated through multiple examples that highlight the practical applications of these principles in real-world scenarios.

18 sections

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Sections

Navigate through the learning materials and practice exercises.

  1. 1
    Hydraulic Engineering

    This section explores the concept of hydraulic jumps and their implications...

  2. 2
    Prof. Mohammad Saud Afzal

    This section covers hydraulic jumps, focusing on solving practical problems...

  3. 3
    Department Of Civil Engineering

    This section focuses on hydraulic jumps, rapid variations in flow, and...

  4. 4
    Indian Institute Of Technology - Kharagpur

    This section covers aspects of hydraulic jumps, including calculations for...

  5. 5
    Lecture – 37

    This section covers hydraulic jumps and their characteristics, focusing on...

  6. 6
    Non-Uniform Flow And Hydraulic Jump (Contd.)

    This section explores the principles of hydraulic jumps, including the...

  7. 6.1
    Introduction To Hydraulic Jumps

    This section discusses the principles and calculations related to hydraulic...

  8. 6.2
    Problem Statement And Initial Conditions

    This section covers the problem statement and initial conditions for...

  9. 6.3
    Calculating Froude Number Before The Jump

    This section focuses on calculating the Froude number before and after a...

  10. 6.4
    Depth Ratio Calculation And Depth After The Jump

    This section covers the calculation of depth ratios and Froude numbers...

  11. 6.5
    Velocity Calculation After The Jump

    This section focuses on the calculation of velocities and depths after...

  12. 6.6
    Head Loss Calculation

    This section covers the calculation of head loss in hydraulic jumps,...

  13. 6.7
    Proving Energy Loss In Hydraulic Jumps

    This section focuses on analyzing hydraulic jumps and calculating energy...

  14. 6.8
    Deriving Energy Loss Equation

    This section focuses on deriving the energy loss equation for hydraulic...

  15. 6.9
    Solving Another Example Problem

    This section focuses on applying theoretical concepts of hydraulic jumps to...

  16. 6.10
    Calculating Sequent Depths And Energy Loss

    This section covers the calculations for sequent depths and energy loss...

  17. 6.11
    Calculating Specific Energy In Rectangular Channel

    This section explains the calculation of specific energy in a rectangular...

  18. 6.12
    Final Problem And Conclusion

    The section addresses the concepts of hydraulic jumps and energy loss in...

What we have learnt

  • Hydraulic jumps transform supercritical flow into subcritical flow.
  • Energy loss during hydraulic jumps can be quantified using specific equations.
  • Understanding Froude number is critical in predicting flow conditions before and after a jump.

Key Concepts

-- Froude Number
A dimensionless parameter that helps determine flow regime; critical for identifying supercritical and subcritical flows.
-- Energy Loss
The loss of mechanical energy associated with changes in flow depth and velocity during hydraulic jumps, calculable via various equations.
-- Hydraulic Jump
A phenomenon where water abruptly changes from a supercritical to a subcritical flow state, resulting in a sudden rise in water surface height.
-- Specific Energy
The total mechanical energy (potential + kinetic) per unit weight of fluid, crucial for analyzing flow in open channels.

Additional Learning Materials

Supplementary resources to enhance your learning experience.