Fluid Mechanics - Advanced mathematical derivations

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Dr. G.V.S.S. Sharma, Ph.D.

6:03:45

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1. Boundary Layer Concepts

1.1 1.pdf

1. Boundary Layer Theory.mp4

18:55

2.1 2.pdf

2. Magnus Effect.mp4

13:11

3.1 3.pdf

3. Circulation.mp4

18:47

4.1 4.pdf

4. Von-Karmans momentum integral equation.mp4

05:50

5.1 5.pdf

5. Laminar Boundary Layer.mp4

09:34

6.1 6.pdf

6. Turbulent Boundary Layer.mp4

09:12

7.1 7.pdf

7. Boundary Layer Seperation.mp4

12:15

2. Closed Conduit Flow

1.1 8.pdf

1. Reynolds Experiment.mp4

09:24

2.1 9.pdf

2. Major energy losses in pipes - Darcys equation.mp4

12:20

3.1 10.pdf

3. Minor Energy Losses in pipes-(Part-1).mp4

16:41

4.1 11.pdf

4. Minor Energy Losses in pipes-(Part-2).mp4

08:50

5.1 12.pdf

5. Hydraulic Gradient Line and Total Energy Line.mp4

13:44

6.1 13.pdf

6. Pipes in series and pipes in parallel.mp4

09:11

3. Laminar and Turbulent Flows

1.1 14.pdf

1. Laminar flow between parallel plates Both plates at rest.mp4

22:15

2.1 15.pdf

2. Flow of viscous fluid through circular pipe.mp4

17:22

3.1 16.pdf

3. Flow through inclined tubes.mp4

21:43

4.1 17.pdf

4. Turbulent Flow - An Introduction.mp4

17:09

5.1 18.pdf

5. Velocity distribution in Turbulent flow in pipes.mp4

07:43

6.1 19.pdf

6. Hydrodynamically Smooth and Rough Boundaries.mp4

05:19

7.1 20.pdf

7. Velocity distribution in Turbulent flow in smooth & rough pipes.mp4

07:10

4. Flow of Compressible Fluid

1.1 21.pdf

1. Basic equations of compressible flow (Part-1).mp4

06:08

2.1 22.pdf

2. Basic equations of compressible flow (Part-2).mp4

12:33

3.1 23.pdf

3. Velocity of Sound wave in a fluid - (Part-1).mp4

10:04

4.1 24.pdf

4. Velocity of Sound wave in a fluid - (Part-2).mp4

11:35

5.1 25.pdf

5. Mach Number and Propagation of sound wave.mp4

14:56

6.1 26.pdf

6. Mach Number and Flow of Compressible fluid through a pipe.mp4

12:27

7.1 27.pdf

7. Mach Number and Normal Shock.mp4

08:50

8.1 28.pdf

8. Stagnation properties - (Part-1).mp4

14:22

9.1 29.pdf

9. Stagnation properties - (Part-2).mp4

16:15

Description

A next level progressive course

What You'll Learn?

Understand of the concepts in Boundary Layer Theory
Infer the mathematical derivations and concepts confirming to the field of closed conduit flow
Interpret the mathematical derivations pertaining to Laminar and Turbulent flows
Develop an understanding on flow on compressible fluid through a mathematical approach

Who is this for?

This advanced course suits better for the learners of the engineering graduation as well as post-graduation program pertaining to the branches of mechanical, civil as well as electrical engineering who are comfortable with the fundamentals of fluid mechanics

More details

Description
This advanced course in Fluid Mechanics deals with the concepts of boundary layer theory, closed conduit flow, laminar & turbulent flows, flow of compressible fluid. First section introduces the Boundary layer concepts like the Magnus effect, circulation and boundary layer separation to the learners. This is followed by a focus on the closed conduit flow to the mechanics of fluids in the Section-2 comprising of an introduction to Reynolds experiment, energy losses in pipes, Hydraulic and Energy Gradient lines. Comparative study of flow of fluid through pipes in series versus pipes in parallel is also carried out in this section. Next to this in Section-3, the author derived the mathematical derivations for Laminar and Turbulent flows. To be specific, derivations for the plane poiseuille flow of fluid between two fixed parallel plates, flow through straight as well as inclined tubes is derived. Turbulent flow relations are also chalked out here. The last section provides an insight into flow of compressible fluid with detailed mathematical derivations of Mach Number and its applications to propagation of sound waves, Hugnoit equation and normal shock for compressible fluid flow. The stagnation properties is studies through a mathematical treatment.
An advanced mathematical derivative approach is followed which helps the students to gain the advanced concepts of mechanics of fluids. A step-by-step and detailed derivations of the various mathematical formulae is traced in this advanced course work on fluid mechanics. This course shall help the under-graduate as well as post-graduate students to prepare themselves for the assessment in the area of fluid mechanics. On the whole, this course tastes better for the students of the graduation program pertaining to mechanical, civil as well as electrical engineering with a flair for the study of fluid mechanics.
Who this course is for:
This advanced course suits better for the learners of the engineering graduation as well as post-graduation program pertaining to the branches of mechanical, civil as well as electrical engineering who are comfortable with the fundamentals of fluid mechanics

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Dr. G.V.S.S. Sharma, Ph.D.

Instructor's Courses

Dr. Gummaluri Venkata Surya Subrahmanya Sharma (G.V.S.S. Sharma) is currently working as Associate Professor in the Department of Mechanical Engineering at GMR Institute of Technology, Rajam, India. He is a mechanical engineer with double post graduation in the fields of Tool Design and Computer Aided Design and Computer Aided Manufacturing. He is awarded Ph.D. from GITAM Deemed to be University of Visakhapatnam city in India. The area of his research relates to the field of spatial visualization for manufacturing process capability pertaining to industrial engineering domain. He holds 6 years of industrial experience and 15 years of teaching experience. He has authored research papers which are published in indexed journals.

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