Master Fluid Mechanics for Incompressible Flow

Focused View

Chemical Engineering Guy

13:13:29

6 View

1. Introduction

1. Welcome.mp4

04:37

2. Before you Start - Course Overview.mp4

04:16

3. About this Course.mp4

03:43

4. Note Updated Course.mp4

04:09

5. Basic Review of Topics.mp4

34:15

2. Introduction to the Mechanical Energy Equation (M.E.E.)

1. What is Mechanical Energy.mp4

01:37

2. The Mechanical Energy Equation - Applications to Piping Systems, Pumps & More!.mp4

05:31

3. More on the Mechanical Energy Equation Systems, Surroundings, etc....mp4

14:24

4. Important Notes Regarding the Mechanical Energy Equation.mp4

20:58

5. Kinetic Energy in MEE.mp4

02:55

6. More on the Kinetic Energy.mp4

07:50

7. Potential Energy & The M.E.E..mp4

03:31

8. More on Potential Energy in the MEE.mp4

04:29

9. Pressure Head, Pressure Loss & Work & The M.E.E..mp4

01:16

10. More on Pressure, Pressure Head and Relating to Energy.mp4

05:21

11. Introduction to Inlet & Outlet Work.mp4

03:18

12. Inlet and Outlet Work (Input vs. Output).mp4

09:17

13. A Brief Introduction to Friction Losses.mp4

02:30

14. Friction Loss - Its Nature, Type of frictions, Theoretical Concept.mp4

09:17

15. Friction Loss Exercise.mp4

07:07

16. Application of M.E.E. to Gases... Foot for thought.mp4

02:40

17. Closure to Section 1.mp4

01:29

3. Applications of M.E.E to Incompressible Flow

1. Introduction of Applications of the MEE to Incompressible Flow.mp4

02:17

2. Applying the Mechanical Energy Equation - Important Notes.mp4

04:22

3. Bernoullis Law Theory + Exercises.mp4

09:42

4. Torricellis Law - Theory & Exercises.mp4

07:20

5. Ex. 0 - Emptying a Tank - Torricellis Law.mp4

08:35

6. Ex.1 Time Calculations for Tank Depletion - Torricellis Law.mp4

07:09

7. Ex.2 Velocity of a Jet Stream while Emptying a Tank - Torricellis Law.mp4

04:48

8. Ex.3 Maximum Height for a Jet Stream - Torricellis Law.mp4

02:57

9. Ex.4 Height Calculation for a Pressurized Stream - Torricellis Law.mp4

05:17

10. Notes on Torricells Law.mp4

00:40

11. Ex.5 Pipe Reduction Effecst - Bernoullis Law.mp4

10:27

12. Ex.6 Applying Bernoullis Principle to a Cone - Bernoullis Law.mp4

04:36

13. Ex.7 Pressure Drop in Pipeline Expansion - Bernoullis Law.mp4

05:09

14. Ex.8 Emptying a Pressurized Tank - Bernoullis Law.mp4

04:12

15. Ex.9 Emptying a Depressurized (Vacuum) Tank - Bernoullis Law.mp4

04:40

16. Ex.10 Changes in Pressure and Velocity in a Pipeline - Bernoullis Law.mp4

04:27

17. Ex.11 Pressure Drop due to changes in Velocity - Bernoullis Law.mp4

03:59

18. Notes on Bernoullis Law.mp4

00:48

19. A Brief Introduction to the General Case of the M.E.E..mp4

00:53

20. The General Application of the Mechanical Energy Equation.mp4

16:38

21. Ex.12 Pumping Requirements for a given System (MEE Application - No Friction).mp4

18:11

22. Ex.13 Minimum Height Requirement for a Pump (MEE Application - No Friction).mp4

11:03

23. Ex.14 Pump Requirements vs. Turbine Production (MEE Application - No Friction).mp4

11:58

24. Closure to Section 2.mp4

01:01

4. Advanced Applications of Incompressible Flow

1. Introduction to Advanced Applications of the MEE to Engineering.mp4

00:53

2. IMPORTANT NOTE! About Friction Loss Calculations.mp4

02:19

3. About Series Flow (Piping Systems).mp4

01:53

4. Series Flow Common Type of Problems.mp4

06:26

5. Type I Problems - Theory & Solved Example.mp4

07:05

6. Ex.15 Power Requirements for a Fan Blower (Type I).mp4

08:59

7. Ex. 16 Effects of Pressure vs Diameter Changes (Type I + Friction Loss).mp4

11:06

8. Ex.17 Pumping Cost Calculations (Type I + Friction Loss).mp4

12:34

9. Ex.18 Pump Requirements for a Non-Cylindrical Duct (Type I + Deq + Friction Loss.mp4

04:16

10. Ex.19 Pumping Costs from Reservoir A to B (Type I + Friction Loss).mp4

20:46

11. Ex.20 Piping Investment vs. Pumping Costs (Type I + Friction Loss).mp4

33:09

12. Ex.21 Flow through Non-Cylindrical Channel (Type I + Friction Loss).mp4

14:05

13. Ex.22 Pressure Changes due to Petroleum Production Drilling (Type I + Friction L.mp4

13:07

14. Ex.23 Friction Loss in a Long Pipe (Type I + Friction Loss).mp4

07:25

15. Ex.24 Pump Requirements for Fluid Transport (Type I + Friction Loss).mp4

15:14

16. Ex.25 Pressure Reading in a Manometer (Type I + Friction Loss).mp4

07:27

17. Ex.26 Pressure Drop in an Inclined Pipe (Type I + Friction Loss).mp4

08:20

18. Type II Problems - Theory & Solved Example.mp4

11:22

19. Ex.27 Finding Volumetric Flow Rate for a Given System (Type II + Friction Loss).mp4

17:50

20. Ex.28 Calculating Volumetric Flow of a Tank losing Liquid (Type II + Friction Lo.mp4

13:01

21. Ex.29 Maximum Volumetric Flow Rate given a Discharge Pressure (Type II + Fricti.mp4

11:45

22. Ex.30 Max. Flow Rate given Friction Loss of a System (Type II + Friction Loss).mp4

15:25

23. Type III Problems - Theory & Solved Example.mp4

15:34

24. Ex.31 Proposal of Internal Diameter for a System (Type III + Friction Loss).mp4

20:09

25. Ex.32 Proposing the Nominal Diameter given a Pressure Drop (Type III + Friction.mp4

21:01

26. Ex.33 Optimal Nominal Diameter given Pressure Drops (Type III + Friction Loss).mp4

14:33

27. Ex.34 More Advanced Diameter Proposal (Type III + Friction Loss).mp4

19:40

28. About Parallel & Branched Flow Problems (Piping Systems).mp4

00:32

29. Parallel Flow - An Introduction.mp4

09:04

30. Parallel Flow Case 1 vs Case 2.mp4

10:33

31. Ex.35 Parallel Flow and Pressure Drop (Parallel Flow).mp4

27:21

32. Ex.36 Flow through Frictious and Free Paths (Parallel Flow).mp4

21:00

33. Ex.37 Flow Patterns Low Velocity vs High Velocity (Parallel Flow).mp4

25:25

34. Ex.38A Parallel Pipes Systems Defining the System.mp4

13:30

35. Ex.38B Parallel Pipes Systems Solved in Excel (Parallel Flow).mp4

22:03

36. Branch Flow Case Study.mp4

04:11

37. Complex Piping Solving with Software.mp4

05:06

38. Closure to Section 3.mp4

00:57

5. Closure

1. Course Content Review & Closure.mp4

07:06

2.1 Bonus Lecture - Whats Next Coupons.pdf

2. BONUS Lecture.mp4

05:38

Description

Applications of Mechanical Energy Equation, Piping & Fittings, Pumps & More!

What You'll Learn?

Fundamentals of Mechanical Energy and the Mechanical Energy Equation
Mechanical Energy: Kinetic, Potential, Pressure and Work
Applications of the M.E.E. to Engineering Cases
Bernoulli's Law
Torricelli's Law
Operations involving liquid flow through pipes and equipment
Fluid Mechanics applied to Incompressible Flow (Liquids)
Friction Loss in Piping Systems & Other Fluid Applications

Who is this for?

Scicience & Engineering Students

Process Engineers, Chemical Engineers, Mechanical Engineer, Piping Engineering, etc...

Operator of Manufacturing/Process Industries

What You Need to Know?

Basic Science (Physics & Math)

More details

Description
Overview:
This course provides students with a fundamental understanding of Fluid Mechanics in Incompressible Flow, its equations, and applications in various fields, including chemical engineering, environmental science, and process control.
Students will learn how to analyze, model, and solve problems related to Liquid Flow in Pipes, Equipment and More. It will also cover a wide range of systems, from simple piping systems, to complex industrial processes.
The course combines theoretical concepts with practical applications to equip students with valuable skills in problem-solving and decision-making.
What You Will Learn:
By the end of this course, you will be able to:
Basic Understanding of Fluid Mechanics
Fundamentals of Incompressible Flow
Fluid Properties and Behavior
Fluid Statics and Dynamics
Mechanical Energy as well as Mechanical Energy Equation Applications
Mechanical Energy types:Â Kinetic, Potential, Pressure, friction loss, Inlet/Outlet Work
Torricelli's Law, Continuity Equation and Bernoulli's Principle
Pipe Flow and Basic Pumping Systems
Type IÂ Problems:Â Solving for a single variable
Type IIÂ Problems:Â Solving for a volumetric flow rate given a system
Type IIIÂ Problems:Â Solving for piping dimensions, i.e. pipe diameter
Series Flow Systems
Parallel Flow Systems
ComplexÂ System:Â Branched Flow & More
Recommended Audience:
This course is suitable for both: Students & Professionals. From Undergraduate and Graduate engineering students, environmental science majors, all the way to Professionals in engineering, environmental, and technical fields.
Prerequisites:
Basic Knowledge of Mathemathics &Â Physics
Who this course is for:
Scicience & Engineering Students
Process Engineers, Chemical Engineers, Mechanical Engineer, Piping Engineering, etc...
Operator of Manufacturing/Process Industries

User Reviews

Rating

average 0

Total votes0

Focused display

Mechanical Engineering

Chemical Engineering Guy

Instructor's Courses

Hi there, I'm Emmanuel Ortega, aka Chemical Engineering Guy... I've been in the Chemical Industry for about 3 years. I love applying all my knowledge learned in University to the Daily Engineering Life. From working in a Petrochemical Plant as a Process Plant Designer to working with textile material from Polyester Yarns; I could teach you a lot of how it is important to learn the Engineering subjects! My expertise: Chemical Process Design Plant Design Heat Transfer Operations and Equipment Design Industrial Polyester Yarn Online Tutoring Right now I'm preparing online material for Engineers all over the world. I have a dream in which online education will break all barriers and let Engineers all over the world learn easier and faster! Please join me in my quest! The Courses I design are entirely dynamic. You will see theory and then apply it ASAP to a real life problem! I even use the books you are using right now in your engineering courses... Hope to see you in any of the Courses I'm offering!

Udemy

View courses Udemy

Students take courses primarily to improve job-related skills.Some courses generate credit toward technical certification. Udemy has made a special effort to attract corporate trainers seeking to create coursework for employees of their company.