Advanced Fluid Mechanics & Computational Fluid Dynamics

Language: English
Created by: OZIS Academy
Rate: 4.2 / 54 ratings
Enroll: 4,973 students

What you’ll learn

Provide an introductory overview of Fluid Mechanics tailored to beginner learners, covering fundamental principles and engaging course content.
Present a comprehensive derivation and detailed explanation of the continuity equation, accompanied by illustrative examples and numerical problem-solving.
Gain a thorough understanding of the momentum equation, both in its general form and in its differential form, along with practical applications.
Explore the Navier-Stokes Equation, comprehending its significance and wide-ranging applications in fluid dynamics.
Acquire a comprehensive understanding of the Reynolds Transport Theorem, including its derivation and practical implications.
Develop a solid grasp of linear and angular momentum equations and their relevance in fluid mechanics.
Dive into a detailed examination of the kinematics of various flow types, encompassing a comprehensive exploration of their characteristics.
Explore the principles of Potential Flow and delve into the concept of superposition, including in-depth discussions of its three types.
Gain insights into Turbo Machines, including the application of Euler’s Equation, analysis of blade angles, and evaluating performance factors.
Obtain in-depth information about turbines, including their operational characteristics and performance evaluation.
Familiarize yourself with the core concepts of Boundary Layer, including order analysis over flat plates, turbulent flow over flat plates, the Blasius solution.
Develop an understanding of External Flow concepts, focusing on topics such as Drag Coefficient and its significance in vehicle aerodynamics.
Explore the fundamental principles of Airfoil and delve into an analysis of its performance characteristics.
Gain a comprehensive understanding of advanced concepts in Computational Fluid Dynamics (CFD), including its applications across various industries and fields.

Requirements

Basic knowledge of physics and chemistry, including an understanding of fundamental concepts related to forces, motion, energy, and basic chemical principles.
Proficiency in mathematics, particularly in calculus, differential equations, and algebra, to effectively solve equations and perform mathematical analyses in fluid mechanics.

Description

Dive deep into the intricate world of Fluid Mechanics and experience the awe-inspiring symphony of fluidic behavior that powers our natural and engineered systems. From the foundational concepts of Newton’s laws applied to fluids to the complex calculations needed for engineering problem-solving, this course offers a comprehensive understanding of fluid motion and its critical role in both natural phenomena and man-made inventions. Grasp the nuances of continuity equations, momentum conservation, and the beauty of Navier-Stokes’ equations, as they govern fluid flow.

Embark on a journey through the intricacies of turbomachines, exploring their classifications, working principles, and applications. Delve into the dynamics of boundary layers, from their genesis to their effect on the bodies in flow. Engage in the fascinating realm of external flow, uncovering the principles behind drag, lift, and the magnificent designs of airfoils. Finally, stands at the forefront of technological advancement with an introduction to Computational Fluid Dynamics (CFD), exploring the realm of numerical simulations that push the boundaries of engineering capabilities.

This course isn’t just about learning theories but bridging the chasm between theory and real-world application. By the end, you will not only understand the mathematics behind fluid motion but will gain a profound appreciation for its relevance in shaping the world around us. Whether you aspire to design advanced aerostructures, engineer efficient transportation systems, or merely satiate an academic curiosity, this course is a key milestone in your journey of discovery and innovation.

Reference books for this course:

Fluid Mechanics by Yunus A. Cengel, John M. Cimbala
Fundamentals of Fluid Mechanics, 6th Edition By Munson

COURSE OUTLINE

Lecture-1 Introduction to Fluid

The subject of Fluid Mechanics
Laws in the scientific study
Engineering approach of problem-solving
Fluid definition
Newton’s law of viscosity
Newtonian and Non-Newtonian fluid
Problems based on Newton’s law of Viscosity

Lecture-2 Continuity Equation

Principle of conservation of mass
Differential and Integral approach
Eulerian and LaGrange’s approach
Inventory Equation
Derivation of Continuity equation-Differential approach
Conservation and Non-Conservation Forms of Continuity
Material derivative
Scalar and Vector field
Acceleration field

Lecture-3 Momentum Equation

Newton’s Second Law of Motion
Body force
Surface force
Momentum Equation in differential form
Stokes postulate
Navier-Stokes Equation

Lecture-4 Application of Navier Stokes equation

N-S equation as governing equation of fluid flow
Application of the N-S equation for a steady and laminar fluid flow between two fixed infinitely long plates.
Velocity profile
Volume flow rate calculation from the velocity profile
Local velocity, average velocity, maximum velocity
Calculating Reynolds Number from the Velocity profile

Lecture-5 Application of Navier Stokes equation – Couette flow

The physical meaning of the N-S equation
Fully developed flow
Application of N-S equation for a steady and laminar fluid flow between one fixed and one moving plate-Couette Flow
Applications of Couette flow

Lecture-6 Reynolds Transport Theorem Derivation

Control Mass (A System) and Control Volume
Lagrangian and Eulerian Approach
Extensive and Intensive property
Derivation of Reynolds Transport Theorem (RTT)
Interpretation of net flux term of RTT

Lecture-7 Reynolds Transport Theorem – Continuity Equation

Reynolds Transport Theorem (RTT)
Deriving Continuity Equation using RTT
Mass flow rate, volume flow rate, and Average speed
Differential and Integral Form of Continuity Equation

Lecture-8 RTT-Continuity Equation Numericals

Continuity Equation in Integral Form
Solving numerical problems using Continuity Equation

Lecture-9 RTT- Linear Momentum Equation

Reynolds Transport Theorem (RTT)
Deriving Momentum Equation using RTT
Resultant Forces acting on a CV
Momentum accumulation in a CV
Momentum flow through a CV

Lecture-10 RTT- Angular Momentum Equation

Reynolds Transport Theorem (RTT)
Deriving Angular Momentum Equation using RTT
Problem-based on Linear and Angular Momentum
RTT for Moving and Deforming CV

Lecture-11 Kinematics of Flow-Flow Types

Fluid Flow Visualization- Classics
Streamline
Path-line
Streak-line
Timeline
Software for flow visualization (2dflowvis)

Lecture-12 Kinematics of Flow- Irrotational Flow

The motion of fluid Element
Transformation of a fluid element
Angular velocity vector
Vorticity Vector
Irrotational flow field

Lecture-13 Kinematics of Flow- Stream function

Visualizing velocity field-Java Applet
Visualizing velocity field- Maple
Stream function
Change in the value of the stream function
Problem with the stream function
Stream function in polar coordinates

Lecture-14 Kinematics of Flow- Circulation

Circulation
Relationship between Circulation and Vorticity
Stoke’s theorem
Problem on Circulation
The physical meaning of Divergence of a vector
Circulation and Divergence in Java Applet

Lecture-15 Potential Flow- Velocity potential function

Velocity Potential function, φ
Potential flow
Relationship between ψ and φ
Flow net
Velocity potential function in cylindrical coordinates
Velocity Potential function in Java Applet

Lecture-16 Potential Flow- Basic potential flows

Uniform flow
Source and Sink flow
Vortex flow
Stream function and Velocity potential function for basic flows

Lecture-17 Potential Flow- Superposition of potential flows-I

Superposition of basic potential flows
Doublet
Half body

Lecture-18 Potential Flow- Superposition of Potential flow-II

Flow around a cylinder
Flow around a cylinder-Velocity and pressure distribution
Flow around a cylinder-Drag and Lift
Rankine body
Problem with Rankine Body

Lecture-19 Potential Flow- Superposition of Potential flow-III

Superposition of basic potential flows
Flow around a cylinder with circulation
Magnus Effect
Problem- Flow around a cylinder with circulation

Lecture-20 Turbo-machine- Fluid Machines

Fluid machines classification
Positive Displacement machines
Turbo-machines
Comparison of PDPs and Roto-dynamic pumps
Turbo-machine Classifications
Scope of Turbo-machines

Lecture-21 Turbo-machine- Euler’s Equation

One-dimensional flow through an impeller
Velocity triangle
Euler’s equation of turbo-machine

Lecture-22 Turbo-machine- Blade Angles

Velocity triangle
Velocity triangle at inlet-assumptions
Effect of blade angle on the head
Typical Characteristic curve of a centrifugal pump
Effect of blade angle on Characteristic curve

Lecture-23 Turbo-machine- Performance-I

Problem-Centrifugal blower
Static, Friction, and System head
Pump Losses
Pump Efficiency
Pump Performance Characteristic curves

Lecture-24 Turbo-machine- Performance-II

Pump System Curve
Pumps in Series and Parallel
Pump Affinity laws
Pump specific speed

Lecture-25 Turbo-machine- Turbine

Turbine
Schematics of hydraulic turbines
Velocity triangles of Turbine
Impulse Turbine
Reaction Turbine
Degree of Reaction

Lecture-26 Turbo-machine- Turbine Performance

Pump and Turbine Efficiencies
General Energy Equation
Problem-Turbine
Affinity laws for Turbine
Turbine specific speed

Lecture-27 Boundary layer- Concept

Classification of flows
One-dimensional and multi-dimensional flow
Steady and Unsteady flow
Uniform and Non-Uniform flow
Inviscid and Viscous flow
Attached and Flow Separation
Laminar and Turbulent flow
Prandtl-Boundary layer concept
Growth of boundary layer thickness

Lecture-28 Boundary Layer- Order Analysis over Flat Plate

Order of Magnitude or Scale Analysis
Order of Magnitude Analysis over a flat plate
Boundary layer thickness as a function of Reynold’s Number
Wall shear stress using Scale Analysis
Skin friction coefficient using Scale Analysis

Lecture-29 Boundary layer- Blasius solution

Laminar boundary layer on a flat plate
Blasius solution
Wall shear stress using Blasius solution
Friction coefficient using Blasius solution
Problem- Using Blasius’s solution

Lecture-30 Boundary layer- turbulent flow over a flat plate

Turbulent flow
Governing Equations in Turbulent Flow
Boundary layer in turbulent flow
The velocity profile in laminar and turbulent flow
Velocity distribution in the turbulent boundary layer
Law of wall

Lecture-31 Boundary layer- Displacement and Momentum thickness

Disturbance or Boundary layer thickness
Displacement thickness
Displacement thickness using Blasius solution
Momentum thickness
Momentum thickness using Blasius Solution
The relative amount of displacement and momentum thickness for laminar flow over a flat plate

Lecture-32 Boundary layer- Approximate solution

Control Volume analysis for Boundary layer
Von Karman Solution
Von Karman Integral equation
An approximate solution to Laminar boundary layer over a flat plate

Lecture-33 Boundary layer- Skin Friction Coefficient

Friction Coefficient for laminar boundary layer
Local and Average skin friction coefficient
Friction Coefficient for Turbulent boundary layer
Friction Coefficient for Mixed boundary layer
Problem- Mixed boundary layer over a flat plate

Lecture 34 Introduction to EES-Parametric and plotting

Lecture-35 External flow- Introduction

External flow- Application
Forces and Moments on arbitrary shape body
External Flow over a flat plate and cylinder
External flow- Low and High Reynolds’s Number flows
Introduction to Open channel flow
External flow characteristics

Lecture-36 External Flow-Drag and Lift

The resultant force on a body
Drag and lift Forces
Drag Coefficient
Problem-Drag coefficient
Pressure and Shear stress distribution

Lecture-37 External flow- Drag Coefficient-1

Drag and Lift Forces-Alternate Method
The drag coefficient for slender bodies
Problem-Drag coefficient
Factors affecting drag coefficient

Lecture-38 External flow- Drag Coefficient-2

The drag coefficient for common geometries
Drafting
Fairing
Drag reduction in nature
Drag reduction in other applications
Experimental measurement of drag coefficient

Lecture-39 External flow- Drag in Vehicles

Drag Coefficient of cars-History
Drag and Rolling Resistance on a Vehicle
Power required to drive a vehicle
Problem-Power-Drag and Rolling Resistance
Drag Reduction in Vehicles

Lecture-40 External Flow-Introduction to Airfoil

What is Airfoil?
Airfoil types
Airfoil Nomenclature
Aircraft terminologies
Airfoil-Potential flow theory
Minimum Flight Velocity

Lecture-41 External Flow-Airfoil Performance

Lift and Drag on Airfoil
Airfoil-Boundary layer theory
Airfoil-Flow separation
Effect of angle of attack
Performance of different Aerofoil
Airfoil with flap
Airfoil at different Mach Number

Lecture-42 CFD- Introduction

What is CFD?
CFD Scope and Applications
Role of CFD in Engineering
How CFD works
Practical Steps of Solving Problems in CFD

Lecture-43 CFD- Finite Difference Method

Numerical Techniques
Finite difference Method
Forward, Backward and Central Difference
Mixed Derivatives
Problem- Finite Difference Method
Solving problems in CFD using ANSYS-CFX

Lecture 44 CFD-Geometry and Mesh

Lecture 45 CFD-Pre-Solver Solution Post Process (CFX)

Unlock the secrets of the fluid world and propel your understanding to new heights. Enroll today and embark on an unparalleled journey into the heart of Fluid Mechanics!

Who this course is for:

Engineers: The course is designed to cater to engineers from various disciplines who require a strong understanding of fluid mechanics in their respective fields, such as mechanical, civil, chemical, and aerospace engineers.
Students: This course is suitable for undergraduate and graduate students studying engineering or related disciplines who are seeking to build a solid foundation in fluid mechanics as part of their academic curriculum.
Professionals: The course also appeals to professionals working in industries where fluid dynamics plays a crucial role, such as automotive, aerospace, energy, and manufacturing. It provides them with an opportunity to enhance their knowledge and skills in fluid mechanics for practical applications.
Researchers and Academics: Individuals involved in research or academia, including professors, researchers, and postgraduate students, can benefit from the course as it covers fundamental concepts and advanced topics, enabling them to delve deeper into the subject and explore new areas of study.
Individuals seeking career advancement: Professionals looking to broaden their skill set and increase their career prospects in fields related to fluid mechanics, such as computational fluid dynamics (CFD), hydraulic engineering, or fluid system design, can find this course beneficial in advancing their knowledge and expertise.
Lifelong learners: The course accommodates individuals with a curiosity for learning and a desire to expand their knowledge base. Lifelong learners who enjoy exploring new subjects and acquiring practical skills can find the course intellectually stimulating and rewarding.

Get this Course