NOC:Fundamental of Fluid Mechanics for Chemical and Biomedical Engineers

Lecture 1 - Introduction

Lecture 2 - Fluid Mechanics and Chemical Engineering

Lecture 3 - Biomedical Applications of Fluid Mechanics

Lecture 4 - Vectors: A review

Lecture 5 - Introductory Concepts - 1

Lecture 6 - Introductory Concepts - 2

Lecture 7 - Flow Visualisation

Lecture 8 - Dimensional Analysis - Pi Theorem

Lecture 9 - Dimensional Analysis- Ipsen Method

Lecture 10 - Similitude

Lecture 11 - Pressure Distribution in a Static Fluid

Lecture 12 - Force of Submerged Surfaces

Lecture 13 - Buoyancy

Lecture 14 - Surface Tension

Lecture 15 - Reynolds Transport Theorem

Lecture 16 - Mass Conservation

Lecture 17 - Momentum Conservation - I

Lecture 18 - Momentum Conservation - II

Lecture 19 - Energy Conservation

Lecture 20 - Fluid Translation

Lecture 21 - Fluid Rotation and Deformation

Lecture 22 - Mass Conservation: Derivation

Lecture 23 - Mass Conservation: Cylindrical Coordinates

Lecture 24 - Navier Stokes Equations: Derivation

Lecture 25 - Flow Between Two Parallel Plates

Lecture 26 - Flow in a Falling Liquid Film

Lecture 27 - Fully-developed flow in a circular channel

Lecture 28 - Flow between two concentric cylinders

Lecture 29 - Lubrication Approximation

Lecture 30 - Creeping Flows

Lecture 31 - Equation of Motion in Streamline Coordinates

Lecture 32 - Irrotational Flow

Lecture 33 - Bernoulli's Equation and Flow Measurement

Lecture 34 - Boundary Layers

Lecture 35 - Momentum Integral Equation

Lecture 36 - Flow Separation and Drag

Lecture 37 - Introduction to Turbulence

Lecture 38 - Turbulent Flow in a Pipe

Lecture 39 - Turbulent Boundary Layers

Lecture 40 - Flow in Pipes: Major Losses

Lecture 41 - Flow in Pipes: Minor Losses

Lecture 42 - Flow in Pipes: Types of Problems

Lecture 43 - Cavitation and NPSH