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Introduction to Fluid Mechanics

This course covers fundamental concepts of fluid mechanics; fluid statics; fluid dynamics; Bernoulli's equation; control-volume analysis; basic flow equations of conservation of mass, momentum, and energy; differential analysis; potential flow; viscous incompressible flow.

Instructor

Professor Roger RANGEL.

Mechanical engineering

2013

Lecture 01 - Introduction and Fundamentals

Lecture 02 - Fluid Properties: Viscosity

Lecture 03 - Fluid Statics: Hydrostatics

Lecture 04 - Fluid Statics: Manometry Problem, Force Calculation

Lecture 05 - Fluid Statics: Buoyancy, Rigid Body Motion

Lecture 06 - Elementary Fluid Dynamics

Lecture 07 - Elementary Fluid Dynamics (cont.)

Lecture 08 - Elementary Fluid Dynamics (cont.)

Lecture 09 - Fluid Kinematics

Lecture 10 - Fluid Kinematics: The Reynolds Number, Acceleration of a Fluid Element

Lecture 11 - Acceleration of a Fluid Element (cont.), Control Volume Approach

Lecture 12 - Control Volume Approach: Reynolds Transport Theorem, Newton's 2nd Law

Lecture 13 - Control Volume Approach: RTT and Newton's 2nd Law

Lecture 14 - Control Volume Approach: RTT and the First Law of Thermodynamics

Lecture 15 - Differential Analysis: Deformation

Lecture 16 - Differential Analysis: Conservation of Mass, The Stream Function

Lecture 17 - Differential Analysis: Newton's 2nd Law

Lecture 18 - Irrotational Flow (Potential Flow)

Lecture 19 - Basic Potential Flows

Lecture 20 - Basic Potential Flows: Doublets, Superposition of Potential Flows

Lecture 21 - Potential Flows (cont.)

Lecture 22 - Viscous Flow

Lecture 23 - Viscous Flow Problems

Lecture 24 - Review