ME-344: Incompressible fluid mechanics

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Lectures in this course (79)

Incompressible Fluid Mechanics: Foundations and Flow Equations

Covers the foundations of incompressible fluid mechanics and emphasizes the importance of exercises and self-study.

Fluid Mechanics: Introduction

Covers the basics of fluid mechanics, including properties of fluids and the ideal gas law.

Diffusion and Convection Transport

Explores the microscopic description of diffusion and convection transport, emphasizing similarities between chemical diffusion and heat conduction.

Diffusion Coefficients: Self-Diffusion and Suspended Particles

Explores diffusion coefficients for self-diffusion and suspended particles in fluids.

Thermal Diffusion: Conservation and Fourier Law

Explains conservation of energy and Fourier's law in thermal diffusion.

Diffusion in Concentration Coordinates

Explores diffusion in concentration coordinates and boundary conditions in different systems.

Separation of Variables: Spatial Problems

Explores the method of separation of variables for solving spatial problems with second-order ODEs, emphasizing the significance of boundary conditions.

Time-dependent Diffusion: Fourier Trick

Explores the Fourier Trick for time-dependent diffusion problems in a Cartesian system.

Diffusion on an Infinite Domain: Green's Approach

Covers diffusion on an infinite domain using Green's method and emphasizes finding steady-state solutions and conservation of material.

Time-dependent Diffusion: Solutions and Analysis

Explores time-dependent diffusion solutions, Green's function, eigenmodes, and dimensional analysis.

Fluid Kinematics: Velocity Fields and Flow Visualization

Explores velocity fields and flow visualization in fluid kinematics, emphasizing streamlines, path lines, and streak lines.

Streamlines and Pathlines

Explains streamlines and pathlines in fluid dynamics, highlighting their significance in analyzing fluid motion.

Viscosity and Fluid Dynamics

Explains the stress-strain rate relationship in fluids, emphasizing Newtonian fluids and Hookian materials.

Control Volume and System

Explains control volume, system, mass conservation laws, and Reynolds transport theorem with practical examples and theoretical derivations.

Control Volume Approach: Mass Conservation and Physical Laws

Explores the control volume approach, emphasizing mass conservation and key physical laws.

Newton's 2nd Law: Understanding Linear Momentum

Explores Newton's 2nd Law applied to linear momentum and mass flow rate.

Engine Thrust Analysis

Explores engine thrust analysis using Munson EX 5.15 and the first law of thermodynamics.

Heat Transfer Fundamentals

Covers the fundamentals of heat transfer, including conduction, convection, and radiation.

Fluid Flow Analysis: Conservation Laws

Explores solving fluid flow problems using control volumes and fundamental physics laws, emphasizing the importance of practice and student feedback.

Fluid Mechanics Fundamentals

Introduces the fundamentals of fluid mechanics, covering mass and momentum conservation, external forces, viscous stresses, and the conversion of surface integrals to volume integrals.

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