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GEORGIA INSTITUTE OF TECHNOLOGY ME 3340B FLUID MECHANICS SUMMER 2015 (TR 2:00-3:45p, 2407 MRDC) PROFESSOR: Dr. Jeffrey L. Streator, Rm. 4206, MRDC Bldg., 404-894-2742. Office Hours: W 2-3:30p (and by appointment). [email protected] TEXT: B. R. Munson, T. H. Okiishi, and W. W. Huebsch, and A. P. Rothmayer, Fundamentals of Fluid Mechanics, 7 th edition, Wiley, 2013. HOMEWORK: Several problem sets will be assigned throughout the term. These problem sets will be graded and solutions for them will be made available before the corresponding exams. GRADE WEIGHTS: Homework 15% Exam 1 25% Exam 2 25% Final Exam 35% GRADE SCALE: 100—A—85—B—73—C—60—D—45—F MAJOR TOPICS: 1. Fluid statics 2. Fluid velocity and acceleration fields 3. Control volume analysis: Balance laws 4. Local analysis: Derivation of the Navier-Stokes Eqn. 5. Inviscid flow 6. Viscous flow 7. Dimensional analysis 8. Pipe flow: laminar flow; turbulent flow 9. Flow over immersed bodies

Syllabus ME3340B Summer 2015 v2

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  • GEORGIA INSTITUTE OF TECHNOLOGY ME 3340B

    FLUID MECHANICS SUMMER 2015

    (TR 2:00-3:45p, 2407 MRDC) PROFESSOR: Dr. Jeffrey L. Streator, Rm. 4206, MRDC Bldg., 404-894-2742. Office Hours: W 2-3:30p (and by appointment).

    [email protected] TEXT: B. R. Munson, T. H. Okiishi, and W. W. Huebsch, and A. P. Rothmayer,

    Fundamentals of Fluid Mechanics, 7th edition, Wiley, 2013. HOMEWORK: Several problem sets will be assigned throughout the term. These

    problem sets will be graded and solutions for them will be made available before the corresponding exams.

    GRADE WEIGHTS: Homework 15% Exam 1 25% Exam 2 25% Final Exam 35% GRADE SCALE: 100A85B73C60D45F MAJOR TOPICS:

    1. Fluid statics 2. Fluid velocity and acceleration fields 3. Control volume analysis: Balance laws 4. Local analysis: Derivation of the Navier-Stokes Eqn. 5. Inviscid flow 6. Viscous flow 7. Dimensional analysis 8. Pipe flow: laminar flow; turbulent flow 9. Flow over immersed bodies

  • Date Topic Text Reading 5/12 Introduction; Review of Stress 1 5/14 Fluid Statics: Pressure Field; Measurement of Pressure 2.1-2.7

    5/19 Fluid Statics: Forces on Submerged Surfaces; Buoyancy 2.8-2.13 5/21 Elementary Fluid DynamicsBernoulli Eqn. 3.1-3.8

    5/26 Fluid Kinematics: Velocity and Acceleration Fields; Control Volume; Transport Theorem 4.1-4.4 5/28 Finite Control Volume Analysis: Balance Laws

    6/2 Finite Control Volume Analysis: Balance Laws (cont.) 5.1-5.5 6/4 Review

    6/9 EXAM 1 (covers through Finite Control Volume Analysis) 6/11 Differential Analysis of Fluid Flow: Balance Laws; Potential Flow 6.1-6.7

    6/16 Differential Analysis of Fluid Flow: Viscous FlowThe Navier-Stokes Equations 6.8 6/18 Differential Analysis of Fluid Flow: Viscous FlowSimple Solutions 6.9-6.11

    6/23 Dimensional Analysis: Buckingham Pi Theorem 7.1-7.7 6/25 Dimensional Analysis: Modeling and Similitude 7.8-7.11

    6/30 Viscous Flow in Pipes: Laminar vs. Turbulent; Fully Developed Flow; 8.1-8.3 7/2 Viscous Flow in Pipes: Losses 8.4

    7/7 Review 7/9 EXAM 2 (covers through Viscous Flow in Pipes)

    7/14 Flow over Immersed Bodies: General Concepts; Boundary Layers 9.1-9.2 7/16 Flow over Immersed Bodies: Drag and Lift 9.3-9.4

    7/21 Review 7/23 Review

    7/28 Final Exam (Tuesday, 11:30am - 2:20pm) (Comprehensive)