# GAZI UNIVERSITY INFORMATION PACKAGE - 2019 ACADEMIC YEAR

COURSE DESCRIPTION
FLUID MECHANICS I/ME301
 Course Title: FLUID MECHANICS I Credits 3 ECTS 5 Course Semester 5 Type of The Course Compulsory
COURSE INFORMATION
-- (CATALOG CONTENT)
-- (TEXTBOOK)
-- (SUPPLEMENTARY TEXTBOOK)
-- (PREREQUISITES AND CO-REQUISITES)
-- LANGUAGE OF INSTRUCTION
English
-- COURSE OBJECTIVES
-- COURSE LEARNING OUTCOMES
Understanding of basic fluid properties and fundamental concepts of the fluid mechanics.
Derivation and application of governing equation of fluid statics, and prediction of resultant hydrostatic force acting on submerged surfaces.
Derivation and application of mass, momentum, energy and angular momentum conservation equations in integral form.
Analysis of incompressible flow in pipes and closed conduits.

-- MODE OF DELIVERY
The modes of delivery of this course are face to face & laboratory.
 --WEEKLY SCHEDULE 1. Week INTRODUCTION: Definition of fluid, fluid mechanics in engineering, scope of fluid mechanics, methods of analysis, dimensions and units. 2. Week FUNDAMENTAL CONCEPTS: Definition of continuum, fluid as a continuum, velocity field, timeline,pathline, streakline and streamline. Stress field. EXPER 3. Week FUNDAMENTAL CONCEPTS: Viscosity, Newtonian and non-Newtonian fluids, vapor pressure and surface tension, description and classification of fluid motio 4. Week FLUID STATICS: The basic equation of fluid statics, analysis of hydrostatic force on plane submerged surfaces. 5. Week FLUID STATICS: Analysis of hydrostatic force on curved submerged surfaces. Buoyancy and stability. 6. Week FLUID STATICS: Analysis of fluids in rigid-body motion. 7. Week BASIC EQUATIONS FOR A SYSTEM: Conservation of mass, momentum, moment of momentum and energy equations. 8. Week BASIC EQUATIONS FOR A SYSTEM: Conservation of mass, momentum, moment of momentum and energy equations. EXPERIMENT II 9. Week BASIC EQUATIONS IN INTEGRAL FORM: Derivation of Reynolds transport equation. Derivation and application of conservation of mass and momentum equation 10. Week BASIC EQUATIONS IN INTEGRAL FORM: Derivation and application of moment of momentum and conservation of energy equations for a control volume. 11. Week ANALYSIS OF INTERNAL INCOMPRESSIBLE FLOW: Derivation of extended Bernoulli equation. Calculation of major and minor head losses and usage of tables. 12. Week ANALYSIS OF INTERNAL INCOMPRESSIBLE FLOW: Flow analysis in serial system of pipes, flow analysis in parallel system of pipes, 13. Week ANALYSIS OF INTERNAL INCOMPRESSIBLE FLOW: Analysis of pipe networks, analysis of interconnected reservoir systems 14. Week ANALYSIS OF INTERNAL INCOMPRESSIBLE FLOW: Analysis of pipe networks, analysis of interconnected reservoir systems 15. Week 16. Week
-- TEACHING and LEARNING METHODS
-- ASSESSMENT CRITERIA
 Quantity Total Weighting (%) Midterm Exams 2 45 Assignment 4 0 Application 2 5 Projects 0 0 Practice 0 0 Quiz 2 10 Percent of In-term Studies 60 Percentage of Final Exam to Total Score 40