TYPE OF COURSE UNIT	Compulsory Course
LEVEL OF COURSE UNIT	Bachelor's Degree
YEAR OF STUDY	2
SEMESTER	Third Term (Fall)
NUMBER OF ECTS CREDITS ALLOCATED	5
NAME OF LECTURER(S)	Assistant Professor Uğur Kemiklioğlu
LEARNING OUTCOMES OF THE COURSE UNIT	At the end of this course, the students; 1) Understand basic mechanical design principle. 2) Understand scientific principles and apply them to the practice of engineering. 3) Have an ability to analyze, construct, test, and evaluate an mechanical design. 4) Have an ability to apply the design process to engineering problems, including the consideration of different technical alternatives while bearing in mind cost, environmental concerns, safety, and other constraints of manufacturing processes.
MODE OF DELIVERY	Face to face
PRE-REQUISITES OF THE COURSE	No
RECOMMENDED OPTIONAL PROGRAMME COMPONENT	None
COURSE DEFINITION	This course starts with an introduction to basic concepts in mechanics. The lectures cover external forces, joints, static equilibrium; particle and rigid body equilibrium, friction, trusses. Calculations of first moment of area and moment of inertia are shown. Virtual work principle, kinematics, force, acceleration, motion and energy concepts are covered. Stress and strain, elastic properties of materials, Hooke's law, factor of safety, Mohr circle, fatigue, shear, bending, torsion and their applications in engineering design are discussed.
COURSE CONTENTS	WEEK TOPICS 1st Week Newton Principles, Particles Kinetics: Force and acceleration, Central force and space mechanics 2nd Week Particle Kinetic: Work and Energy, Particle Kinetics: Impuls and Momentum 3rd Week Particle Equilibrium, Rigit body Equilibrium 4th Week Center of gravity, Moment of Inertia. 5th Week Lattice beams analysis, Frames analysis 6th Week Differential equations 7th Week Application of Differential equations: Distributed load, share force and moment relationships 8th Week Midterm 9th Week Differential equations: Virtual work principle and rigid body equiliburium principle 10th Week Share force and moment diagrams. 11th Week Elongation under strain and axial loading 12th Week Stress and strain. Normal and shear stress. 13th Week Stress and strain caused by torsion. Stress due to bending. 14th Week Shear stress resulting from shear force, Combined stresses. 15th Week
RECOMENDED OR REQUIRED READING	R.C.Hibbeler.Statics and Mechanics of Materials. Pearson, 2004. Ferdinand P. Beer, E. Russell Johnston, Jr. Mechanics of Materials. McGraw-Hill Book Company R.C.Hibbeler. Engineering Mechanics: Dynamics. Pearson, 2004 J.Lebl. Notes on Diffy Qs: Differential Equations for Engineers. November 20, 2022 (version 6.4). Amazon KDP edition ISBN-13: 978-1-70623-023-6
PLANNED LEARNING ACTIVITIES AND TEACHING METHODS	Lecture,Problem Solving,Questions/Answers,Practice,Other,Project
ASSESSMENT METHODS AND CRITERIA	Quantity Percentage(%) Mid-term 1 30 Quiz 1 15 Project 1 10 Attendance 1 5 Total(%) 60 Contribution of In-term Studies to Overall Grade(%) 60 Contribution of Final Examination to Overall Grade(%) 40 Total(%) 100
ECTS WORKLOAD	Activities Number Hours Workload Midterm exam 1 2 2 Preparation for Quiz 4 8 32 Individual or group work 4 5 20 Preparation for Final exam 1 10 10 Course hours 14 4 56 Preparation for Midterm exam 1 7 7 Laboratory (including preparation) Final exam 1 2 2 Homework 3 7 21 Total Workload 150 Total Workload / 30 5 ECTS Credits of the Course 5
LANGUAGE OF INSTRUCTION	English
WORK PLACEMENT(S)	No