Objective Read in the name of Thy Lord, Who Created Subject Details Course Title: Mechanics of Materials II Course Code: ME 323 Credit Hours: 3 Program BSME Semester : Spring 2022 Resource Person: Dr. Tariq Mahmood Contacts: tariqmahmood@umt.edu.pk Learning PLO 12 Lifelong CLOs PLO 1 Engg . Knowledge PLO 2 Problem Analysis PLO 3 Solution Design PLO 4 Investigation PLO 5 Mod. Tool Usage PLO 6 Engr. & Society PLO 7 Env. & Sust. PLO 8 Ethics PLO 9 Team Work PLO 10 Communication PLO 11 Proj. Mgmt. Semester: Sixth Semester Course Code: ME 323 Course Title: Mechanics of Material-II Course Learning Outcomes (CLOs) and their Mapping to Program Learning Outcomes (PLOs): 1. Explain the concepts of strain energy, virtual work, fatigue and creep. (C2) 2. Explain theories of failure of materiel. (C2) 3. Analyze principal stresses and strains for combined loading problems in two and three dimensional stress systems. (C4) 4. Analyze thick walled cylinder for radial and hoop stresses (C4) CLOs▼ 3 4 1 2 Final Exam Midterm Exam Assignment 2 Assignment 1 Quiz 4 Quiz 3 Quiz 2 Quiz 1 Mapping of CLOs to Direct Assessments Grade Evaluation Criteria Components Marks Assignments 10 Quizzes 15 Mid Term Exam 25 Final Exam 50 Total 100 Course outline: Analysis of stress and strain in two and three dimensions, Principal stresses and strains, Mohr’s circle for stress and strain, Thick walled pressure vessels, Symmetrical and asymmetrical loading, Introduction to fracture mechanics, Impact loading, Fatigue and creep, Virtual work, Theories of elastic failure, Theory of columns. Textbooks Benham P.P. & Crawford R.J. Mechanics of Engineering Materials, 2nd edition, Pearson Prentice Hall, 1996. James M. Gere. Mechanics of Materials, 7th edition, Cengage Learning, 2008. Reference Books: Ferdinand P. Beer, E. Rullel Johnston and John T. DeWolf. Mechanics of Materials, 7th edition, McGraw Hill Education, 2014. ISBN: 978-0073398235 R.C. Hibbeler. Mechanics of Materials, 8th edition, Prentice Hall, 2010. Plane Stress Transformation Equations 1. Stress elements and plane stress. 2. Stresses on inclined sections. 3. Transformation equations. To obtain a complete picture of the stresses in a bar, we must consider the stresses acting on an “inclined” section through the bar. Because the stresses are the same throughout the entire bar, the stresses on the sections are uniformly distributed.