Pearson introduces the second edition of Strength of Materials - a complete offering for the undergraduate students of mechanical and civil engineering. Using a simple and student-friendly approach, this text provides a comprehensive treatment of the fundamental concepts and principles supported by a large number of line-diagrams and figures. Apt for self-study by the students, the book lays down a strong foundation for problem- solving abilities in strength of materials.
About the Author
U. C. Jindal is a former Professor and Head of the Department of Mechanical Engineering, Delhi College of Engineering. He completed his M.Tech. from Indian Institute of Technology Kanpur and did his Ph.D. on Experimental Stress Analysis from the University of Delhi.
For the last 50 years, Dr Jindal has been involved in teaching, research and development activities in the mechanics group of subjects such as engineering mechanics, strength of materials, machine design, theory of machines and materials science. He is the author of nine books, and has also published numerous research papers in the fi eld of stress analysis, material testing,
stress concentrations, adhesives and composite materials in various national and international journals.
Features
•Balanced approach between theory and numericals with concepts explained in detailed.
• Advanced concepts such as three dimensional stresses, the theory of simple bending, theories of failure, mechanical properties, material testing and engineering materials.
• Excellent Pedagogy including questions from previous year question papers of Indian universities.
• Step-by-step methodology provided for solved examples.
• Over 700 figures to help in better understanding of concepts
Table Content
1. Simple Stresses and Strains
2. Elastic Constants
3. Principal Stresses and Strains
4. Strain Energy and Impact Loading
5. Centre of Gravity and Moment of
Inertia
6. Shear Force and Bending Moment
7. Bending Stresses in Beams
8. Shear Stresses in Beams
9. Direct and Bending Stresses
10. Dams and Retaining walls
11. Analysis of Perfect Frames
12. Defl ection of Beams
13. Defl ection of Cantilevers
14. Conjugate Beam Method, Propped
Cantilevers and Beams
15. Fixed and Continuous Beams
16. Torsion of Shafts and Springs
17. Thin Cylinders and Spheres
18. Thick Cylinders and spheres
19. Columns and struts
20. Riveted joints
21. Welded joints
22. Rotating Discs and Cylinders
23. Bending of Curved Bars
24. Theories of Failure
