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The primary recommended undergraduate mechanics of solids text of the Council of Engineering Institutions, it covers practical stress and strain scenarios including simple stress and strain, torsion, bending, elastic failure and buckling, with examples, and new coverage of matrix algebra, fracture mechanics, and creep and fatigue.
Inhaltsverzeichnis
1. Revisionary mathematics Revision Test 1: Revisionary mathematics MCQ Test 1 2. Further revisionary mathematics Revision Test 2: Further revisionary mathematics MCQ Test 2 Mathematics help - some references Notation used in
Mechanics of Solids 3. Statics 4. Stress and strain 5. Geometrical properties of symmetrical sections 6. Bending stresses in beams 7. Beam deflections due to bending 8. Torsion MCQ Test 3 Revision Test 3: specimen examination questions for chs 3-8 MCQ Test 4 9. Complex stress and strain 10. Membrane theory for thin-walled circular cylinders and spheres 11. Energy methods 12. Theories of elastic failure 13. Thick cylinders and spheres 14. The buckling of struts 15. Asymmetrical bending of beams 16. Shear stresses in bending and shear deflections Revision Test 4: specimen examination questions for chs 9-17 17. Experimental strain analysis 18. An introduction to matrix algebra 19. Composites 20. The matrix displacement method 21. The finite element method Revision Test 5: specimen examination questions for chs 19-21 22. An introduction to linear elastic fracture mechanics 23. Material property considerations A revisionary list of formulae for
Mechanics of Solids Answers to Multiple-choice questions References
Über den Autor / die Autorin
Carl Ross gained his first degree in Naval Architecture from King's College, Durham University, his PhD in Structural Engineering from the Victoria University of Manchester, and was awared his DSc in Ocean Engineering from the CNAA, London. His research in the field of engineering led to advances in the design of submarine pressure hulls. His publications and guest lectures to date exceed some 290 papers and books, and he was Professor Structural Dynamics at the University of Portsmouth, UK. On the website www.routledge.com/cw/bird are several of Carl Ross's practical demonstrations.
John Bird is the former Head of Applied Electronics in the Faculty of Technology at Highbury College, Portsmouth, UK. More recently, he has combined freelance lecturing at the University of Portsmouth with examiner responsibilities for Advanced Mathematics with City & Guilds and examining for the International Baccalaureate Organisation. He has over 45 years' experience of successfully teaching, lecturing, instructing, training, educating and planning of trainee engineers study programmes. He is the author of 146 textbooks on engineering, science and mathematical subjects, with worldwide sales of over one million copies. He is a chartered engineer, a chartered mathematician, a chartered scientist and a Fellow of three professional institutions. He has recently retired from lecturing at the Royal Navy's Defence College of Marine Engineering in the Defence College of Technical Training at H.M.S. Sultan, Gosport, Hampshire, UK.
Andrew Little completed an undergraduate apprenticeship with Rolls-Royce Aero Division at the City University, London. He subsequently worked as a Stress Engineer for Rolls-Royce and then for companies such as Ferranti Computer Systems and Plessey Aerospace, designing equipment for high stress and vibration environments. After joining the University of Portsmouth, he became involved with pressure vessel research and completed his PhD whilst lecturing full-time. He has taught subjects such as Solid Mechanics, Dynamics, Design and Computer Aided Design over his 30 years at Portsmouth. He is a chartered engineer, a Fellow of the Institution of Mechanical Engineers and has published 80 academic papers. Now semi-retired, Andrew is still an external examiner and an online tutor.
Zusammenfassung
The primary recommended undergraduate mechanics of solids text of the Council of Engineering Institutions, it covers practical stress and strain scenarios including simple stress and strain, torsion, bending, elastic failure and buckling, with examples, and new coverage of matrix algebra, fracture mechanics, and creep and fatigue.
