This course has three parts. The first part is concerned with the analysis of statically indeterminate structures by means of superposition of analytical solutions of statically determinate structures or energy principle. The second part gives how to determine plastic limit loads at the failure of structures by use of upper bound theorem and lower bound theorem. The last part focuses on element stiffness equations for truss elements and the direct stiffness method.
In this course, following Structural Mechanics I (CVE.A202), statically indeterminate structures are firstly analysed. It is emphasized that member forces of statically indeterminate structures can be determined by using not only equilibrium equations but also compatibility conditions of structural deformation. Next in the limit analysis called as simple plastic analysis, it is explained that plastic limit loads at the structure failure can be easily obtained using upper and lower bound theorems without taking account of details in failure process. In the direct stiffness method, finally, students learn the basics of matrix structural analysis to solve truss problems.
By completing this course, students will be able to:
1. Determine member forces of statically indeterminate structures, including beam, truss, frame and arch.(S.Hirose)
2. Obtain limit loads at the failure of structures.(S.Hirose)
3. Use global stiffness equations to solve truss problems. (Anil C. W.)
4. Use direct stiffness method to solve truss problems. (Anil C. W.)
statically indeterminate structure, equilibrium equation, compatibility condition, energy principle, limit analysis, upper and lower bound theorems, plastic limit load (S. Hirose)
direct stiffness method, global stiffness equations, truss element stiffness equations (Anil C. W.)
✔ Specialist skills | Intercultural skills | Communication skills | ✔ Critical thinking skills | ✔ Practical and/or problem-solving skills |
Part of each class is devoted to fundamentals and the rest to applications. To allow students to get a good understanding of the course contents and practical applications, problems related to the contents of this course are given in homework assignments. Solutions to homework assignments are reviewed in the class.
Course schedule | Required learning | |
---|---|---|
Class 1 | Element stiffness equations for a truss element (Anil C. W.) | Review sections 2.4-2.6 of textbook. |
Class 2 | Global Analysis Equations – Direct Stiffness Method (Anil C. W.) | Review sections 3.1-3.2 of textbook. |
Class 3 | Global Analysis Equations – Direct Stiffness Method 2 | Review sections 3.1-3.2 of textbook. |
Class 4 | Global Analysis Equations – Direct Stiffness Method 3 | Review sections 3.1-3.2 of textbook. |
Class 5 | Analysis of statically indeterminate structures by use of superposition method (S. Hirose) | Explain analysis of statically indeterminate structures by use of superposition method, and solve related problems. |
Class 6 | Analysis of statically indeterminate trusses (S. Hirose) | Solve statically indeterminate structure problems. |
Class 7 | Theory and application of limit analysis (S. Hirose) | Explain theory of limit analysis and determine limit loads at failure of structures. |
To enhance effective learning, students are encouraged to spend approximately 100 minutes preparing for class and another 100 minutes reviewing class content afterwards (including assignments) for each class.
They should do so by referring to textbooks and other course material.
None required. (S. Hirose)
McGuire, W., Gallagher, R. H. and Ziemian, 2000, Matrix Structural Analysis, 2nd edition, John Wiley, New York, USA. (Anil C. W.)
Lecture materials will be uploaded on OCW-i. (S. Hirose)
Structural Mechanics II，Masaru Matomoto et. al.，Maruzen, JAN：9784621046401 (S. Hirose)
Class notes are available in the Instructor’s HP. (Anil C. W.)
Kassimali, A., 2012, Matrix Analysis of Structures, 2nd edition, Cengage Learning, Connecticut, USA. (Anil C. W.)
Final exam 35%, assignment 15% (S. Hirose)
Final exam 35%, exercise problems 15%. (Anil C. W.)
Students' knowledge of structural analysis and their ability to apply them to problems will be assessed.
Student must have successfully completed Structural Mechanics I (CVE.A202) or have equivalent knowledge.