Buch, Englisch, 352 Seiten, Format (B × H): 152 mm x 229 mm, Gewicht: 550 g
Analysis, Design and Case Studies
Buch, Englisch, 352 Seiten, Format (B × H): 152 mm x 229 mm, Gewicht: 550 g
ISBN: 978-0-12-804705-7
Verlag: Elsevier Science
Strut and Tie Models: Analysis, Design and Case Studies presents a systematic and consistent approach to the application of the STM to almost all types of members using the arbitrary distinction between a D and a B region. Strut and tie modeling provides design engineers with a flexible and intuitive option for designing structures or portions that are heavily influenced by shear forces. The book also demonstrates how strut and tie modeling and finite element methods are not mutually exclusive, but rather are complementary and supportive.
The book's four part treatment starts with an overview of structural analysis and strut and tie models (STM). This is quickly followed by relevant topics, such as loads and load paths through members, case studies and formalization of strut and tie models. Applications of STM are then explained in detail along with how to extract STM through FEM, solved examples and mobile apps.
Zielgruppe
<p>Structural Designers, Structural Engineers, Construction Engineers and Earth Quake Engineers</p>
Autoren/Hrsg.
Weitere Infos & Material
Part A: Loads and Load Paths through Members A.1 Principle of Steel Bridges A.2 Steel Truss Bridges (Plus Case Studies) A.3 Steel girder draw bridge (Plus Case Studies) A.4 Steel truss railway bridge (Plus Case Studies)
Part B: Formalization of Strut and Tie Models (STM) B.1 Overview of Truss Analogy B.2 Definition of STM B.3 Struts. Ties, Nodes B.4 Principles of constructing STM B.5 Manual analysis of STM B.6 Computer Aided Analysis of STM B.7 Interpreting STM Results B.8 Limitations of STM
Part C: Application of STM C.1 Overview C.2 Beams and Transfer Girders C.2 Transfer Slabs C.3 Corbels, Brackets C.4 Joints C.5 Walls C.6 Footings and Pipe Caps C.7 Bridge Bents C.8 Pre-stressed Members C.9 Special Applications
Part D: Extracting STM through FEM D.1 Principle of STM extraction D.2 From Membrane and Shell Models D.3 From Solid Models D.4 Non-linear modeling and STM