1st Edition

Introduction to Structural Analysis Displacement and Force Methods

By S. T. Mau Copyright 2012
    328 Pages 522 B/W Illustrations
    by CRC Press

    Bridging the gap between what is traditionally taught in textbooks and what is actually practiced in engineering firms, Introduction to Structural Analysis: Displacement and Force Methods clearly explains the two fundamental methods of structural analysis: the displacement method and the force method. It also shows how these methods are applied, particularly to trusses, beams, and rigid frames.

    Acknowledging the fact that virtually all computer structural analysis programs are based on the matrix displacement method of analysis, the text begins with the displacement method. A matrix operations tutorial is also included for review and self-learning. To minimize any conceptual difficulty readers may have, the displacement method is introduced with the plane truss analysis and the concept of nodal displacement.

    The book then presents the force method of analysis for plane trusses to illustrate force equilibrium, deflection, statistical indeterminacy, and other concepts that help readers to better understand the behavior of a structure. It also extends the force method to beam and rigid frame analysis. Toward the end of the book, the displacement method reappears along with the moment distribution and slope-deflection methods in the context of beam and rigid frame analysis. Other topics covered include influence lines, non-prismatic members, composite structures, secondary stress analysis, and limits of linear and static structural analysis.

    Integrating classical and modern methodologies, this book explains complicated analysis using simplified methods and numerous examples. It provides readers with an understanding of the underlying methodologies of finite element analysis and the practices used by professional structural engineers.

    Truss Analysis: Matrix Displacement Method
    What Is a Truss?
    A Truss Member
    Member Stiffness Equation in Global Coordinates
    Unconstrained Global Stiffness Equation
    Constrained Global Stiffness Equation and Its Solution
    Procedures of Truss Analysis
    Kinematic Stability
    Summary

    Truss Analysis: Force Method—Part I
    Introduction
    Statically Determinate Plane Truss Types
    Method of Joints and Method of Sections
    Matrix Method of Joints

    Truss Analysis: Force Method—Part II
    Truss Deflection
    Indeterminate Truss Problems: Method of Consistent Deformations
    Laws of Reciprocity
    Concluding Remarks

    Beam and Frame Analysis: Force Method—Part I
    What Are Beams and Frames?
    Statical Determinacy and Kinematic Stability
    Shear and Moment Diagrams
    Statically Determinate Beams and Frames

    Beam and Frame Analysis: Force Method—Part II
    Deflection of Beams and Frames
    Integration Methods
    Energy Methods
    Frame Deflection

    Beam and Frame Analysis: Force Method—Part III
    Statically Indeterminate Beams and Frames
    Indeterminate Beam Analysis
    Indeterminate Frame Analysis

    Beam and Frame Analysis: Displacement Method—Part I
    Introduction
    Moment Distribution Method

    Beam and Frame Analysis: Displacement Method—Part II
    Slope-Deflection Method
    Matrix Stiffness Analysis of Frames

    Influence Lines
    What Is an Influence Line?
    Beam Influence Lines
    Truss Influence Lines

    Other Topics
    Introduction
    Non-Prismatic Beam and Frame Members
    Effects of Support Movement, Temperature, and Construction Error
    Secondary Stresses in Trusses
    Composite Structures
    Materials Nonlinearity
    Geometric Nonlinearity
    Structural Stability
    Dynamic Effects
    Finite Element Method

    Appendix A: Matrix Algebra Review

    Appendix B: Supplementary Review Notes

    Biography

    S.T. Mau, PhD, PE, is a professor in the Department of Civil Engineering and Applied Mechanics at California State University, Northridge. He was formerly Dean of Engineering at New Jersey Institute of Technology and California State University, Northridge, and department chair at National Taiwan University and University of Houston. He is also the co-author of a previous textbook, Elementary Theory of Structures, Fourth Edition (1995), and a recipient of the Moisseiff Award of the American Society of Civil Engineers.

    "This book covers most important materials of a first course on structural analysis. It is organized logically, presented concisely and written well. Classical analysis methods and modern matrix stiffness methods are of good balance. ... a very readable textbook."
    —Liang-Jenq Leu, Department of Civil Engineering, National Taiwan University, Taiwan


    "This book has two important features that make it unique - Both the force and displacement methods of analysis are given equal emphasis, and the matrix method is introduced at a very early stage. While the force method is important for students to learn how structures behave, the displacement method on which the matrix method is based has indubitable practical significance. Dr. Mau has done a superb job in espousing both theory and practice in his textbook."
    —Eric Lui, Syracuse University, New York, USA