Planar Multibody Dynamics: Formulation, Programming and Applications

Published:
Author(s):
Request
Evaluation Copy

Purchasing Options

Hardback
$115.95
Add to cart
ISBN 9781420045727
Cat# 45725
 

Features

  • Presents the principles of mechanics and the complex topic of multibody dynamics in clear and simple language
  • Provides numerous practical examples ranging from simple to very complex
  • Contains homework problems at the end of each chapter, and project type assignments
  • Includes a complete solutions manual for qualifying instructors and additional material downloadable from a website
  • Summary

    Written by Parviz Nikravesh, one of the world’s best known experts in multibody dynamics, Planar Multibody Dynamics: Formulation, Programming, and Applications enhances the quality and ease of design education with extensive use of the latest computerized design tools combined with coverage of classical design and dynamics of machinery principles.

    Using language that is clear, concise, and to the point, the textbook introduces fundamental theories, computational methods, and program development for analyzing simple to complex planar mechanical systems. The author chose MATLAB® as the programming language, and since students may not be skilled programmers, the examples and exercises provide a tutorial for learning MATLAB. The examples begin with basic commands before introducing students to more advanced programming techniques. The routines developed in each chapter eventually come together to form complete programs for different types of analysis.

    Pedagogical highlights

    Contains homework problems at the end of each chapter, some requiring standard pencil-and-paper solution in order to understand the concept and others requiring either programming or the use of existing programs.

    Electronic highlights

    All the programs that are listed in the book, and some additional programs, will be available for download and will be updated periodically by the author. Additional materials for instructors, such as a solutions manual and other teaching aids, will also be available on the website.

    The author organizes the analytical and computational subjects around practical application examples. He uses several examples repeatedly, in various chapters, providing students with a basis for comparison between different formulations. The final chapter describes more extensive modeling and simulation projects. Designed specifically for undergraduates, the book is suitable as a primary text for a course on mechanisms or a supplementary text for a course on dynamics.

    Table of Contents

    Introduction


    Multibody Mechanical Systems
    Types of Analyses
    Methods of Formulation
    Computer Programming
    Application Examples
    Unit System
    Remarks
    Preliminaries
    Reference Axes
    Scalars and Vectors
    Matrices
    Vector, Array, and Matrix Differentiation
    Equations and Expressions
    Remarks
    Problems

    Fundamentals of Kinematics


    A Particle
    Kinematics of a Rigid Body
    Definitions
    Remarks
    Problems
    Fundamentals of Dynamics
    Newton’s Laws of Motion
    Dynamics of a Body
    Force Elements
    Applied Forces
    Reaction Force
    Remarks
    Problems

    Point-Coordinates: Kinematics


    Multipoint Representation
    Stationary and Primary Points
    Constraints
    Velocity and Acceleration Constraints
    Secondary Points
    Example Programs
    Remarks
    Problems

    Point-Coordinates: Dynamics


    System of Unconstrained Particles
    System of Constrained Particles
    Force and Mass Distribution
    Exact Mass Distribution
    Remarks
    Problems

    Body-Coordinates: Kinematics


    General Procedure
    Kinematic Joints
    Examples
    Velocity and Acceleration Constraints
    Programming Note
    Example Programs
    Other Types of Joints
    Remarks
    Problems

    Body-Coordinates: Dynamics


    System of Unconstrained Bodies
    System of Constrained Bodies
    Example Programs
    Remarks
    Problems

    Joint-Coordinates: Kinematics


    Vector-Loop Method
    Joint Coordinate Method
    Open-Chain Systems
    Open-Chain Example Programs
    Closed-Chain Systems
    Closed-Chain Example Programs
    Remarks
    Problems

    Joint-Coordinates: Dynamics


    Open-Chain Systems
    Open-Chain Example Program
    Closed-Chain Systems
    Closed-Chain Example Programs
    Remarks
    Problems

    Kinematic Analysis


    Unconstrained Formulation
    Constrained Formulation
    Solution Procedures
    Linear Algebraic Equations
    Nonlinear Algebraic Equations
    Body Coordinate Formulation
    Point Coordinate Formulation
    Joint Coordinate Formulation
    Remarks
    Problems
    Inverse Dynamic Analysis
    Unconstrained Formulation
    Constrained Formulation
    Different Jacobian Matrices
    Body Coordinate Formulation
    Point Coordinate Formulation
    Joint Coordinate Formulation
    Remarks
    Problems
    Forward Dynamic Analysis
    Unconstrained Formulation
    Constrained Formulation
    Body Coordinate Formulation
    Joint Coordinate Formulation
    Point Coordinate Formulation
    Constraint Violation
    Remarks
    Problems
    Complementary Analyses
    Static Analysis
    Static Equilibrium
    Initial Condition Correction
    Three Combined Analyses by Integration
    Redundant Constraints
    Friction
    Deformable Body
    Remarks
    Problems

    Projects


    Windshield Wiper Mechanism
    Internal Combustion Engine
    Sled Test and Belted Dummy
    Head and Neck
    Mountain Bike
    Motorcycle
    Elliptical Exercise Machine
    Swing
    Appendix
    References

    Downloads Updates


    Resource OS Platform Updated Description Instructions
    Errata_December20.zip Platform type January 07, 2008
    M-files_December20.zip Cross Platform January 07, 2008

    Related Titles