Doebelin, Ernest O. : The Ohio State University Main Campus
Summary
Maintaining an optimal blend of theory and practice, this readily accessible reference/text details the utility
of system dynamics for analysis and design of mechanical, electrical, fluid, thermal, and "mixed" engineering
systems�addressing topics from system elements and simple first- and second-order systems to complex lumped- and
distributed-parameter models of practical machines and processes.
Emphasizing digital simulation and integrating frequency-response methods throughout, System Dynamics furnishes
up-to-date and thorough discussions on
relations between real system components and ideal math models
continuous-time dynamic system simulation methods, such as MATLAB/SIMULINK
analytical techniques, such as classical D-operator and Laplace transform methods for differential equation
solutions and linearization methods
vibration, electromechanics, and mechatronics
Fourier spectrum treatment of periodic functions, and transients
and much more!
System Dynamics also contains a host of self-study and pedagogical features that will make it a useful companion
for years to come, such as
easy-to-understand simulation diagrams and results
applications to real-life systems--including actual industrial hardware
intentional use of nonlinearity to achieve optimal designs
numerous end-of-chapter problems and worked examples
over 1425 graphs, equations, and drawings throughout the text
the latest references to key sources in the literature
Serving as a foundation for engineering experience, System Dynamics is a valuable reference for mechanical,
system, control/instrumentation, and sensor/actuator engineers as well as an indispensable textbook for undergraduate
students taking courses such as Dynamic Systems in departments of mechanical, aerospace, electrical, agricultural,
and industrial engineering and engineering physics.
Table of Contents
Introduction
System Elements, Mechanical
System Elements, Electrical
System Elements, Fluid and Thermal
Basic Energy Converters
Solution Methods for Differential Equations
First-Order Systems
Second-Order Systems and Mechanical Vibration Fundamentals
General Linear System Dynamics
Distributed-Parameter Models
Appendixes:
A: Viscosity of Silicone Damping Fluids
B: Units and Conversion Factors
C: Thermal System Properties
