Davis, Mark E. (1984) Numerical methods and modeling for chemical engineers. John Wiley & Sons , New York, NY. ISBN 0471887617. https://resolver.caltech.edu/CaltechBook:1984.001

PDF (Complete Book)
See Usage Policy. 7Mb  

PDF (Front Matter)
See Usage Policy. 600Kb  

PDF (Chapter 1  InitialValue Problems for Ordinary Differential Equations)
See Usage Policy. 1702Kb  

PDF (Chapter 2  BoundaryValue Problems for Ordinary Differential Equations: Discrete Variable Methods)
See Usage Policy. 1254Kb  

PDF (Chapter 3  BoundaryValue Problems for Ordinary Differential Equations: Finite Variable Methods)
See Usage Policy. 847Kb  

PDF (Chapter 4  Parabolic Partial Differential Equations in One Space Variable)
See Usage Policy. 1352Kb  

PDF (Chapter 5  Partial Differential Equations in Two Space Variables)
See Usage Policy. 1407Kb  

PDF (Appendices and Index)
See Usage Policy. 803Kb  

PDF (Errata)
See Usage Policy. 58Kb 
Use this Persistent URL to link to this item: https://resolver.caltech.edu/CaltechBook:1984.001
Abstract
This book is an introduction to the quantitative treatment of differential equations that arise from modeling physical phenomena in the area of chemical engineering. It evolved from a set of notes developed for courses taught at Virginia Polytechnic Institute and State University. An engineer working on a mathematical project is typically not interested in sophisticated theoretical treatments, but rather in the solution of a model and the physical insight that the solution can give. A recent and important tool in regard to this objective is mathematical softwarepreprogrammed, reliable computer subroutines for solving mathematical problems. Since numerical methods are not infallible, a "blackbox" approach of using these subroutines can be dangerous. To utilize software effectively, one must be aware of its capabilities and especially its limitations. This implies that the user must have at least an intuitive understanding of how the software is designed and implemented. Thus, although the subjects covered in this book are the same as in other texts, the treatment is different in that it emphasizes the methods implemented in commercial software. The aim is to provide an understanding of how the subroutines work in order to help the engineer gain maximum benefit from them. This book outlines numerical techniques for differential equations that either illustrate a computational property of interest or are the underlying methods of a computer software package. The intent is to provide the reader with sufficient background to effectively utilize mathematical software. The reader is assumed to have a basic knowledge of mathematics, and results that require extensive mathematical literacy are stated with proper references. Those who desire to delve deeper into a particular subject can then follow the leads given in the references and bibliographies. Each chapter is provided with examples that further elaborate on the text. Problems at the end of each chapter are aimed at mimicking industrial mathematics projects and, when possible, are extensions of the examples in the text. These problems have been grouped into two classes: Class 1: Problems that illustrate direct numerical application of the formulas in the text. Class 2: Problems that should be solved with software of the type described in the text (designated by an asterisk after the problem number). The level of this book is introductory, although the latest techniques are presented. The book can serve as a text for a senior or firstyear graduate level course. At Virginia Polytechnic Institute and State University I have successfully used this material for a twoquarter sequence of firstyear graduate courses. In the first quarter ordinary differential equations, Chapter 1 to 3, are covered. The second quarter examines partial differential equations using Chapters 4 and 5. I gratefully acknowledge the following individuals who have either directly or indirectly contributed to this book: Kenneth Denison, Julio Diaz, Peter Mercure, Kathleen Richter, Peter Rony, Layne Watson, and John Yamanis. I am especially indebted to Graeme Fairweather who read the manuscript and provided many helpful suggestions for its improvement. I also thank the Department of Chemical Engineering at Virginia Polytechnic Institute and State University for its support, and I apologize to the many graduate students who suffered through the early drafts as course texts. Last, and most of all, my sincerest thanks go to Jan Chance for typing the manuscript in her usual flawless form. I dedicate this book to my wife, who uncomplainingly gave up a portion of her life for its completion. Mark E. Davis
Item Type:  Book 

Additional Information:  Copyright reverted from Wiley to Professor Mark E. Davis, May 14, 2001. OCLC # 10018375; LC CARD # 83021590 
Subject Keywords:  Mathematics, Chemical Engineering, ODE, PDE, Finite Element Methods, Initial Value Problems, Boundary Value Problems, RungeKutta Methods, Finite Difference Methods, Collocation, Galerkin Method, Parabolic PDEs, Elliptic PDEs, Gaussian Elimination, Newton's Method, BSplines 
Record Number:  CaltechBook:1984.001 
Persistent URL:  https://resolver.caltech.edu/CaltechBook:1984.001 
Official Citation:  Davis, Mark E. Numerical methods and modeling for chemical engineers. New York : Wiley, 1984. http://resolver.caltech.edu/CaltechBOOK:1984.001 
Usage Policy:  You are granted permission for individual, educational, research and noncommercial reproduction, distribution, display and performance of this work in any format. 
ID Code:  25061 
Collection:  CaltechBOOK 
Deposited By:  Imported from CaltechBOOK 
Deposited On:  31 Jan 2008 
Last Modified:  03 Oct 2019 03:02 
Repository Staff Only: item control page