Differential and Integral Calculus, Volume 1

Front Cover
John Wiley & Sons, Feb 23, 1988 - Mathematics - 640 pages

The classic introduction to the fundamentals of calculus

Richard Courant's classic text Differential and Integral Calculus is an essential text for those preparing for a career in physics or applied math. Volume 1 introduces the foundational concepts of "function" and "limit", and offers detailed explanations that illustrate the "why" as well as the "how". Comprehensive coverage of the basics of integrals and differentials includes their applications as well as clearly-defined techniques and essential theorems. Multiple appendices provide supplementary explanation and author notes, as well as solutions and hints for all in-text problems.

 

Contents

INTRODUCTORY REMARKS
1
Further Examples of the Substitution Method
3
The Continuum of Numbers
7
The Concept of Function
17
Functions of an Integral Variable Sequences of Numbers
27
Further Discussion of the Concept of Limit
38
The Concept of Limit where the Variable is Continuous
46
14
52
Particle sliding down a Curve
299
Properties of the Evolute
307
CHAPTER VI
315
Taylors Theorem
322
Geometrical Applications
331
CHAPTER VII
342
Applications of the Mean Value Theorem and of Taylors Theorem
349
Numerical Solution of Equations
355

The Principle of the Point of Accumulation and its Applications
58
Some Remarks on the Elementary Functions
68
CHAPTER II
76
The Derivative
87
The Indefinite Integral the Primitive Function and the Funda mental Theorems of the Differential and Integral Calculus 88
109
Simple Methods of Graphical Integration
119
Further Remarks on the Connexion between the Integral and the Derivative
121
The Estimation of Integrals and the Mean Value Theorem of the Integral Calculus
126
APPENDIX
129
The Existence of the Definite Integral of a Continuous Function
131
The Definite Integral
133
The Relation between the Mean Value Theorem of the Differential Calculus and the Mean Value Theorem of the Integral Cal culus
134
CHAPTER III
136
The Corresponding Integral Formulæ 3 The Inverse Function and its Derivative
144
Differentiation of a Function of a Function
153
Maxima and Minima
158
The Logarithm and the Exponential Function
167
Some Applications of the Exponential Function
178
The Hyperbolic Functions
183
The Order of Magnitude of Functions
189
Some Special Functions APPENDIX
196
Remarks on the Differentiability of Functions
199
Examples
202
Some Special Formulæ
203
CHAPTER IV
204
Elementary Integrals
205
The Method of Substitution CALCULUS
211
Remarks on Functions which are not Integrable in Terms
242
The Second Mean Value Theorem of the Integral Calculus
256
Applications to the Theory of Plane Curves
267
Examples
290
APPENDIX
361
Tests for Convergence and Divergence
377
Sequences and Series of Functions
383
Power Series
398
Expansion of Given Functions in Power Series Method
404
Power Series with Complex Terms
410
Infinite Series and Improper Integrals
417
APPENDIX
455
Continuity
463
The Chain Rule and the Differentiation of Inverse Functions
472
Implicit Functions
480
Multiple and Repeated Integrals
486
CHAPTER XI
501
The Nonhomogeneous Equation
509
Additional Remarks on Differential Equations
519
SUMMARY OF IMPORTANT THEOREMS AND FORMULE
529
136
531
141
532
MISCELLANEOUS EXAMPLES
549
144
562
153
563
167
564
178
565
183
566
196
567
207
568
ANSWERS AND HINTS
571
INDEX
577
502
611
Copyright

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About the author (1988)

Richard Courant (1888-1972) obtained his doctorate at the University of Göttingen in 1910. Here, he became Hilbert's assistant. He returned to Göttingen to continue his research after World War I, and founded and headed the university's Mathematical Institute. In 1933, Courant left Germany for England, from whence he went on to the United States after a year. In 1936, he became a professor at the New York University. Here, he headed the Department of Mathematics and was Director of the Institute of Mathematical Sciences - which was subsequently renamed the Courant Institute of Mathematical Sciences. Among other things, Courant is well remembered for his achievement regarding the finite element method, which he set on a solid mathematical basis and which is nowadays the most important way to solve partial differential equations numerically.

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