Book One Cover Features

System Requirements

Table of Contents


CALCULUS LIVE

for Calculus: Single Variable, Second Edition
ISBN: 0-471-29381-4, ©1999

for Calculus: Single and Multivariable, Second Edition
ISBN: 0-471-31788-8, ©1999

In collaboration with Wolfram Research, Inc., developers of Mathematica, this marriage of technology and textbook for the calculus classroom takes another leap forward as the calculus textbook itself becomes an electronic tool. This CD-ROM version of both Calculus, Single Variable, Second Edition by Hughes-Hallett, Gleason, et. al., and Multivariable Calculus by McCallum, Hughes-Hallett, Gleason, McCallum, et. al. helps calculus come alive for students. Each copy of Calculus Live runs on a limited kernel of Mathematica which is provided on the CD-ROM.

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Features

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System Requirements




Windows-based PCs:
486DX/66 Computer
Windows 95 or higher
16 megabytes of RAM minimum
Double-speed CD-ROM drive
VGA color monitor with 256 colors

Macintosh:
System 7.1 or higher
With a Power Macintosh, you will need System 7.1.2 or higher
16 megabytes of RAM minimum
Double-speed CD-ROM drive
VGA color monitor with 256 colors


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Table of Contents

1.  A LIBRARY OF FUNCTIONS
1.1   WHAT'S A FUNCTION?
1.2   LINEAR FUNCTIONS
1.3   EXPONENTIAL FUNCTIONS
1.4   POWER FUNCTIONS
1.5   NOTES ON INVERSE FUNCTIONS
1.6   LOGARITHMS
1.7   THE NUMBER e AND NATURAL LOGARITHMS
1.8   NEW FUNCTIONS FROM OLD
1.9   THE TRIGONOMETRIC FUNCTIONS
1.10 POLYMONIALS AND RATIONAL FUNCTIONS
1.11 INTRODUCTION TO CONTINUITY
REVIEW PROBLEMS
PROJECTS

FOCUS ON THEORY
UNDERPINNINGS OF CALCULUS
THE BINOMIAL THEOREM
COMPLETENESS OF THE REAL NUMBERS

2.  KEY CONCEPT:  THE DERIVATIVE
2.1   HOW DO WE MEASURE SPEED?
2.2   THE DERIVATIVE AT A POINT
2.3   THE DERIVATIVE FUNCTION
2.4   INTERPRETATIONS OF THE DERIVATIVE
2.5   THE SECOND DERIVATIVE
REVIEW PROBLEMS
PROJECTS

FOCUS ON THEORY
LIMITS AND CONTINUITY
DIFFERENTIABILITY AND LINEAR APPROXIMATION

3.  KEY CONCEPT:  THE DEFINITE INTEGRAL
3.1   HOW DO WE MEASURE DISTANCE TRAVELED?
3.2   THE DEFINITE INTEGRAL
3.3   INTERPRETATIONS OF THE DEFINITE INTEGRAL
3.4   THEOREMS ABOUT DEFINITE INTEGRALS
REVIEW PROBLEMS
PROJECTS

FOCUS ON THEORY
THE DEFINITE INTEGRAL

4.  SHORT-CUTS TO DIFFERENTIATION
4.1   POWERS AND POLYNOMIALS
4.2   THE EXPONENTIAL FUNCTION
4.3   THE PRODUCT AND QUOTIENT RULES
4.4   THE CHAIN RULE
4.5   THE TRIGONOMETRIC FUNCTIONS
4.6   APPLICATIONS OF THE CHAIN RULE
4.7   IMPLICIT FUNCTIONS
4.8   LINEAR APPROXIMATIONS AND LIMITS
REVIEW PROBLEMS
PROJECTS

FOCUS ON PRACTICE
DIFFERENTIATION

5.  USING THE DERIVATIVE
5.1   USING FIRST AND SECOND DERIVATIVES
5.2   FAMILIES OF CURVES:  A QUALITATIVE STUDY
5.3   OPTIMIZATION
5.4   APPLICATIONS TO MARGINALITY
5.5   MORE OPTIMIZATION:  INTRODUCTION TO MODELING
5.6   HYPERBOLIC FUNCTIONS
REVIEW PROBLEMS
PROJECTS

FOCUS ON THEORY
THEOREMS ABOUT CONTINUOUS AND DIFFERENTIABLE FUNCTIONS

6.  CONSTRUCTING ANTIDERIVATIVES
6.1   ANTIDERIVATIVES GRAPHICALLY AND NUMERICALLY
6.2   CONSTRUCTING ANTIDERIVATIVES ANALYTICALLY
6.3   DIFFERENTIAL EQUATIONS
6.4   SECOND FUNDAMENTAL THEOREM OF CALCULUS
REVIEW PROBLEMS
PROJECTS

FOCUS ON MODELING
THE EQUATIONS OF MOTION

7.  INTEGRATION
7.1   INTEGRATION BY SUBSTITUTION PART I
7.2   INTEGRATION BY SUBSTITUTION: PART II
7.3   INTEGRATION BY PARTS
7.4   TABLES OF INTEGRALS
7.5   APPROXIMATING DEFINITE INTEGRALS
7.6   APPROXIMATION ERRORS AND SIMPSON'S RULE
7.7   IMPROPER INTEGRALS
7.8   MORE IMPROPER INTEGRALS
REVIEW PROBLEMS
PROJECTS

FOCUS ON PRACTICE
INTEGRATION

8.  USING THE DEFINITE INTEGRAL
8.1   APPLICATIONS TO GEOMETRY
8.2   DENSITY AND CENTER OF MASS
8.3   APPLICATIONS TO PHYSICS
8.4   APPLICATIONS TO ECONOMICS
REVIEW PROBLEMS
PROJECTS

FOCUS ON MODELING
DISTRIBUTION FUNCTIONS
PROBABILITY AND MORE ON DISTRIBUTIONS

9.  APPROXIMATIONS AND SERIES
9.1   TAYLOR POLYNOMIALS AND SERIES
9.2   CONVERGENCE OF SERIES
9.3   FINDING AND USING TAYLOR SERIES
9.4   GEOMETRIC SERIES
9.5   FOURIER SERIES
REVIEW PROBLEMS
PROJECTS

FOCUS ON THEORY
CONVERGENCE THEOREMS
THE ERROR IN TAYLOR APPROXIMATIONS

10.  DIFFERENTIAL EQUATIONS
10.1  WHAT IS A DIFFERENTIAL EQUATION?
10.2   SLOPE FIELDS
10.3   EULER'S METHOD
10.4   SEPARATION OF VARIABLES
10.5   GROWTH AND DECAY
10.6   APPLICATIONS AND MODELING
10.7   MODELS OF POPULATION GROWTH
10.8   SECOND-ORDER DIFFERENTIAL EQUATIONS:  OSCILLATIONS
10.9   LINEAR SECOND-ORDER DIFFERENTIAL EQUATIONS
REVIEW PROBLEMS
PROJECTS

11.  FUNCTIONS OF SEVERAL VARIABLES
11.1   FUNCTIONS OF TWO VARIABLES
11.2   A TOUR OF THREE-DIMENSIONAL SPACE
11.3   GRAPHS OF FUNCTIONS OF TWO VARIABLES
11.4   CONTOUR DIAGRAMS
11.5   LINEAR FUNCTIONS
11.6   FUNCTIONS OF MORE THAN TWO VARIABLES
REVIEW PROBLEMS
PROJECTS

FOCUS ON THEORY
LIMITS AND CONTINUITY

12.  A FUNDAMENTAL TOOL:  VECTORS
12.1   DISPLACEMENT VECTORS
12.2   VECTORS IN GENERAL
12.3   THE DOT PRODUCT
12.4   THE CROSS PRODUCT
REVIEW PROBLEMS
PROJECTS

13.  DIFFERENTIATING FUNCTIONS OF MANY VARIABLES
13.1   THE PARTIAL DERIVATIVE
13.2   COMPUTING PARTIAL DERIVATIVES ALGEBRAICALLY
13.3   LOCAL LINEARITY AND THE DIFFERENTIAL
13.4   GRADIENTS AND DIRECTIONAL DERIVATIVES IN THE PLANE
13.5   GRADIENTS AND DIRECTIONAL DERIVATIVES IN SPACE
13.6   THE CHAIN RULE
13.7   SECOND ORDER PARTIAL DERIVATIVES
13.8   TAYLOR APPROXIMATIONS
REVIEW PROBLEMS
PROJECTS

FOCUS ON THEORY
DIFFERENTIABILITY

14.  OPTIMIZATION:  LOCAL AND GLOBAL EXTREMA
14.1   LOCAL EXTREMA
14.2   GLOBAL EXTREMA: UNCONSTRAINED OPTIMIZATION
14.3   CONSTRAINED OPTIMIZATION:  LAGRANGE MULTIPLIERS
REVIEW PROBLEMS
PROJECTS

FOCUS ON MODELING
THE LAGRANGIAN AND ITS INTERPRETATION

15.  INTEGRATING FUNCTIONS OF MANY VARIABLES
15.1   THE DEFINITE INTEGRAL OF A FUNCTION OF TWO VARIABLES
15.2   ITERATED INTEGRALS
15.3   TRIPLE INTEGRALS
15.4   DOUBLE INTEGRALS IN POLAR COORDINATES
15.5   INTEGRALS IN CYLINDRICAL AND SPHERICAL COORDINATES
15.6   APPLICATIONS OF INTEGRATION TO PROBABILITY
REVIEW PROBLEMS
PROJECTS

FOCUS ON THEORY
CHANGE OF VARIABLES IN A MULTIPLE INTEGRAL

16.  PARAMETERIZED CURVES
16.1   PARAMETERIZED CURVES
16.2   MOTION, VELOCITY, AND ACCELERATION
REVIEW PROBLEMS
PROJECTS

17.  VECTOR FIELDS
17.1   VECTOR FIELDS
17.2   THE FLOW OF A VECTOR FIELD
REVIEW PROBLEMS

18.  LINE INTEGRALS
18.1   THE IDEA OF A LINE INTEGRAL
18.2   COMPUTING LINE INTEGRALS OVER PARAMETERIZED CURVES
18.3   GRADIENT FIELDS AND PATH-INDEPENDENT FIELDS
18.4   PATH-DEPENDENT VECTOR FIELDS AND GREEN'S THEOREM
REVIEW PROBLEMS
PROJECTS

FOCUS ON THEORY
PROOF OF GREEN'S THEOREM

19.  FLUX INTEGRALS
19.1   THE IDEA OF A FLUX INTEGRAL
19.2   FLUX INTEGRALS FOR GRAPHS, CYLINDERS, AND SPHERES
REVIEW PROBLEMS
PROJECTS

20.  CALCULUS OF VECTOR FIELDS
20.1   THE DIVERGENCE OF A VECTOR FIELD
20.2   THE DIVERGENCE THEOREM
20.3   THE CURL OF A VECTOR FIELD
20.4   STOKES' THEOREM
REVIEW PROBLEMS
PROJECTS

FOCUS ON THEORY
THE THREE FUNDAMENTAL THEOREMS

APPENDIX
A.  POLAR COORDINATES
B.  COMPLEX NUMBERS
C.  DETERMINANTS
D.  PROJECTS
ANSWERS TO OFF NUMBER PROBLEMS
INDEX

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