Calculus Concepts and Contexts 5th Edition by James Stewart, Stephen Kokoska – Ebook PDF Instant Download/Delivery: 9780357749104 ,0357749103
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ISBN 10: 0357749103
ISBN 13: 9780357749104
Author: James Stewart, Stephen Kokoska
Calculus Concepts and Contexts 5th Edition Table of contents:
1. Functions and Models
1.1. Four Ways to Represent a Function
Representations of Functions
Piecewise Defined Functions
Symmetry
Increasing and Decreasing Functions
1.1. Exercises
1.2. Mathematical Models: A Catalog of Essential Functions
Linear Models
Polynomials
Power Functions
Rational Functions
Algebraic Functions
Trigonometric Functions
Exponential Functions
Logarithmic Functions
1.2. Exercises
1.3. New Functions from Old Functions
Transformations of Functions
Combinations of Functions
1.3. Exercises
1.4. Exponential Functions
Applications of Exponential Functions
The Number e
1.4. Exercises
1.5. Inverse Functions and Logarithms
Inverse Functions
Logarithmic Functions
Natural Logarithms
Graph and Growth of the Natural Logarithm
1.5. Exercises
1.6. Parametric Curves
Parametric Equations and Graphs
Technology
The Cycloid
1.6. Exercises
Laboratory Project. Motion of a Point on a Circle
1. Review
Principles of Problem Solving
2. Limits
2.1. The Tangent and Velocity Problems
The Tangent Line Problem
The Velocity Problem
2.1. Exercises
2.2. The Limit of a Function
One-Sided Limits
2.2. Exercises
2.3. Calculating Limits Using the Limit Laws
2.3. Exercises
2.4. Continuity
Continuity of Combinations of Functions
The Intermediate Value Theorem
2.4. Exercises
2.5. Limits Involving Infinity
Infinite Limits
Limits at Infinity
Infinite Limits at Infinity
2.5. Exercises
2.6. Derivatives and Rates of Change
Tangents
Velocities
Derivatives
Rates of Change
2.6. Exercises
Writing Project. Early Methods for Finding Tangents
2.7. The Derivative as a Function
Other Notations
Differentiability on an Interval
Nondifferentiable Functions
Higher Order Derivatives
2.7. Exercises
2. Review
Focus on Problem Solving
3. Differentiation Rules
3.1. Derivatives of Polynomials and Exponential Functions
Power Functions
New Derivatives from Old
Exponential Functions
3.1. Exercises
Applied Project. Building a Better Roller Coaster
3.2. The Product and Quotient Rules
The Product Rule
The Quotient Rule
3.2. Exercises
3.3. Derivatives of Trigonometric Functions
3.3. Exercises
3.4. The Chain Rule
Tangents to Parametric Curves
Proving the Chain Rule
3.4. Exercises
Laboratory Project. Bézier Curves
Applied Project. Where Should a Pilot Start Descent?
3.5. Implicit Differentiation
3.5. Exercises
3.6. Inverse Trigonometric Functions and Their Derivatives
3.6. Exercises
3.7. Derivatives of Logarithmic Functions
Logarithmic Differentiation
The Number e as a Limit
3.7. Exercises
Discovery Project. Hyperbolic Functions
3.8. Rates of Change in the Natural and Social Sciences
Physics
Chemistry
Biology
Economics
Other Sciences
A Single Idea, Many Interpretations
3.8. Exercises
3.9. Linear Approximations and Differentials
Linear Approximations
Applications to Physics
Differentials
3.9. Exercises
Laboratory Project. Taylor Polynomials
3. Review
Focus on Problem Solving
4. Applications of Differentiation
4.1. Related Rates
4.1. Exercises
4.2. Maximum and Minimum Values
4.2. Exercises
Applied Project. The Calculus of Rainbows
4.3. Derivatives and the Shapes of Curves
The Mean Value Theorem
Increasing and Decreasing Functions
Local Extreme Values
Concavity
4.3. Exercises
4.4. Graphing with Calculus and Technology
4.4. Exercises
4.5. Indeterminate Forms and L’Hospital’s Rule
Indeterminate Products
Indeterminate Differences
Indeterminate Powers
4.5. Exercises
Writing Project. The Origins of L’Hospital’s Rule
4.6. Optimization Problems
Applications to Business and Economics
4.6. Exercises
Applied Project. Tin Can Shape
4.7. Newton’s Method
4.7. Exercises
4.8. Antiderivatives
Rectilinear Motion
4.8. Exercises
4. Review
Focus on Problem Solving
5. Integrals
5.1. Areas and Distances
The Area Problem
The Distance Problem
5.1. Exercises
5.2. The Definite Integral
Evaluating Integrals
The Midpoint Rule
Properties of the Definite Integral
5.2. Exercises
5.3. Evaluating Definite Integrals
Indefinite Integrals
Applications
5.3. Exercises
Discovery Project. Area Functions
5.4. The Fundamental Theorem of Calculus
Differentiation and Integration as Inverse Processes
Proof of FTC1
5.4. Exercises
Writing Project. Newton, Leibniz, and the Invention of Calculus
References
Sourcebooks
5.5. The Substitution Rule
Substitution: Indefinite Integrals
Definite Integrals
Symmetry
5.5. Exercises
5.6. Integration by Parts
Reduction Formulas
5.6. Exercises
5.7. Additional Techniques of Integration
Trigonometric Integrals
Trigonometric Substitution
Partial Fractions
5.7. Exercises
5.8. Integration Using Tables and Computer Algebra Systems
Tables of Integrals
Computer Algebra Systems
Can We Integrate All Continuous Functions?
5.8. Exercises
Discovery Project. Patterns in Integrals
5.9. Approximate Integration
Approximation Techniques
Error Bounds
Simpson’s Rule
5.9. Exercises
5.10. Improper Integrals
Type 1: Infinite Intervals
Type 2: Discontinuous Integrands
A Comparison Test for Improper Integrals
5.10. Exercises
5. Review
Focus on Problem Solving
6. Applications of Integration
6.1. More about Areas
Areas between Curves
Areas Enclosed by Parametric Curves
6.1. Exercises
6.2. Volumes
The Disk Method
The Washer Method
6.2. Exercises
Discovery Project. Rotating on a Slant
6.3. Volumes by Cylindrical Shells
Disks and Washers versus Cylindrical Shells
6.3. Exercises
6.4. Arc Length
Curve Defined in Terms of x and y
6.4. Exercises
Discovery Project. Arc Length Contest
6.5. Average Value of a Function
Mean Value Theorem for Integrals
6.5. Exercises
Applied Project. The Best Seat at the Movies
6.6. Applications to Physics and Engineering
Work
Hydrostatic Pressure and Force
Moments and Centers of Mass
6.6. Exercises
Discovery Project. Complementary Coffee Cups
6.7. Applications to Economics and Biology
Consumer Surplus
Blood Flow
Cardiac Output
6.7. Exercises
6.8. Probability
Continuous Random Variables
Average Values
Normal Distributions
6.8. Exercises
6. Review
Focus on Problem Solving
7. Differential Equations
7.1. Modeling with Differential Equations
Models of Population Growth
A Model for the Motion of a Spring
General Differential Equations
7.1. Exercises
7.2. Slope Fields and Euler’s Method
Slope Fields
Euler’s Method
7.2. Exercises
7.3. Separable Equations
Orthogonal Trajectories
Mixing Problems
7.3. Exercises
Applied Project. How Fast Does a Tank Drain?
Applied Project. Which Is Faster, Going Up or Coming Down?
7.4. Exponential Growth and Decay
Population Growth
Radioactive Decay
Newton’s Law of Cooling
Continuously Compounded Interest
7.4. Exercises
Applied Project. Calculus and Baseball
7.5. The Logistic Equation
The Logistic Model
Slope Fields
Euler’s Method
The Analytic Solution
Comparison of the Natural Growth and Logistic Models
Other Models for Population Growth
7.5. Exercises
7.6. Predator-Prey Systems
7.6. Exercises
7. Review
Focus on Problem Solving
A Preview of Calculus
The Area Problem
The Tangent Line Problem
Velocity
The Limit of a Sequence
The Sum of a Series
Summary
8. Infinite Sequences and Series
8.1. Sequences
Sequence Basics
Limit of a Sequence
Limit Laws
Sequence-Function Links
Sequence Characterizations
8.1. Exercises
Laboratory Project. Logistic Sequences
8.2. Series
Series Basics
Series Compilation
Convergent Series Behavior
Combining Series
8.2. Exercises
8.3. The Integral and Comparison Tests; Estimating Sums
Testing with an Integral
Testing by Comparing
Estimating the Sum of a Series
8.3. Exercises
8.4. Other Convergence Tests
Alternating Series
Estimating Sums
Absolute Convergence
The Ratio Test
8.4. Exercises
8.5. Power Series
Power Series Basics
Power Series Convergence
8.5. Exercises
8.6. Representations of Functions as Power Series
Using Geometric Series
Differentiation and Integration of Power Series
8.6. Exercises
8.7. Taylor and Maclaurin Series
Introduction
Functions Equal to Their Taylor Series
The Binomial Series
Series Summary
Multiplication and Division of Power Series
8.7. Exercises
Laboratory Project. An Elusive Limit
Writing Project. How Newton Discovered the Binomial Series
8.8. Applications of Taylor Polynomials
Approximating Functions by Polynomials
Application to Physics
8.8. Exercises
Applied Project. Radiation from the Stars
8. Review
Focus on Problem Solving
9. Vectors and the Geometry of Space
9.1. Three-Dimensional Coordinate Systems
Location in Space
Graphs in Space
Distance in Space
9.1. Exercises
9.2. Vectors
Definitions and Notation
Combining Vectors
Vector Components
Operations and Properties
Basis Vectors
Applications
9.2. Exercises
9.3. The Dot Product
Work and the Dot Product
The Dot Product in Component Form
Projections
9.3. Exercises
9.4. The Cross Product
Torque and the Cross Product
The Cross Product in Component Form
Triple Products
9.4. Exercises
Discovery Project. The Geometry of a Tetrahedron
9.5. Equations of Lines and Planes
Lines
Planes
Distances
9.5. Exercises
Laboratory Project. Putting 3D in Perspective
9.6. Functions and Surfaces
Functions of Two Variables
Graphs
Quadric Surfaces
9.6. Exercises
9.7. Cylindrical and Spherical Coordinates
Cylindrical Coordinates
Spherical Coordinates
9.7. Exercises
Laboratory Project. Families of Surfaces
9. Review
Focus on Problem Solving
10. Vector Functions
10.1. Vector Functions and Space Curves
Vector Functions
Limits and Continuity
Space Curves
Using Technology to Draw Space Curves
10.1. Exercises
10.2. Derivatives and Integrals of Vector Functions
Derivatives
Differentiation Rules
Integrals
10.2. Exercises
10.3. Arc Length and Curvature
Arc Length
Curvature
The Normal and Binormal Vectors
10.3. Exercises
10.4. Motion in Space: Velocity and Acceleration
Velocity, Speed, and Acceleration
Tangential and Normal Components of Acceleration
Kepler’s Laws of Planetary Motion
10.4. Exercises
Applied Project. Kepler’s Laws
10.5. Parametric Surfaces
Grid Curves
Finding Parametric Representations
Surfaces of Revolution
10.5. Exercises
10. Review
Focus on Problem Solving
11. Partial Derivatives
11.1. Functions of Several Variables
Functions of Two Variables
Visual Representations
Functions of Three or More Variables
11.1. Exercises
11.2. Limits and Continuity
Limits of Functions of Two Variables
Continuity
11.2. Exercises
11.3. Partial Derivatives
Partial Derivatives of Functions of Two Variables
Interpretations of Partial Derivatives
Functions of More Than Two Variables
Higher Derivatives
Partial Differential Equations
The Cobb–Douglas Production Function
11.3. Exercises
11.4. Tangent Planes and Linear Approximations
Tangent Planes
Linear Approximations
Differentials
Functions of Three or More Variables
Tangent Planes to Parametric Surfaces
11.4. Exercises
11.5. The Chain Rule
The Chain Rule: Case 1
The Chain Rule: Case 2
The Chain Rule: General Version
Implicit Differentiation
11.5. Exercises
11.6. Directional Derivatives and the Gradient Vector
Directional Derivatives
The Gradient Vector
Functions of Three Variables
Maximizing the Directional Derivative
Tangent Planes to Level Surfaces
Significance of the Gradient Vector
11.6. Exercises
11.7. Maximum and Minimum Values
Local Maximum and Minimum Values
Absolute Maximum and Minimum Values
11.7. Exercises
Applied Project. Designing a Dumpster
Laboratory Project. Quadratic Approximations and Critical Points
11.8. Lagrange Multipliers
Lagrange Multipliers: One Constraint
Lagrange Multipliers: Two Constraints
11.8. Exercises
Applied Project. Rocket Science
Applied Project. Hydro-Turbine Optimization
11. Review
Focus on Problem Solving
12. Multiple Integrals
12.1. Double Integrals over Rectangles
Review of the Definite Integral
Volumes and Double Integrals
The Midpoint Rule
Average Value
Properties of Double Integrals
12.1. Exercises
12.2. Iterated Integrals
12.2. Exercises
12.3. Double Integrals over General Regions
General Regions
Properties of Double Integrals
12.3. Exercises
12.4. Double Integrals in Polar Coordinates
12.4. Exercises
12.5. Applications of Double Integrals
Density and Mass
Moments and Centers of Mass
Moment of Inertia
Probability
Expected Values
12.5. Exercises
12.6. Surface Area
Area of a Parametric Surface
Surface Area of a Graph
12.6. Exercises
12.7. Triple Integrals
Triple Integrals over Rectangular Boxes
Triple Integrals over General Regions
Applications of Triple Integrals
12.7. Exercises
Discovery Project. Volumes of Hyperspheres
12.8. Triple Integrals in Cylindrical and Spherical Coordinates
Cylindrical Coordinates
Spherical Coordinates
12.8. Exercises
Applied Project. Roller Derby
Discovery Project. The Intersection of Three Cylinders
12.9. Change of Variables in Multiple Integrals
Change of Variables in Double Integrals
Triple Integrals
12.9. Exercises
12. Review
Focus on Problem Solving
13. Vector Calculus
13.1. Vector Fields
Vector Fields in ℝ 2 and ℝ 3
Gradient Fields
13.1. Exercises
13.2. Line Integrals
Line Integrals in the Plane
Line Integrals with Respect to x or y
Line Integrals in Space
Line Integrals of Vector Fields
13.2. Exercises
13.3. The Fundamental Theorem for Line Integrals
The Fundamental Theorem for Line Integrals
Independence of Path
Conservative Vector Fields and Potential Functions
Conservation of Energy
13.3. Exercises
13.4. Green’s Theorem
Green’s Theorem
Finding Areas with Green’s Theorem
Extended Versions of Green’s Theorem
13.4. Exercises
13.5. Curl and Divergence
Curl
Divergence
Vector Forms of Green’s Theorem
13.5. Exercises
13.6. Surface Integrals
Parametric Surfaces
Graphs
Oriented Surfaces
Surface Integrals of Vector Fields
13.6. Exercises
13.7. Stokes’ Theorem
Curl Vector Meaning
13.7. Exercises
13.8. The Divergence Theorem
Divergence Theorem Extended
13.8. Exercises
13.9. Summary
13. Review
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Tags: James Stewart, Stephen Kokoska, Calculus Concepts, Contexts