Topic | Text Section | Subtopics | Comments |
Antiderivatives | 4.9 |
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Introduces the concept of an antiderivative |
Areas and Distances | 5.1 |
Definition of Approximate Area Using Left and Right Approximating Rectangles |
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Application: The Distance Problem |
|
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Introduces the idea of defining the area under a curve using approximating
rectangles and taking the limit as the number of rectangles becomes large. |
The Definite Integral | 5.2 |
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Defines the definite integral as a limit of a sum, explores direct
evaluation of this limit in a few special cases, and covers a number of
important algebraic properties of definite integrals. |
Evaluating Definite Integrals | 5.3 |
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Introduces the use of antiderivatives to evaluate definite integrals.
Defines the indefinite integral and provides a short list of commonly used
indefinite integrals. |
The Fundamental Theorem of Calculus (FTC) | 5.4 |
|
The Fundamental Theorem of Calculus is the link between the two branches of calculus,
differential calculus, which deals with derivatives, and integral
calculus, which deals with integrals. Two statements of the theorem will be presented,
one in terms of a function defined by limits of integration, and the second defined
in terms of antiderivatives. |
The Substitution Rule | 5.5 |
|
The Substitution Rule in a sense is the chain rule in reverse. It
expands the class of functions for which we can find antiderivatives. |
Integration by Parts | 5.6 |
The Integration by Parts Formula | |
Integration by Parts for Definite Integrals | |
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Integration by parts in a sense is the product rule for differentiation in reverse.
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Additional Techniques of Integration | 5.7 Appendix G |
Trigonometric Integrals | |
Trigonometric Substitution | |
Partial Fractions | |
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This section further expands our repertoire of integration techniques. |
Integration Using Tables and Computer Algebra Systems | 5.8 |
Integration Using Tables | |
Integration Using Computer Algebra Systems | |
Using the Midpoint Rule to Approximate a Definite Integral | |
Examples of Functions which Cannot Be Integrated in terms of Elementary Functions | |
|
Explores the use of tables and computers to find integrals, as well
as the existence of elementary functions whose integrals are not elementary functions. |
Numerical Integration | 5.9 |
The Midpoint Rule | |
The Trapezoidal Rule | |
Simpson's Rule | |
Error Bounds | |
|
In this section we explore numerical techniques for approximate
evaluation of definite integrals. |
Improper Integrals | 5.10 |
Infinite Intervals (Type I) | |
Discontinuous Integrands (Type II) | |
A Comparison Test for Convergence | |
|
Extends the definition of definite integrals to infinite
intervals, and intervals containing discontinuities. |
More About Areas | 6.1 |
Areas Between Curves | |
Areas Enclosed by Parametric Curves | |
|
Some additional techniques for finding areas. |
Volumes | 6.2 |
Definition of the Volume of a Solid | |
Volumes of Revolution | |
The Method of Cylindrical Shells | |
|
Techniques for finding volumes of solid figures. |
Arc Length | 6.3 |
The Length of a Curve of the form y=f(x) | |
The Length of a Curve of the form x=f(y) | |
The Length of a Parametric Curve | |
|
Techniques for finding arc lengths. |
The Average Value of a Function | 6.4 |
Definition of the Average Value | |
The Mean Value Theorem for Integrals | |
|
Defines the average value of a function and presents techniques for
finding it. |
Applications to Physics and Engineering | 6.5 |
Work | |
Hydrostatic Pressure and Force | |
Moments and Center of Mass | |
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Some applications of integration in physics and engineering. |
Applications to Economics and Biology | 6.6 |
Consumer Surplus | |
Blood Flow | |
Cardiac Output | |
|
Some applications of integration in economics and biology. |
Probability | 6.7 |
Probability Density Functions | |
The Mean or Expected Value | |
The Median | |
The Normal or Gaussian Distribution | |
|
Applications of integration in the theory of probability. |
Modeling with Differential Equations | 7.1 |
Models of Population Growth | |
The Motion of a Spring | |
Differential Equations and Initial Value Problems | |
|
A brief introduction to differential equations. |
Direction Fields and Euler's Method | 7.2 |
Direction Fields | |
Euler's Method | |
|
Some graphical and approximation methods for studying differential equations without
having an explicit solution. |
Separable Equations | 7.3 |
Definition of Separable Equations | |
Application: Mixing Problems | |
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Techniques for a special class of differential equations. |
Exponential Growth and Decay | 7.4 |
Laws of Natural Growth and Decay | |
Application: Population Growth | |
Application: Radioactive Decay | |
Application: Newton's Law of Cooling | |
Application: Continuously Compounded Interest | |
|
Exponential growth and decay models and a few of their many applications. |
The Logistic Equation | 7.5 |
The Logistic Model | |
Approximate and Analytic Solutions | |
Other Population Growth Models | |
|
The Logistic Equation and some of its applications. |
Predator-Prey Systems | 7.6 |
The Lotka-Volterra Equations | |
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A brief overview of a common biological population model and its dynamics. |
Sequences | 8.1 |
The Limit of a Sequence | |
Boundedness and Monotonicity | |
|
A brief introduction to sequences. |
Series | 8.2 |
Series and Partial Sums | |
Definition of Convergence for a Series | |
Geometric Series | |
Tests for Convergence and Divergence | |
|
A brief overview of infinite series. |
The Integral and Comparison Tests | 8.3 |
Testing Convergence with an Integral | |
The Comparison Test | |
The Limit Comparison Test | |
Estimating the Sum of a Series | |
|
Some techniques for determining whether a series converges or not. Some techniques
for approximating the sum of a series. |
Other Convergence Tests | 8.4 |
The Alternating Series Test | |
Absolute Convergence | |
The Ratio Test | |
|
Some additional tests for convergence. |
Power Series | 8.5 |
Definition of a Power Series | |
Radius and Interval of Convergence | |
|
An introduction to power series. |
Representing Functions as Power Series | 8.6 |
Finding the Power Series Expansion of a Function | |
Differentiation and Integration of Power Series | |
|
Power series representation of functions. |
The Taylor and Maclaurin Series | 8.7 |
Definition of the Taylor Series | |
The remainder theorem and Taylor's inequality | |
Multiplication and Division of Power Series | |
|
An introduction to the Taylor and Maclaurin series. |
The Binomial Series | 8.8 |
Definition of the Binomial Series | |
The Fractional Case | |
|
The binomial series is useful for expanding integral and fractional powers of binomial and multinomial
expressions. |
Applications of the Taylor Polynomials | 8.9 |
Approximating Functions by Polynomials | |
Applications to Physics | |
|
Some applications of Taylor Polynomials. |