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The Fundamental Theorem of Calculus
Three Different Concepts
The Fundamental Theorem of Calculus (Part 2)
The Fundamental Theorem of Calculus (Part 1)
More FTC 1
The Indefinite Integral and the Net Change
Indefinite Integrals and Antiderivatives
A Table of Common Antiderivatives
The Net Change Theorem
The NCT and Public Policy
Substitution
Substitution for Indefinite Integrals
Examples to Try
Revised Table of Integrals
Substitution for Definite Integrals
Examples
Area Between Curves
Computation Using Integration
To Compute a Bulk Quantity
The Area Between Two Curves
Horizontal Slicing
Summary
Volumes
Slicing and Dicing Solids
Solids of Revolution 1: Disks
Solids of Revolution 2: Washers
More Practice
Integration by Parts
Integration by Parts
Examples
Integration by Parts with a definite integral
Going in Circles
Tricks of the Trade
Integrals of Trig Functions
Antiderivatives of Basic Trigonometric Functions
Product of Sines and Cosines (mixed even and odd powers or only
odd powers)
Product of Sines and Cosines (only even powers)
Product of Secants and Tangents
Other Cases
Trig Substitutions
How Trig Substitution Works
Summary of trig substitution options
Examples
Completing the Square
Partial Fractions
Introduction
Linear Factors
Irreducible Quadratic Factors
Improper Rational Functions and Long Division
Summary
Strategies of Integration
Substitution
Integration by Parts
Trig Integrals
Trig Substitutions
Partial Fractions
Improper Integrals
Type 1  Improper Integrals with Infinite Intervals of
Integration
Type 2  Improper Integrals with Discontinuous Integrands
Comparison Tests for Convergence
Differential Equations
Introduction
Separable Equations
Mixing and Dilution
Models of Growth
Exponential Growth and Decay
Logistic Growth
Infinite Sequences
Approximate Versus Exact Answers
Examples of Infinite Sequences
Limit Laws for Sequences
Theorems for and Examples of Computing Limits of Sequences
Monotonic Covergence
Infinite Series
Introduction
Geometric Series
Limit Laws for Series
Test for Divergence and Other Theorems
Telescoping Sums and the FTC
Integral Test
Road Map
The Integral Test
Estimates of Value of the Series
Comparison Tests
The Basic Comparison Test
The Limit Comparison Test
Convergence of Series with Negative Terms
Introduction, Alternating Series,and the AS Test
Absolute Convergence
Rearrangements
The Ratio and Root Tests
The Ratio Test
The Root Test
Examples
Strategies for testing Series
Strategy to Test Series and a Review of Tests
Examples, Part 1
Examples, Part 2
Power Series
Radius and Interval of Convergence
Finding the Interval of Convergence
Power Series Centered at $x=a$
Representing Functions as Power Series
Functions as Power Series
Derivatives and Integrals of Power Series
Applications and Examples
Taylor and Maclaurin Series
The Formula for Taylor Series
Taylor Series for Common Functions
Adding, Multiplying, and Dividing Power Series
Miscellaneous Useful Facts
Applications of Taylor Polynomials
Taylor Polynomials
When Functions Are Equal to Their Taylor Series
When a Function Does Not Equal Its Taylor Series
Other Uses of Taylor Polynomials
Partial Derivatives
Visualizing Functions in 3 Dimensions
Definitions and Examples
An Example from DNA
Geometry of Partial Derivatives
Higher Order Derivatives
Differentials and Taylor Expansions
Multiple Integrals
Background
What is a Double Integral?
Volumes as Double Integrals
Iterated Integrals over Rectangles
How To Compute Iterated Integrals
Examples of Iterated Integrals
Cavalieri's Principle
Fubini's Theorem
Summary and an Important Example
Double Integrals over General Regions
Type I and Type II regions
Examples 14
Examples 57
Order of Integration


Summary of Series Tests
The central question in these modules covering series is to determine whether a series converges.
If a series converges, then there are sometimes ways to compute
its sum. If it diverges, then it makes no sense.
We already have some tests. The
following three techniques should be considered first when
looking at a series.
 Geometric series:
When we have $\displaystyle\sum_{n=0}^\infty ar^n$, with
$r<1$, then the series converges to \frac{a}{1r}$.
 Telescoping sums: If
our series has telescoping partial sums, then we can determine
the convergence/divergence by taking the limit of the few terms
in the partial sum (after cancellation), and if it converges we
can find its value.
 Test for divergence:
If $\displaystyle\lim_{n\to\infty}a_n\ne0$, then $\sum a_n$
diverges. But if $\displaystyle\lim_{n\to\infty}a_n=0$, we
need to do more work.
The main techniques that we will cover to determine convergence of
series when the steps above don't
suffice are in the upcoming
sets of modules:
Integral test:
(This module) Certain infinite sums can be compared to
improper integrals. The sums converge if and only if the
integrals converge.
Comparison tests: If
$\sum a_n$ converges and {$b_n$} meets certain criteria as
compared to {$a_n$}, then $\sum b_n$ converges. If $\sum
a_n$ diverges and {$b_n$} meets certain criteria as compared to
{$a_n$}, then $\sum b_n$ diverges.
Alternating series:
Series whose terms go back and forth between positive and negative
have some special properties. The cancellation between
positive and negative terms gives more convergence than you might
expect from the size of the terms, and makes convergence of these
series easy to determine.
Ratio and Root Tests:
These are the big tests, which often are useful when other tests
fail. In addition, these will be the tests that will allow
us to understand radii of convergence for power series.
