Limits

Introduction to Limits

Formal Definition of Limits Part 1

Formal Definition of Limits Part 2

Determining Limits

Ex 1:  Determine a Limit Numerically

Ex 2:  Determine a Limit Numerically

Ex 3:  Determine a Limit Numerically

Examples:  Determining Basic Limits Graphically

Ex 1:  Determining Limits and One-Sided Limits Graphically

Ex 2:  Determining Limits and One-Sided Limits Graphically

Ex 1:  Determine a Limit Analytically

Ex 2:  Determine a Limit of a Piece-Wise Defined Function Analytically

Ex 3:  Determine a Limit Analytically by Factoring

Ex 4:  Determine Limits of a Rational Function Analytically

Ex 1: Determine a Limit of a Rational Function by Expanding or Factoring

Ex 2: Determine a Limit of a Rational Function by Factoring and Simplifying

Ex 3: Determine a Limit of a Rational Function by Factoring and Simplifying

Ex 1: Find a Limit by Rationalizing or Factoring

Ex 2: Find a Limit by Rationalizing or Factoring

Ex: Find a Limit Requiring Rationalizing

Ex:  Determine Limits of a Piecewise Defined Function

 

Limits at Infinity

Limits at Infinity

Limits at Infinity – Additional Examples

Ex:  Determining Limits at Infinity Graphically

Ex: Limits at Infinity of a Polynomial Function

Ex: Limits at Infinity of a Rational Function (DNE)

Ex: Limits at Infinity of a Rational Function (Zero)

Ex: Limits at Infinity of Rational Function (Ratio of Leading Coefficients)

Ex: Limits at Infinity of a Function Involving a Square Root

Ex: Limits at Infinity of a Function Involving an Exponential Function

Limits involving Trigonometric Functions

Ex: Find Limits of Composite Function Graphically

Squeeze Theorem and Special Limits

Determining Limits Using Special Limits

 

Continuity Using Limits

Continuity

Ex: Determine Which Rule of Continuity at a Point is Violated

Ex 1: Find the Value of Constant to Make a Piecewise Defined Function Continuous Everywhere

Ex 2: Find the Value of Constant to Make a Piecewise Defined Function Continuous Everywhere

Ex 3:  Find the Value of c to Make a Piecewise Defined Function Continuous Everywhere

Asymptotes:  Part 1, Part 2

 

Average Rate of Change

Average Rate of Change

Ex:  Determine Average Rate of Change

Ex:  Find the Average Rate of Change From a Table - Temperatures

Ex:  Find the Average Rate of Change from a Graph

Ex:  Find the Average Rate of Change Given a Function Rule

Ex:  Average Rate of Change Application - Hot Air Balloon Function

Ex:  Find the Average Rate of Change Given a Function on [2,t]

Ex:  Find the Average Rate of Change Given a Function on [3, 3+h]

Ex:  Use Average Velocity to Predict Instantaneous Velocity

 

Formal Definition of the Derivative

Introduction to the Derivative

Finding Derivatives using the Limit Definition

Example 1:  Determine a Derivative using The Limit Definition

Example 2:  Determine a Derivative using The Limit Definition

Example 3:  Determine a Derivative using The Limit Definition

 

Differentiation of Basic Functions and Using the Power Rule

Finding Derivatives Using the Power  Rule

Ex:  Derivatives and Derivative Values of a Linear and Constant Function

Ex: Derivative of a Quotient Function By Simplifying

Ex:  Find the Equation of a Tangent Line to a Quadratic Function at a Given value of x

Ex 1:  Basic Derivatives Using the Power Rule

Ex 2:  Derivatives Using the Power Rule with Negative and Decimal Exponents

Ex 3:  Derivatives Using the Power Rule with Radicals

Ex 4:  Derivative Using the Power Rule Involving a Variety of Terms

Ex: Find a Derivative using the Power Rule with Negative Exponents

The Derivatives of Sine and Cosine

Ex: Find the Derivative and Equation of Tangent Line for a Basic Trig Function

Ex: Find a Derivative of a Function Involving Radicals Using the Power Rule (Rational Exponents)

Ex:  Determine the Points Where  a Function Has Horizontal Tangent Lines

Ex: Determine the Equation of a Tangent Line to a Function Using the Power Rule

Ex:  Determine the Points on a Function When the Tangents Lines Have a Given Slope

Determine the value of the derivative function on the graphing calculator

Find the Value of a Derivative Function at a Given Value of x

Applications of the Derivatives Using the Power Rule

Ex: Find the Velocity and Acceleration Function from the Position Function

 

Differentiation Using the Product Rule

The Product Rule of Differentiation (Introduction)

Proof:  The Product Rule of Differentiation

Ex:  Find the Equation of a Tangent Line Using the Product Rule

The Product Rule (old)

Ex: Find a Derivative Using Product Rule (Basic Example)

Ex: Find a Derivative Using Product Rule (Polynomial*Exponential)

Ex 1:  Determine a Derivative Using the Product Rule

Ex 2:  Determine a Derivative Using the Product Rule

Ex 1:  Determine a Derivative Using the Product Rule Involving a Trig Function

Ex 2:  Determine a Derivative Using the Product Rule Involving a Trig Function

Ex:  Determine the Equation of a Tangent Line Using the Product Rule

Ex: Find a Derivative Using the Product Rule (Linear*Trig) and Find Equation of Tangent Line

Ex: Find a Derivative and Equation of Tangent Line Using Product and Chain Rule  (Exp*Trig)

 

Differentiation Using the Quotient Rule

The Quotient Rule

Ex: Use the Quotient Rule to Find the Derivative and Derivative Value (Basic)

Ex 1: Quotient Rule or Power Rule to Find a Derivative (Comparison)

Ex 2: Quotient Rule or Power Rule to Find a Derivative (Comparison)

The Product and Quotient Rule With Trigonometric Functions

Ex 1:  Determine a Derivative Using the Quotient Rule

Ex 2:  Determine a Derivative Using the Quotient Rule

Ex 3:  Determine a Derivative Using the Quotient Rule

Ex:  Determine the Slope of  a Tangent Line Using the Quotient Rule

Ex:  Determine the Equation of a Tangent Line to Using the Quotient Rule Involving a Trig Function

Ex 1:  Determine a Derivative Using the Quotient Rule Involving a Trig Function

Ex 2:  Determine a Derivative Using the Quotient Rule Involving a Trig Function

Average Revenue, Cost, Profit Functions and their Derivatives

 

Differentiation Using the Chain Rule

The Chain Rule:  Part 1, Part 2

The Chain Rule with Transcendental Functions

Ex 1:  Chain Rule Concept Check

Ex 2:  Power Rule with Chain Rule Concept Check

Ex 3:  Power Rule with Chain Rule Concept Check

Ex 4:  Power Rule with Chain Rule Concept Check

Ex 1:  Determine a Derivative Using the Chain Rule

Ex 2:  Determine a Derivative Using the Chain Rule

Ex 3:  Determine a Derivative Using the Chain Rule

Ex 4:  Determine a Derivative Using the Chain Rule Involving an Exponential Function

Ex 5:  Determine a Derivatives using The Chain Rule Involving Trig Functions

Ex 1:  Determine a Derivative Using the Chain Rule and Product Rule

Ex 2:  Determine a Derivative Using the Chain Rule and Product Rule Involving a Radical

Ex 3:  Determine a Derivative Using the Chain Rule and Product Rule With a Trig Function

Ex:  Determine a Derivative Using the Chain Rule and Quotient Rule

Ex:  Derivative Using the Chain Rule Twice - Trig Function Raised to Power

Ex:  Derivative Using the Chain Rule Twice - Exponential and Trig Functions

 

Differentiation of Exponential Functions

Graphing Exponential Functions  

Derivatives of Exponential Functions with base e

Ex 1:  Derivatives Involving the Exponential Function with Base e

Ex 2:  Derivatives Involving the Exponential Function with Base e and the Product Rule

Ex 3:  Derivatives Involving the Exponential Function with Base e and the Power Rule

Ex 4:  Derivatives Involving the Exponential Function with Base e and the Quotient Rule

Ex 5A:  Derivatives Involving the Exponential Function with Base e and the Quotient Rule

Ex 5B:  Derivatives Involving the Exponential Function with Base e and the Quotient Rule

Ex 1:  Derivatives of Exponential Functions

Ex 2:  Derivatives of Exponential Functions With Chain Rule

Ex 3:  Derivatives of Exponential Functions with the Product Rule

Ex 4:  Derivatives of Exponential Functions with the Quotient Rule

Ex: Application of the Derivative of an Exponential Function  (Rate of Depreciation)

 

Differentiation of Hyperbolic Functions

Introduction to Hyperbolic Functions

Prove a Property of Hyperbolic Functions: (sinh(x))^2 - (cosh(x))^2 = 1

Prove a Property of Hyperbolic Functions: (tanh(x))^2 + (sech(x))^2 = 1

Prove a Property of Hyperbolic Functions: sinh(x+y)=sinh(x)cosh(y)+cosh(x)sinh(y)

Prove a Property of Hyperbolic Functions: (sinh(x))^2=(-1+cosh(2x))/2

Ex 1: Derivative of a Hyperbolic Function

Ex 2: Derivatives of Hyperbolic Functions with the Chain Rule

Ex 3: Derivative of a Hyperbolic Function Using the Product Rule

Ex 4: Derivative of a Hyperbolic Function Using the Quotient Rule

Ex 5: Derivatives of Hyperbolic Functions with the Chain Rule Twice

Ex 1: Derivative of an Inverse Hyperbolic Function with the Chain Rule

Ex 2: Derivative of an Inverse Hyperbolic Function with the Chain Rule

Ex 3: Derivative of an Inverse Hyperbolic Function with the Chain Rule

 

Differentiation of Logarithmic Functions

Logarithms

Derivatives of Logarithmic Functions

Ex 1:  Derivatives of the Natural Log Function

Ex 2:  Derivatives of the Natural Log Function with the Chain Rule

Ex 3:  Derivatives of the Natural Log Function with the Chain Rule

Ex 4:  Derivatives of the Natural Log Function with the Chain Rule

Ex 5:  Derivatives of the Natural Log Function with the Product Rule

Ex 6:  Derivatives of the Natural Log Function using Log Properties

Ex 7:  Derivatives of the Natural Log Function using Log Properties

Ex 8:  Derivatives of the Natural Log Function using Log Properties

Ex 9:  The derivative of f(x) = ln(ln(5x))

Derivatives of a^x and logax

Ex 1:  Derivative of the Log Function, not base e

Ex 2:  Derivative of the Log Function using the Product Rule

 

Logarithmic Differentiation

Logarithmic Differentiation

Ex:  Logarithmic Differentiation

Ex 1: Logarithmic Differentiation

Ex 2: Logarithmic Differentiation and Slope of a Tangent Line

Ex 3: Logarithmic Differentiation and Slope of a Tangent Line

 

Differentiation of Inverse Trigonometric Functions

The Derivatives of the Inverse Trigonometric Functions

Ex 1: Derivatives of Inverse Trig Functions

Ex 2: Derivatives of Inverse Trig Functions

Ex 3: Derivatives of Inverse Trig Functions

 

Higher Order Differentiation

Higher-Order Derivatives:  Part 1, Part 2

Higher Order Derivatives of Transcendental Functions

Ex 1:  Determine Higher Order Derivatives

Ex 2:  Determine Higher Order Derivatives

Ex 3:  Determine Higher Order Derivatives

Ex 4:  Determine Higher Order Derivatives Requiring the Chain Rule

Ex 5:  Determine Higher Order Derivatives Requiring the Product Rule and Chain Rule

Ex 6:  Determine Higher Order Derivatives Requiring the Quotient Rule

Ex: Higher Order Derivatives Using the Product Rule

Ex 1: First and Second Derivatives Using the Chain Rule - f(x)=tan(2x)

Ex 2: First and Second Derivatives Using the Chain Rule - f(x)=ln(cos(x))

Ex:  Determine the Velocity Function and Acceleration Function from the Position Function

 

Applications of Differentiation – Relative Extrema

Increasing and Decreasing Functions

Determine where a trig function is increasing/decreasing and relative extrema

The First Derivative Test to Find Relative Extrema

Ex: Critical Numbers / Relative Extrema / First Derivative Test

Determining Relative Extrema on the Graphing Calculator

Ex 1:  Determine Relative Extrema Using The First Derivative Test

Ex 2:  Determine Relative Extrema Using The First Derivative Test Involving a Rational Function

Ex 3:  Determine Relative Extrema Using The First Derivative Test Involving a Trig Function

Ex 1:  Sketch a Graph Given Information About a Function's First Derivative

Ex 2:  Sketch a Graph Given Information About a Function's First Derivative

Finding Max and Mins Applications:  Part 1, Part 2

Elasticity of Demand:  Part 1, Part 2

Ex:  Elasticity of Demand Application Problem

Exponential Growth Models Part 1, Part 2

Exponential Decay Models:  Part 1, Part 2

Marginals

Ex:  Marginals and Marginal Profit

Ex:  Marginals and Marginal Average Cost

 

Applications of Differentiation – Concavity

Determining the Concavity of a Function

Concavity of Transcendental Functions (Additional Examples)

Ex:  Determine Concavity and Points of Inflection

The Second Derivative Test to Determine Relative Extrema

Ex 1:  The Second Derivative Test to Determine Relative Extrema

Ex 2:  The Second Derivative Test to Determine Relative Extrema

Ex: Critical Numbers / Relative Extrema / Second Derivative Test

The Second Derivative Test using Transcendental Functions

Example:  Increasing/Decreasing / Concavity / Relative Extrema / Points of Inflection

Ex 1:  Sketch a Function Given Information about Concavity

Ex 2:  Sketch a Function Given Information about Concavity

 

Applications of Differentiation – Maximum/Minimum/Optimization Problems

Ex 1:  Max / Min Application Problem - Derivative Application

Ex 2:  Max / Min Application Problem - Derivative Application

Ex 3:  Max / Min Application Problem - Derivative Application

Ex: Optimization - Maximum Area of a Rectangle Inscribed by a Parabola

Ex: Optimization - Minimize the Surface Area of a Box with a Given Volume

Ex: Optimization - Minimize the Cost to Make a Can with a Fixed Volume

Ex:  Derivative Application - Maximize Profit

Ex:  Derivative Application:  Maximize Area

Ex:  Derivative Application - Minimize the Cost of a Fenced Area

Optimization - Maximize the Area of a Norman Window

Animation:  The graphs of f(x), f’(x), f’’(x)

 

Absolute Extrema

Absolute Extrema

Absolute Extrema of Transcendental Functions

Ex 1:  Absolute Extrema on an Closed Interval

Ex 2:  Absolute Extrema on an Open Interval

Ex 1:  Determine Asymptotes and Graph a Rational Function

Ex 2:  Determine Asymptotes and Graph a Rational Function

Ex 3:  Determine Asymptotes and Graph a Rational Function

Ex 4:  Determine Asymptotes and Graph a Rational Function  (Slant)

 

Differentials

Differentials

Ex 1:  Determine Differential y (dy)

Ex 2:  Differentials:  Determine dy given x and dx

Ex:  Differentials to Approximate Propagated Error and Relative Error

Ex:  Using Differentials to Approximate the Value of a Cube Root.

 

Rolle’s Theorem and the Mean Value Theorem

Rolle’s Theorem

The Mean Value Theorem

 

Implicit Differentiation

Implicit Differentiation

Implicit Differentiation of Equations containing Transcendental Functions

Ex 1:  Implicit Differentiation

Ex 2:  Implicit Differentiation Using the Product Rule

Ex 3:  Implicit Differentiation Using the Product Rule and Factoring

Ex 4:  Implicit Differentiation Involving a Trig Function

Ex: Implicit Differentiation - Equation of Tangent Line

Ex: Implicit Differentiation Involving a Trig Function

Ex:  Implicit Differentiation to Determine a Second Derivative

 

Related Rates

Related Rates

Ex 1:  Related Rates:  Determine the Rate of Change of Profit with Respect to Time

Ex 2:  Related Rates:  Determine the Rate of Change of the Area of a Circle With Respect to Time

Ex 3:  Related Rates:  Determine the Rate of Change of Volume with Respect to Time

Ex 4:  Related Rates:  Ladder Problem

Ex: Related Rates - Area of Triangle

Ex: Related Rates - Right Circular Cone

Ex: Related Rates - Rotating Light Projecting on a Wall

Ex: Related Rates - Volume of a Melting Snowball

Ex: Related Rates - Air Volume and Pressure

 

Newton’s Method and L’Hopital’s Rule

Newton’s Method

L’Hopital’s Rule:  Part 1, Part 2

Ex 1: L'Hopitals Rule Involving Trig Functions

Ex 2: L'Hopitals Rule Involving Trig Functions

Ex 3: L'Hopitals Rule Involving Exponential Functions

 

Approximating Area Under a Curve

Sigma Notation / Summation Notation 

Area Under a Graph

Ex 1:  Find the Area Under a Curve Using a Geometric Formula (Rectangle)

Ex 2:  Find the Area Under a Curve Using a Geometric Formula (Triangle)

Ex 3:  Find the Area Under a Curve Using a Geometric Formula (Trapezoid)

Ex: Definite Integration Using Geometric Formula (Line Above and Below X-Axis) 

Ex: Definite Integration of an Absolute Value Function Using Geometric Formula 

Ex: Evaluate a Definite Integral Using a Geometric Formula (Semicircle) 

Ex 1:  Approximate the Area Under a Curve with 4 Left Sided Rectangles

Ex 2:  Approximate the Area Under a Curve with 4 Right Sided Rectangles

Ex 3:  Approximate the Area Under a Curve with 8 Left Sided Rectangles

Ex 4:  Approximate the Area Under a Curve with 8 Right Sided Rectangles


The Anti Derivative

The Antiderivative

Ex 1:  Determine Antiderivatives

Ex 2:  Determine Antiderivatives

Ex 3:  Determine Antiderivatives

Ex 4:  Determine Antiderivatives

Ex 5:  Determine Antiderivatives

Ex:  Find the Particular Solution to a Basic Differential Equation

Basic Antidifferentiation of Trigonometric Functions

Basic Integration and the Definite Integral

Ex:  Indefinite Integration with a Negative Exponent

Ex:  Indefinite Integration Involving a Product  

Ex:  Indefinite Integration with a Variety of Terms

The Six Basic Trigonometric Integration Formulas

Examples Using Basic Trig Integral Formulas:  Part 1, Part 2

Integration Involving Inverse Trig Functions:  Part 1, Part 2, Part 3

The Definite Integral

Ex: Setting Up a Definite Integral To Determine Area Under a Function

Ex: Property of Definite Integral Subtraction

Ex: Property of Definite Integral Addition

Local Maximum and Local Minimum of a Definite Integral Function (Accumulation Function)

Ex 1:  Area Under a Constant Function Using Definite Integration

Ex 2:  Area Under a Linear Function Using Definite Integration

Ex 3:  Area Under a Quadratic Function Using Definite Integration

Ex 4:  Area Under a Rational Function Using Definite Integration

Ex 5:  Area Under a Piece Wise Defined Function Using Definite Integration

Ex: Definite Integral Involving a Basic Linear Function 

Ex: Definite Integral Involving a Basic Rational Function 

Ex: Definite Integral Involving a Rational Function Requiring Simplifying  

Ex: Definite Integration Application - Cars Passing Through an Intersection

Ex: Definite Integration Involving a Basic Trig Function (nonnegative) 

Ex: Definite Integration Involving a Basic Trig Function (above and below x-axis) 

Determining the value of a definite integral on the graphing calculator 

Ex 1: The Second Fundamental Theorem of Calculus

Ex 2: The Second Fundamental Theorem of Calculus (Reverse Order)

Ex 3: The Second Fundamental Theorem of Calculus

Ex 4: The Second Fundamental Theorem of Calculus with Chain Rule

Ex 5: The Second Fundamental Theorem of Calculus with Chain Rule

 

Applications of Definite Integration

Ex:  Interpret the Meaning of Area Under a Function

Ex 1:  Application of Definite Integration  (Accumulated Sales)

Ex 2:  Application of Definite Integration  (Distance)

Properties of Definite Integrals and Average Value

Ex 1:  Average Value of a Function

Ex 2:  Average Value of a Trig Function

Point of Equilibrium

Consumer and Producer Surplus

Present and Future Value:  Part 1, Part 2


Area Bounded by Two Functions

Area Between to Graphs

Ex 1:  Area Bounded by Two Functions

Ex 2:  Area Bounded by Two Functions (2 Regions)

Ex 3:  Area Bounded by Two Trig Functions

 

Integration by Substitution

Integration by Substitution:  Part 1, Part 2

Ex 1:  Integration Using Substitution

Ex 2:  Integration Using Substitution

Ex 3:  Integration Using Substitution

Ex 4:  Integration Using Substitution

Ex 5:  Integration Using Substitution

Ex 6:  Integration Using Substitution

Ex 7:  Integration Using Substitution

Ex 8:  Integration Using Substitution Involving Trig Functions

Ex 9:  Integration Using Substitution Involving Trig Functions

Ex 1:  Definite Integration Using Substitution

Ex 2:  Definite Integration Using Substitution

Ex: Indefinite Integral Using Substitution Involving a Square Root

Ex: Indefinite Integral Using Substitution Involving a Rational Function I

Ex: Indefinite Integral Using Substitution Involving a Rational Function II

Ex: Indefinite Integral Using Substitution with Exponential and Sine

Ex: Definite Integration Using Substitution Involving Sine

Ex: Definite Integration Using Substitution Involving Exponential and Trig Functions

Ex: Indefinite Integral Involving Arcsine with Substitution

Indefinite integral:  (sin(x))^2- Power Reducing Substitution

Indefinite Integral:  (cos(2x))^2 - Power Reducing Substitution


Integration by Parts

Integration by Parts:  Basics

Integration by Parts

Integration by Parts:  More Examples

Ex 1:  Integration by Parts

Ex 2:  Integration by Parts

Ex 3:  Integration by Parts

Ex 4:  Integration by Parts

Ex 5:  Integration by Parts (Trig)

Ex 6:  Integration by Parts Twice

Ex: Integration by Parts Involving a Radical and Natural Log

Ex: Integration by Parts Involving a Trig and Linear Function (x*cos(4x))

Ex: Integration by Parts - Definite Integral Involving a Quadratic and Natural Log Function

Ex: Integration by Parts Twice Application

Ex: Integration by Parts Twice and Solving

 

Numerical Integration

Trapezoidal Rule of Numerical Integration

Simpson’s Rule of Numerical Integration

 

Improper Integrals

Improper Integral

Ex 1:  Improper Integrals

Ex 2:  Improper Integrals

Ex 3:  Improper Integrals

Ex 4:  Improper Integrals and Area

Ex:  Area Using Improper Integrals

Differential Equations and Applications of Integration

Introduction to Differential Equations

Differential Equations and Exponential Functions

Solving a differential equation by separation of variables

Ex:  Find the Particular Solution to a Basic Differential Equation

Ex:  Future Value of One Time Investment

Ex:  Present Value of One Time Investment Given Future Value

Ex 1:  Future Value of Continuous Money Flow

Ex 2:  Continuous Money Flow needed for a Given Future Value

Ex:  Present Value of Continuous Money Flow

Ex:  Future and Present Value of Continuous Money Flow

Ex:  Present Value of Perpetual Money Flow

Ex:  Point of Equilibrium

Ex:  Consumer Surplus

Ex:  Producer Surplus

 

More Applications of Integration

Volume of Revolution - The Disk Method

Volume of Revolution - The Washer Method about the x-axis

Volume of Revolution - The Washer Method about the y-axis

Volume of Revolution - The Washer Method NOT about the x or y axis

Volume of Revolution - The Shell Method about the x-axis

Volume of Revolution - The Shell Method about the y-axis

Volume of Revolution - The Shell Method NOT about x or y axis

Volume of Revolution - Comparing the Washer and Shell Method

Arc Length – Part 1

Arc Length – Part 2

Surface Area of Revolution – Part 1

Surface Area of Revolution – Part 2

 

More Integration Techniques

Trig Integrals Involving Powers of Sine and Cosine:  Part 1, Part 2

Trig Integrals Involving Powers of Secant and Tangent:  Part 1, Part2

Partial Fraction Decomposition:  Part 1, Part 2

Integration Using Partial Fraction Decomposition:  Part 1, Part 2

Integration Involving Trigonometric Substitution: Part 1, Part 2, Part 3, Part 4

Ex 1: Integration Using Trigonometric Substitution

Ex 2: Integration Using Trigonometric Substitution

Ex 3: Integration Using Trigonometric Substitution

Ex 4: Integration Using Trigonometric Substitution

Ex 5: Integration Using Trigonometric Substitution

Ex 6: Integration Using Trigonometric Substitution

Ex: Integration Using Trigonometric Substitution and Completing the Square

Ex 1: Definite Integration Using Trigonometric Substitution

Ex 2: Definite Integration Using Trigonometric Substitution

Wallis’s Formula to Integrate Powers of Sine and Cosine on [0, pi/2]

Improper Integrals

Ex 1:  Improper Integrals

Ex 2:  Improper Integrals

Ex 3:  Improper Integrals

Ex 4:  Improper Integrals and Area

Ex:  Area Using Improper Integrals

 

Infinite Series

Introduction to Sequences

Arithmetic Sequences

Geometric Sequences

Sequences on the TI84 Graphing Calculator

Limits of a Sequence

The Squeeze Theorem

Arithmetic Series

Geometric Series

Introduction to Infinite Series

Infinite Series:  The Nth Term Divergent Test

Infinite Geometric Series

Sequences and Series on the TI84

Graph Partial Sums of an Infinite Series on the TI84

Telescoping Series

The Integral Test

Infinite Series:  The Integral Test

The p-series Test

Infinite Series:  The p-Series Test

The Direct Comparison Test

Infinite Series:  The Direct Comparison Test

The Limit Comparison Test

Infinite Series:  The Limit Comparison Test (Divergent)

Infinite Series:  The Limit Comparison and Direct Comparison Tests

Infinite Series: The Limit Comparison and Ratio Tests - Part 1

Infinite Series: The Limit Comparison and Ratio Tests - Part 2

The Root Test

Infinite Series: The Root Test I

Infinite Series: The Root Test II

The Ratio Test

Infinite Series: The Ratio Test I

Infinite Series: The Ratio Test II

The Alternating Series Test

Conditionally and Absolutely Convergent Series

Infinite Series:  The Alternating Series Test

Taylor Polynomials

Taylor’s Theorem with Remainder

Power Series:  Part 1, Part 2

Representing a Function as a Geometric Power Series:  Part 1, Part 2

Taylor and Maclaurin Series

Using Power Series Tables – Part 1, Part 2

Differentiating and Integrating Using Power Series

 

Parametric Equations

 Introduction to Parametric Equations

Graphing Parametric Equations in the TI84

Converting Parametric Equation to Rectangular Form

Ex 1: Write Parametric Equations as a Cartesian Equation

Ex 2: Write Parametric Equations as a Cartesian Equation

Ex 3: Write Parametric Equations as a Cartesian Equation

Ex 4: Write Parametric Equations as a Cartesian Equation

Ex: Parametric Equations for an Ellipse in Cartesian Form

The Derivative of Parametric Equations

Second Derivative of Parametric Equations:  Part 1, Part 2

Arc Length in Parametric Form

Surface Area of Revolution in Parametric Form

 

Polar Coordinates and Equations

Introduction to Parametric Equations

Graphing Parametric Equations in the TI84

Converting Parametric Equation to Rectangular Form

Ex 1: Write Parametric Equations as a Cartesian Equation

Ex 2: Write Parametric Equations as a Cartesian Equation

Ex 3: Write Parametric Equations as a Cartesian Equation

Ex 4: Write Parametric Equations as a Cartesian Equation

Ex: Parametric Equations for an Ellipse in Cartesian Form

The Derivative of Parametric Equations

Ex 1: Equation of a Tangent Line to a Curve Given by Parametric Equations

Ex 2: Equation of a Tangent Line to a Curve Given by Parametric Equations

Ex 3: Equation of a Tangent Line to a Curve Given by Parametric Equations

Determine the Points Where the Tangent Lines are Horizontal or  Vertical Using Parametric Equations

Second Derivative of Parametric Equations:  Part 1, Part 2

Ex: Determine the First and Second Derivative Given Parametric Equations

First and Second Derivative of Parametric Equations - Concavity

Arc Length in Parametric Form

Ex 1: Determine the Arc Length of a Curve Given by Parametric Equations

Ex 2: Determine the Arc Length of a Curve Given by Parametric Equations

Find the Length of a Loop of a Curve Given by Parametric Equations

Surface Area of Revolution in Parametric Form

Ex 1: Surface Area of Revolution in Parametric Form

Ex 2: Surface Area of Revolution in Parametric Form

 

Graphing Polar Equations

Graph Polar Equations I

Graph Polar Equations II

Animation:  Graph Polar Equations

Graph Conic Sections in Polar Form:  Part 1, Part 2, Part 3

Conics in Polar Form and Graphing a Parabola in Polar Form

Graphing an Ellipse in Polar Form

Graphing a Hyperbola in Polar Form

Area using Polar Coordinates:  Part 1, Part 2, Part 3

Area between Polar Curves:  Part 1, Part 2

The Slope of a Tangent Line to a Polar Curve

Horizontal and Vertical Tangent Lines to a Polar Curve

Arc Length of a Polar Curve

Surface Area of Revolution of a Polar Curve

 

Vectors

Introduction to Vectors

Vector Operations

Unit Vector

Find the Component Form of a Vector from the Graph of a Vector

Ex:  Find the Direction and Magnitude of a Vector in Component Form

Find the Component Form of a Vector Given Magnitude and Direction

Ex:  Write a Vector as a Combination of Two Vectors

Ex:  Find the Net Force of Three Vectors and the Opposite Force

Ex:  Find the Coordinates of a Rotated Point Using Vectors

Ex:  Direction and Speed of a Plane in the Wind Using Vectors

 

Applications of Vectors

Applications of Vectors

Determining the Angle Between Two Vectors

Proof of the formula for the Angle Between Two Vectors

Vector Projection

Proof of the Vector Projection Formula

Vector Applications:  Force and Work

 

Vectors in Space

Plotting Points in 3D

The Equation of a Sphere

Vectors in Space

Parallel Vectors

Vector Cross Products

An Application of Cross Products:  Torque

The Triple Scalar Product:  Volume of a Parallelepiped

Parametric Equations of Lines in 3D

The Equation of a Plane in 3D Using Vectors

Graphing a Plane in 3D

Determining the Angle Between Two Planes

Determining the Distance Between a Plane and a Point

Determining the Distance Between a Line and a Point

 

Quadric, Surfaces, Cylindrical Coordinates and Spherical Coordinates

Cylindrical Surfaces

Introduction to Quadric Surfaces

The Ellipsoid

The Hyperboloid of One Sheet

The Hyperboloid of Two Sheets

The Elliptical Cone

The Elliptical Paraboloid

The Hyperbolic Paraboloid

Surfaces of Revolution

Cylindrical Coordinates

Converting Between Cylindrical and Rectangular Equations

Spherical Coordinates

Converting Between Spherical and Rectangular Equations

 

Vector Valued Functions

Introduction to Vector Valued Functions

The Domain of a Vector Valued Function

Determining a Vector Valued Function from a Rectangular Equation

Determine a Vector Valued Function from the Intersection of Two Surfaces

Limits of Vector Valued Functions

The Derivative of a Vector Valued Function

Determining Where a Space Curve is Smooth from a Vector Valued Function

Indefinite Integration of Vector Valued Functions

Indefinite Integration of Vector Valued Functions with Initial Conditions

Definite Integration of Vector Valued Functions

Properties of the Derivatives of Vector Valued Functions

The Derivative of the Cross Product of Two Vector Valued Functions

Determining Velocity, Speed, and Acceleration Using a Vector Valued Function

Determining the Unit Tangent Vector

Determining the Unit Normal Vector

Proving the Unit Normal Vector Formula

Determining a Tangent Line of a Curve Defined by a Vector Valued Function

Determining the Tangential and Normal Components of Acceleration

Determining Arc Length of a Curve Defined by a Vector Valued Function

Determining Curvature of a Curve Defined by a Vector Valued Function

Determining the Binormal Vector

 

Functions of Several Variables

Introduction to Functions of Two Variables

Level Curves of Function of Two Variables

Limits of Functions of Two Variables

First Order Partial Derivatives

Second Order Partial Derivatives

Differentials of Functions of Two Variables

Applications of Differentials of Functions of Several Variables

The Chain Rule for Functions of Two Variables With One Independent Variable

The Chain Rule for Functions of Two Variables With Two Independent Variable

Implicit Differentiation of Functions in One Variable using Partial Derivatives

Partial Implicit Differentiation

Directional Derivatives

The Gradient

Determining a Unit Normal Vector to a Surface

Verifying the Equation of a Tangent Plane to a Surface

Determining the Equation of a Tangent Plane

Determining the Relative Extrema of a Function of Two Variables

Absolute Extrema of Functions of Two Variables

Applications of Extrema of Functions of Two Variables I

Applications of Extrema of Functions of Two Variables II

Applications of Extrema of Functions of Two Variables III

Lagrange Multipliers - Part 1

Lagrange Multipliers - Part 2

 

Double Integrals

Integrating Functions of Two Variables

Introduction to Double Integrals and Volume

Evaluating Double Integrals

Double Integrals and Volume over a General Region - Part 1

Double Integrals and Volume over a General Region - Part 2

Average Value of a Function of Two Variables

Fubini's Theorem

Setting up a Double Integral Using Both Orders of Integration

Double Integrals:  Changing the Order of Integration

Double Integrals: Changing the Order of Integration - Example 1

Double Integrals: Changing the Order of Integration - Example 2

Introduction to Double Integrals in Polar Coordinates

Double Integrals in Polar Coordinates - Example 1

Double Integrals in Polar Coordinates - Example 2

Area Using Double Integrals in Polar Coordinates - Example 1

Area Using Double Integrals in Polar Coordinates - Example 2

 

Triple Integrals

Introduction to Triple Integrals

Evaluating Triple Integrals – Example

Triple Integrals and Volume - Part 1

Triple Integrals and Volume - Part 2

Triple Integrals and Volume - Part 3

Application of Triple Integrals:  Mass

Changing the Order of Triple Integrals

Triple Integrals Using Cylindrical Coordinates

Triple Integral and Volume Using Cylindrical Coordinates

Rewrite Triple Integrals Using Cylindrical Coordinates

Introduction to Triple Integrals Using Spherical Coordinates

Triple Integrals and Volume using Spherical Coordinates

A Change of Variables for a Double Integral:  Jacobian

Example of a Change of Variables for a Double Integral:  Jacobian

A Change of Variables for a Triple Integral:  Jacobian

 

Vector Calculus

Introduction to Vector Fields

The Divergence of a Vector Field

The Curl of a Vector Field

Conservative Vector Fields

Defining a Smooth Parameterization of a Path

Line Integrals in R^2

Line Integrals in R^3

Line Integral of Vector Fields

Line Integrals in Differential Form

Determining the Potential Function of a Conservative Vector Field

The Fundamental Theorem of Line Integrals - Part 1

The Fundamental Theorem of Line Integrals - Part 2

Fundamental Theorem of Line Integrals - Closed Path/Curve

Green's Theorem - Part 1

Green's Theorem - Part 2

Determining Area using Line Integrals

Flux Form of Green's Theorem

Parameterized Surfaces

Area of a Parameterized Surface

Surface Integral with Explicit Surface Part 1

Surface Integral with Explicit Surface Part 2

Surface Integrals with Parameterized Surface - Part 1

Surface Integrals with Parameterized Surface - Part 2

Surface Integral of a Vector Field - Part 1

Surface Integral of a Vector Field - Part 2

Stoke's Theorem - Part 1

Stoke's Theorem - Part 2

The Divergence Theorem - Part 1

The Divergence Theorem - Part 2

 

Graphing Calculator

Determine the value of the derivative function on the graphing calculator

Determining the value of a definite integral on the graphing calculator 

Sequences on the TI84 Graphing Calculator

Sequences and Series on the TI84

Graph Partial Sums of an Infinite Series on the TI84

Graphing Parametric Equations in the TI84

 

 

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