Topic | Individual Videos |
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Constant Rates of Change | - Student Problem Solving: Pouring Water into a Cylinder
- Solving the Problem of Pouring Water
- Formal Definition of Constant Rate of Change
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Graphing Constant Rate of Change | - Student Problem Solving: Cannon Cow!
- Graphing Cannon Cow
- Graphing Pouring Water
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Varying Rates of Change | - Student Problem Solving: Pouring Water into an Erlenmeyer Flask
- Solving the Problem of Pouring Water
- Frozen Yogurt in a Cone
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Graphing Varying Rates of Change | - Student Problem Solving: Filling a Spherical Flask
- Making a Graph for Filling a Spherical Flask
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Average Rates of Change | - Student Problem Solving: Two Race Cars, Constant Rates, and Average Rates
- Average Rates of Change as Constant Rates of Change
- A Precise Description of Average Rates of Change
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Approximating Instantaneous Rates of Change | - Student Problem Solving: The Stationary Baseball
- Approximating the Speed of a Baseball
- Using Average Rates of Change to Approximate an Instantaneous Rate of Change
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Continuity | - Student Problem Solving: Continuity
- Continuity
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Differentiability and Local Linearity | - Student Problem Solving: Growth of a Rabbit Population
- Local Linearity
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Limit at a Point | - Limit at a Point
- One-Sided Limits
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Limit Laws | - Limit Laws
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Limit Definition of Derivative | - Student Problem Solving: Rate of Absorbing Ibuprofen
- Defining the derivative
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Using the Limit Definition of Derivative | - Student Problem Solving: Using Limits to Compute Derivatives
- Using Limits to Compute Instantaneous Rates of Change
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Interpreting Derivatives | - Student Problem Solving: Interpreting Derivatives
- Interpreting the Derivative
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Slopes of Secant and Tangent Lines | - Student Problem Solving: The Imprecision of Tangents
- Finding the speed of a baseball at a moment in time graphically
- Graphing the rate of change of metabolizing ibuprofen
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Graphing Derivatives | - Student Problem Solving: Graphing the Speed of a Baseball
- Graphing the Derivative Function
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Basic Derivative Rules | - Student Problem Solving: Trying to Use the Limit Definition
- The Power Rule
- Exponential and Logarithmic Functions
- Trigonometric Functions
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The Product Rule | - Student Problem Solving: Products of Polynomials
- Procedural Description of the Product Rule
- Conceptual Explanation of the Product Rule
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The Quotient Rule | - Student Problem Solving: Derivatives of Quotients
- The Quotient Rule
- Why the Quotient Rule Works
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The Chain Rule | - Student Problem Solving: A Ripple in a Pond
- Computing the Average Rate of Change of a Composition of Functions
- How to Use the Chain Rule
- Why the Chain Rule Works
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l'Hopital's Rule | - Student Problem Solving: Evaluating Indeterminate Limits
- Limits of Quotients
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Mean Value Theorem | - Student Problem Solving
- What the Mean Value Theorem Says
- Why the Mean Value Theorem Works
- Extended version of Why the Mean Value Theorem Works
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Related Rates | - Student Problem Solving
- Defining a Related Rate Formula
- Solving A Related Rates Problem
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Implicit Differentiation | - Student Problem Solving: A Complicated Tangent Line
- Introduction to Implicit Differentiation
- Tangent Lines for a Cardioid
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Introduction to Optimization | - Student Problem Solving: Maximizing Fuel Economy
- Using Derivatives to Maximize Fuel Economy
- An Example of Optimization
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Optimization: Algebraic Modeling | - Student Problem Solving: Maximizing an Animal Pen
- How to Maximize the Area of a Rectangular Pen
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Introduction to Riemann Sums | - Student Problem Solving: Dust Accumulation on the Mars Rover
- Using a Riemann Sum to Approximate the Amount of Accumulated Dust
- A Riemann Sum for an Oil Spill
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Riemann Sum Notation | - Student Problem Solving: Writing a Riemann Sum Two Ways
- Writing Riemann Sums using Sigma Notation
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Definite Integrals | - Student Problem Solving: Mars Rover Using a Formula
- Definite Integrals as Limits of Riemann Sums
- A Definite Integral for an Oil Spill
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Antiderivatives | - Student Problem Solving: Antiderivatives
- Antiderivatves, Part 1: Polynomials and the Power Rule
- Antiderivatvies, Part 2: 1/x, Exponential, and Trig Functions
- Using Antiderivative Rules
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The Fundamental Theorem of Calculus, Part 1 | - Student Problem Solving: Computing Total Accumulation
- Computing Total Accumulation
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The Fundamental Theorem of Calculus, Part 2 | - Student Problem Solving: Cumulative Probability from a Normal Distribution
- Accumulation Functions
- Antiderivatives and Accumulation Functions
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U-Substitution | - Student Problem Solving: Evaluating Indefinite Integrals
- U-Substitution
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The S-I-R Model | - Thinking About the Spread of Disease in a Population
- Rate (Differential) Equations for the Spread of Disease
- A System of Equations for the SIR Model
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An Introduction to Euler's Method | - Introduction to Euler's Method
- Using Euler's Method to Model the Spread of an Infection
- Spreadsheet Techniques for Euler's Method
- Step Size and Constant Rate Assumptions in Euler's Method
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An Introduction to (Linear) Differential Equations | - Understanding Differential Equations
- Writing Differential Equations
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