Week 1 | Week 2 | Week 3 | Week 4 | Week 5 | Week 6 | Week 7 | Week 8 | Week 9 | Week 10 | Week 11 | Week 12 |
Date | Topic | Description |
10/28/2013 | The closed interval method | Systematic procedure for finding max and min values |
10/28/2013 | Critical numbers | Places where a max or min might occur |
10/28/2013 | Maxima and Minima | Definition of local and absolute maximum and minimum |
10/27/2013 | The first derivative test | Function behavior at critical numbers |
10/27/2013 | Concavity | Concavity and tests for it |
10/27/2013 | Increasing and Decreasing functions | Definition of increasing and decreasing functions |
Date | Topic | Description |
10/27/2013 | Exam 2 2013 Solutions | Problem 1 (exponential decay) |
Problem 2 (implicit differentiation) | ||
Problem 3 (tangent line equation) | ||
Problem 4 (linearization) | ||
Problem 5 (multilevel chain rule) | ||
Problem 6 (related rates) | ||
Problem 7 (linear approximation) | ||
Problem 8 (derivatives of log and trig functions, chain rule) | ||
Problem 9 (rates of change) | ||
Problem 10 (related rates) | ||
10/19/2013 | Exam 2 2012 Solutions | Problem 1 |
Problem 2 | ||
Problem 3 | ||
Problem 4 | ||
Problem 5 | ||
Problem 6 | ||
Problem 7 | ||
Problem 8 | ||
Problem 9 | ||
Problem 10 | ||
10/19/2013 | Exam 2 2011 Solutions | Problem 1 |
Problem 2 | ||
Problem 3 | ||
Problem 4 | ||
Problem 5 | ||
Problem 6 | ||
Problem 7 | ||
Problem 8 | ||
Problem 9 | ||
Problem 10 |
Date | Topic | Description |
10/11/2013 | Linearization | The tangent line as linear approximation of the original function |
10/11/2013 | Differentials | The Liebnitz notation and differentials |
10/11/2013 | Exponential growth and decay | Exponential models of growth and decay |
Date | Topic | Description |
10/11/2013 | Section 3.9 Related Rates | Problem 20 (Taylor) |
Problem 19 (Tina) | ||
Problem 18 (Haela) | ||
Problem 17 (Anthony) | ||
Problem 16 (Nicole) | ||
Problem 14 (Steve) | ||
Problem 13 (Haela) | ||
Problem 12 (Anthony) | ||
Problem 11 (Nicole) | ||
Problem 10 (Eva) | ||
10/8/2013 | Related rates II | Example of related rates |
10/8/2013 | Related rates I | Example of related rates |
10/8/2013 | Rates of change II | Example of rates of change |
10/8/2013 | Rates of change I | Example of rates of change |
10/6/2013 | Logarithmic differentiation | A differentiation technique useful for complicated products and quotients |
10/6/2013 | Hyperbolic functions | Like the trig functions, but based on the geometry of a hyperbola instead of a circle |
Date | Topic | Description |
10/5/2013 | Implicit differentiation | Derivatives of functions that are not explicitly defined |
10/5/2013 | Liebnitz notation form of the chain rule | The chain rule expressed in Liebnitz notation |
10/5/2013 | Derivative of logarithms with arbitrary bases | The derivative of loga(x) |
10/5/2013 | Derivative of the natural logarithm | The derivative of ln(x) |
10/5/2013 | Higher order chain rule | Chain rule with more than two levels of function composition |
9/29/2013 | The chain rule | Derivatives of function compositions |
9/29/2013 | Trig functions | Derivatives of trigonometric functions |
9/29/2013 | The quotient rule | Derivatives of quotients |
9/29/2013 | The product rule | Derivatives of products |
9/29/2013 | Common derivatives | Powers, sums, differences, constant multiples, and exponentials |
Date | Topic | Description |
9/28/2013 | Fall 2013 Exam I Solutions | Solutions for the 9/27/2013 Calculus I exam. |
9/28/2013 | Curve algorithm | How curve for exam scores is calculated. |
9/25/2013 | Exam I Solutions V1 | Solutions for problems 1-7 for prior year's first exam. |
9/23/2013 | Exam I Solutions V2 | Solutions for problems 1-7 for prior year's first exam. |
9/23/2013 | Example Using the Precise Definition of a Limit at Infinity | An example of how to apply the precise definition of a limit at infinity. |
9/23/2013 | Limits at Infinity | Function limits as x approaches infinity or negative infinity. |
9/23/2013 | Proof that differentiability implies continuity | Note that continuity DOES NOT imply differentiability; the converse is false. |
9/23/2013 | The Intermediate Value Theorem | The intermediate value theorem guarantees that a continuous function assumes every value in a certain range. |
9/22/2013 | Higher Derivatives and Liebnitz notation | Definition of the second and higher derivatives; Position, velocity, and acceleration; Liebnitz notation for derivatives. |
9/22/2013 | Position and Velocity | Calculating the average and instantaneous velocity |
Date | Topic | Description |
9/21/2013 | Friday Open Mic Volunteers presenting problem solutions for 10 participation points |
Section 2.7 Problem 4a (Christopher) | Section 2.7 Problem 5 (Christina) | Section 2.7 Problem 4a (Anthony L)(Sorry, most of video was chopped off, but you can see some of the conclusion) |
9/19/2013 | Simplification with conjugates | Using the identity (a+b)^2=(a+b)(a-b) to simplify difference quotients. |
9/18/2013 | Left and rightcontinuity | Definition and examples of left and right hand limits and continuity. |
9/17/2013 | Derivative example 2 | Calculating the derivative of 1/x from the definition |
9/17/2013 | Derivative example 1 | Calculating the derivative from the definition. |
Date | Topic | Description |
9/13/2013 | Precise definition of a limit example | Example using the precise definition to prove that the limit of a function has a specified value. |
The Precise Definition of a limit | The "real" definition of a limit of a function using epsilons and deltas. | |
9/12/2013 | Constant multiples | Limits of functions defined as a constant times another function. |
The Squeeze theorem | Theorem for limit of a function "squeezed" between two others. | |
Tangent line example - x cubed | Computing the slope of the tangent line for f(x)=x cubed | |
Tangent line example - 1/x | Computing the slope of the tangent for f(x)=1/x | |
Tangent example 1 | Example of computing the slope of the tangent line | |
Tangent example 2 | Example of computing the slope of a tangent line | |
Sums and differences | Limits of functions defined as sums or differences of other functions. | |
Products and quotients | Limits of functions defined as products or quotients of other functions. | |
Nearly identical functions | Theorem on limit of two functions that differ at a single point. | |
Continuous functions | Limits of continuous functions on their domains by direct substitution. | |
Infinite limits | Limits where the function value approaches infinity or -infinity as x approaches a. | |
One-sided limits | Limits where x approaches a from one side only. | |
Deinition of a limit (imprecise) | The more intuitive but less precise definition of a limit |
Date | Topic | Description |
9/6/2013 | Friday Open Mic Volunteers presenting problem solutions for 10 participation points |
Section 1.6 Problem 36a (Nicole) (With apolgies for my finger over the camera lens.....) | Section 1.6 Problem 35a (Taylor) | Section 1.6 Problem 38a (Steven) | Section 1.3 Problem 34 (Haela) | Section 1.1 Problem 35 (Tyler) (remarks) | Section 1.6 Problem 52a (Patrick) | Section 1.1 Problem 34 (Christ) | Section 1.6 Problem 38b (Omayra) |
9/2/2013 | Function composition | Creating a new function as the composition f(g(x)) of two existing functions. |
9/2/2013 | Combining functions arithmetically | Defining a new function as the sum, difference, product, or quotient of two functions. |
Date | Topic | Description |
9/1/2013 | Power functions | Review of power functions (powers and roots) and their basic properties. |
9/1/2013 | Trigonometric functions | Review of trigonometric functions and their basic properties. |
9/1/2013 | Rational functions | Review of rational functions (functions of the form P(x)/Q(x), where P and Q are polynomials). |
9/1/2013 | Polynomials | Review of the properties of polynomials and the fundamental theorem of algebra, which states that every polynomial of degree n has exactly n roots counting complex roots and multiplicities. |
9/1/2013 | Secant lines, difference quotients, and average rates of change | Definition of the secant line and difference quotient and the average rate of change of a function on an interval. |
8/31/2013 | Linear functions | Review of the properties of linear functions, point-slope formula, inverses of linear functions. |
8/31/2013 | Function evaluation: f(x+h)-f(x) forms | Overview of evaluation of function differences. |
Back to Dr. Quinn's home page
Back to Stonehill Math Department web page
Back to Stonehill main page