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Week 1: January 21 - 23
The Fundamental Theorem of Calculus
u-substitution
We'll spend the first week reviewing this material from Calculus I. No Pre-Class Questions to submit this week.
To Skim for Review
- Section 5.4 The Fundamental Theorem of Calculus
- Section 6.1 Substitution
Week 2: Due Sunday January 25 @ 11:59 pm
Inverse Trig Functions and Integration by Parts
To Read
- Section 2.7 Derivatives of Inverse Functions
- Section 6.2 Integration by Parts
- Course Policies for the class
Pre-Class Questions
- Why do you think we are studying the inverse trig functions now?
- Find an antiderivative of \( f(x) = \displaystyle \frac{3x^2}{ 1 + x^6}\)
- Integration by parts attempts to undo one of the techniques of differentiation. Which one is it?
- Use integration by parts to find an antiderivative of \(f(x) = 2x e^{x}\)
- Do you have any questions about the class as outlined in the Course Policies?
- Is there anything else you'd like me to know?
Submit answers through Canvas
Week 3: Due Sunday February 1 @ 11:59 pm
Numeric Integration and Volume by Revolution
To Read
-
Section 5.5 Numerical Integration
Focus on the intuitive ideas behind Ln, Rn, Tn, and Sn and the
statement of Theorem 5.5.1 that gives error bounds for Tn, and Sn. We'll use technology
to calculate the approximations.
- Section 7.2 Volume by Cross-Sectional Area; Disk and Washer
Pre-Class Questions
- Why would you ever want to numerically approximate an integral?
-
Let \( \mathcal{I} = \displaystyle\int_0^{\pi} \sin(x^2) dx\).
-
Which would you expect to be MOST accurate in approximating \( \mathcal{I} \) : a Right Hand approximation
\( R_n\), a Trapezoidal approximation \(T_n\), or a Simpson's approximation \(S_n\)? Why?
-
Which would you expect to be LEAST accurate in approximating \( \mathcal{I} \) : a Right Hand
approximation \( R_n\), a Trapezoidal approximation \(T_n\), or a Simpson's approximation \(S_n\)? Why?
-
Let R be the rectangle formed by the x-axis, the y-axis, and the lines y=1 and x=4. Sketch R and describe the shape of the
solid formed when R is rotated about the x-axis.
- Is there anything else you'd like me to know?
Submit answers through Canvas
Week 4: Due Sunday February 8 @ 11:59 pm
Arc Length and Improper Integrals
To Read
-
Section 7.4 Arc Length and Surface Area
Focus on pp 378-381
- Section 6.8 Improper Integration
Pre-Class Questions
- Set up the integral that gives the length of the curve \( y=\sin(2x)\) from \(x=0\) to \( x=2\pi\).
- Explain why \( \displaystyle\int_1^{\infty} \frac{1}{x^2} dx \) is improper.
- Explain why \( \displaystyle\int_0^1 \frac{1}{x^2} dx \) is improper.
- Is there anything else you'd like me to know?
Submit answers through Canvas
Week 5: Due Sunday February 15 @ 11:59 pm
Sequences and Series
To Read
- Section 8.1 Sequences
- Section 8.2 Infinite Series
Pre-Class Questions
-
Does the following sequence converge or diverge? Explain.
\[ 1, 3, 5, 7, 9, 11, 13, \ldots \]
- There are two sequences associated with every series. What are they?
-
Does the geometric series \( \displaystyle \sum_{n=0}^{\infty} \left( \frac{1}{4}\right)^n\) converge or
diverge? Why?
- Is there anything else you'd like me to know?
Submit answers through Canvas
Week 6: February 23 - 27
Integral and Comparison Tests for Infinite Series
To Read
- Section 8.3 Integral and Comparison Tests
Pre-Class Questions
- What does the nth-Term Theorem tell you about the series \( \displaystyle \sum 2^n \)?
-
What does the nth-Term Theorem tell you about the series \( \displaystyle \sum \frac{1}{n} \)?
- What does the Integral Test tell you about the series \( \displaystyle \sum \frac{1}{n^3} \)?
- What does the Integral Test tell you about the series \( \displaystyle \sum \frac{1}{\sqrt{n}} \)?
Think about these, but no need to submit with the Takehome part of Exam 1 due Monday.
Week 7: Due Sunday March 1 @ 11:59 pm
Alternating and Power Series
To Read
- Section 8.5 Alternating Series
- Section 8.6 Power Series
Pre-Class Questions
-
Explain why the alternating series \( \displaystyle\sum_{n=1}^\infty (-1)^{n+1} \frac{1}{n}\) converges.
-
How closely does \(\displaystyle S_{50}\), the 50th partial sum, approximate the value of the series
\(\displaystyle \sum_{n=1}^\infty (-1)^{n+1} \frac{1}{n}\)? Why?
- How do power series differ from other series we have looked at up to this point?
- Is there anything else you'd like me to know?
Submit answers through Canvas
Week 8: Due Sunday March 15 @ 11:59 pm
Taylor Series
To Read
- Section 8.7 Taylor Polynomials
- Section 8.8 Taylor Series
Pre-Class Questions
- What is the difference between a Taylor polynomial and a Taylor series?
- What is the difference between a Taylor series and a Maclaurin series?
- Why would you ever want to compute a Taylor series for a function like f(x)=cos(x)?
- Is there anything else you'd like me to know?
Submit answers through Canvas
Week 9: Due Sunday March 22 @ 11:59 pm
Multivariable Functions
To Read
- Section 12.1 Introduction to Multivariable Functions
- Section 12.3 Partial Derivatives
Pre-Class Questions
- Describe the level curves of the function \(f(x,y)= x^2 + y^2\) for c= 4, 0, and -1.
-
If \( g(x,y)= x^2-y^2\), what is \( g_x(x,y) \), the partial derivative of \( g \) with respect to \( x \)?
- If \( g(x,y)= x^2-y^2\), what is \( g_x(2,1)? \)? What geometric information does this give you?
- Is there anything else you'd like me to know?
Submit answers through Canvas
Week 10: March 30 - April 3
The Dot Product
To Read
- Section 10.2 An Introdution to Vectors
- Sectxion 10.3 The Dot Product
Pre-Class Questions
Let \( \vec{\,v_1}=\langle 2,3 \rangle\) and \( \vec{\,v_2}=\langle -6,4 \rangle\)
- Give the unit vector in the same direction as \( \vec{\,v_1} \)
-
What is \( \vec{\,v_1} \cdot \vec{\,v_2}\ \)? What geometric information does this give you about the vectors?
Think about these, but no need to submit with the Takehome part of Exam 2 due Monday.
Week 11: Due Sunday April 5 @ 11:59 pm
Directional Derivatives
Multivariable Optimization
To Read
- Section 12.6 Directional Derivatives
- Section 12.8 Extreme Values
Pre-Class Questions
- What does the directional derivative \( D_{\vec{\,u}} f(a,b)\) measure?
- If \(f(x,y) = 3xy^2 + 2x-4y^2\), what is \(\nabla f(x,y)\) ?
- Where can the local extrema of a function f(x,y) occur?
- Is there anything else you'd like me to know?
Submit answers through Canvas
Week 12: Due Sunday April 12 @ 11:59 pm
Multivariable Optimization
Double Integrals
To Read
- Skim Section 12.8 Extreme Values for review
- Section 13.1 Iterated Integrals and Area
- Section 13.2 Double Integration and Volume
Pre-Class Questions
- Why would you want to switch the order of integration in an iterated integral?
-
If \(f(x,y)\) is a function of two variables and \(R\) is a rectangle in the xy-plane, what does \( \iint_R
f(x,y)\, dA\) measure?
- Explain the idea of Fubini's Theorem in a couple of sentences in your own words.
- Is there anything else you'd like me to know?
Submit answers through Canvas
Week 13: April 20 - 24
Focus on reviewing and prepping for Exam 3 this week.
Week 14: April 27 - May 1
Polar Coordinates and Double Integrals
To Read
- Section 9.4 Introduction to Polar Coordinates
- Section 13.3 Double Integration with Polar Coordinates
Pre-Class Questions
- Is the graph of the polar function \( r = \cos(2\theta) \) the graph of a
function y=f(x)? Explain.
- Describe the shape of a polar "rectangle."
- Why would you ever want to use polar coordinates to evaluate a
double integral?
Think about these, but no need to submit with the Takehome part of Exam 3 due Monday.