Reading Assignments for Calculus 1
    Fall 2010, Math 101

    November and December, 2010



    Be sure to check back often, because assignments may change!
    (Last modified: Sunday, December 5, 2010, 9:17 AM )


    All section and page numbers refer to sections from Calculus: Early Transcendental Functions, 3rd Edition, by Smith and Minton.

    I'll use Maple syntax for some of the mathematical notation on this page. (Paying attention to how I type various expressions is a good way to absorb Maple notation). I will not use it when I think it will make the questions too difficult to read.


    Due Monday 11/1 at 8am

    Section 3.7: Optimization

    To read: Thru Example 3.7.3. Really read through these examples carefully, paying attention to why the authors are doing each step. In Example 3.7.3, pay particular attention to the transitoin from the distance function d(x) to the function to be optimized, f(x)=[d(x)]2 -- this is a useful technique

    Reading questions:

      In Example 3.7.1 and 3.7.2, the authors caution us not to simplify the function to be maximized out of habit ; although they omit this caution in Example 3.7.3 they again refrain from expanding the function to be maximized.
      1. In Example 3.7.1, would expanding A(x) have made any of the steps that followed simpler? Would it have made any of the steps harder?
      2. In Example 3.7.2, would expanding V(x) have made any of the steps easier? Harder?
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    Reminder:


    Due Wednesday 11/3 at 8am

    Bring Questions for Exam 2

    No Reading Questions Today

    Reminder:


    Due Friday 11/5 at 8am

    Section 3.7: Optimization (continued)

    To read: Finish the section. Pay close attention to Remark 3.7.1.

    Reading questions:

    1. In Example 3.7.5,
      1. what physically does the quantity 2πr2 represent? How about 2πrh?
      2. The derivative A'(r) is not defined at r=0. Why is 0 not a critical number for A(r)?
      3. the result the authors arrived at for the values that minimize the amount of material used in a can do not reflect the reality of the design of most 12 oz cans. Did you notice any unrealistic assumptions that were made while working through the problem that may explain this difference?
    2. In Example 3.7.6, why are the only critical numbers those values of x where C '(x)=0?
    3. For each of the following, answer True or False, and give a brief explanation or example for your choice
      1. If there is only one critical point, it must be the minimizer or maximizer that you are seeking.
      2. If there is only one critical point, it must be a local extremum.
      3. If there is only one local extremum, it must be an absolute extremum as well.
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    Reminder:


    Due Monday 11/8 at 8am

    Handout on Taylor Polynomials (available on OnCourse page)

    To read: All. I know adjusting to the different style and language can take effort, but be patient

    Reading questions:

    1. Why might finding the Taylor polynomial of a function be useful?
    2. In your own words, briefly explain the idea (not just the steps) of building a Taylor polynomial for a function f(x).

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    Reminder:


    Due Wednesday 11/10 at 8am

    Handout on Taylor Polynomials (continued) (available on OnCourse page)
    Section 4.2: Sums and Sigma Notation

    (Note that we are skipping Sections 3.8, 3.9, and 4.1)

    To read: Re-read the section on Taylor polynomials carefully. Back in your own textbook, you may skip the first 1.5 pages of Section 4.2 -- we're not dealing with the ideas of chapter 4 yet, but I thought that the notation introduced in this section could help with Taylor polynomials. Begin reading in the middle of page 355, with the sentence that reads "We begin by introducing some notation. " Read through Example 2.3, and also just read the statement of Theorem 2.2.

    Reading questions:

    1. Write 2-1+3-1+4-1+5-1+6-1+7-1+8-1+9-1+10-1+11-1+12-1 in summation notation.
    2. Write out the terms (do not evaluate) from expanding
    3. What do you think the purpose of summation (sigma) notation is?
    4. So that I know how much detail to go into ... have you seen sigma (summation) notation before? How well do you feel like you understand it?

    Reminder:


    Due Friday 11/12 at 8am

    Introduction to Chapter 4
    Section 4.3: Area

    To read: Skim through all. Don't get too hung up on the notation and the vocabulary -- at this point, I'm mainly concerned with the big ideas of undertanding using rectangles to approximate area.

    Reading questions:

    1. Briefly describe how to approximate the area between a curve and the x-axis over an interval [a,b].
    2. In Equation 4.3.1,
      what do f(xi), Δx, and n represent?
    3. Suppose f is a positive decreasing function. Does a right sum (that is, a Riemann Sum using the right endpoints) over- or under-estimate the area between f(x) and the x-axis? How about a left sum?

    Reminder:


    Due Monday 11/15 at 8am

    Section 4.4: The Definite Integral

    To read: All

    Reading questions:

    1. In Example 4.2, interpret the definite integral (that is, the limit of the Riemann sum) as area.

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    Due Wednesday 11/17 at 8am

    Section 4.4: The Definite Integral

    To read: All

    Reading questions:

    1. Explain why Theorem 4.4.1, which states that if f is continuous over the closed interval [a,b], then f is integrable on [a,b], seems plausible to you.
    2. Explain why Part ii of Theorem 4.4.2 makes sense graphically.
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    Reminder:


    Due Friday 11/19 at 8am

    Section 4.4: The Definite Integral (continued)

    To read: None

    No Reading Questions Today!

    Submit answers through OnCourse

    Reminder:


    Due Monday 11/22 at 8am

    Section 4.5: The Fundamental Theorem of Calculus

    To read: None yet - because I plan on approaching the section in a slightly different order than the text does, I think you'll get the most out of the reading if you wait and read the whole section for next Monday.

    No Reading Questions: Today

    Reminder:

    Due Wednesday 11/24 at 8am

    Thanksgiving Break

    No Reading Questions Today, Of Course


    Due Friday 11/26 at 8am

    Thanksgiving Break

    No Reading Questions Today


    Due Monday 11/29 at 8am

    Section 4.5: The Fundamental Theorem of Calculus

    To read: All.

    Reading questions:

    1. Does every continuous function f have an antiderivative? If so, what is it? If not, why not?
    2. If you're given instantaneous velocity, how do you find net distance traveled over an interval of time?

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    Reminders:


    Due Wednesday 12/1 at 8am

    Bring Questions for Exam 3

    No Reading Questions Today

    Reminders:


    Due Friday 12/3 at 8am

    Section 4.1: Antiderivatives

    To read: All. Pay particular attention to the concept of the indefinite integral; the rest of the section should be review so you can probably just skim the rest.

    Reading questions:

    1. If F and G are both antiderivatives of f(x), how are F(x) and G(x) related to each other algebraically? How are they related to each other graphically?
    2. What is the difference between an antiderivative and an indefinite integral?

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    Reminders:


    Due Monday 12/6 at 8am

    Section 4.6: Integration by Substitution

    To read: All except for Example 4.6.8

    Reading questions:

    1. What do ex2 from Example 4.6.1, (x3+5)100 from Example 4.6.2, cos(x2) from Example 4.6.3, (3sin x +4)5 from Example 4.6.4, and sin(√x) from Example 4.6.5 all have in common?
    2. Looking again at these same functions and examples -- what did the choice of u have in common in each?
    3. When calculating antiderivatives or indefinite integrals, how can you always check whether you result is correct (without using a computer or a calculator?)

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    Due Wednesday 12/8 at 8am

    Section 4.6: Substitution

    To read: Review

    No Reading Questions Today

    Reminders:


    Due Friday 12/10 at 8am

    The Big Picture

    No Reading Questions Today
    Reminders:



    Janice Sklensky
    Wheaton College
    Department of Mathematics and Computer Science
    Science Center, Room 101A
    Norton, Massachusetts 02766-0930
    TEL (508) 286-3973
    FAX (508) 285-8278
    jsklensk@wheatonma.edu


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