Instructor: Christopher Stover (webpage) | |
Email: cstover (at) math (dot) fsu (dot) edu | |
Office: MCH 402F | |
Office Hours: | |
Wednesdays ‐ 12:00pm to 1:30pm; | |
Fridays ‐ 1:30pm to 3:00pm; | |
or by apponitment (!!!) | |
Meeting Location: 106 LOV | |
Meeting Times: | |
Mondays & Wednesdays ‐ 5:15pm to 6:05pm | |
Tuesdays & Thursdays ‐ 5:15pm to 6:30pm | |
Final Exam: | |
Wednesday, May 3, 5:30pm to 7:30pm | |
Syllabus: .pdf | |
Required Text: | |
Calculus: Early Transcendentals, 7th Edition, by James Stewart. (Amazon) |
Supplementary Resources:
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Below is a calendar highlighting the important dates for our class this semester. To access it from a web browser and/or to import it into your personal apps, use the HTML and/or iCal link(s): HTML Link – iCal Link |
Homework 2: Handout Solutions |
Homework 1: Handout Solutions
Corrections: 5(g): Here, $\mathbf{w}$ is another arbitrary vector in $\mathbb{R}^3$ which should have been included in the directions. To proceed, let $\mathbf{w}=\langle w_1,w_2,w_3\rangle$ and complete the proof of the identity. 6(g): For some reason, I wrote the equation of a plane rather than the equation of the line I actually asked about! Hah! The line in question is parallel to the cross product of $\vec{PQ}\times\vec{PR}=\langle -1, -1, -1\rangle$ and contains the point $P(0,1,0)$, which means we have $x=0-t$, $y=1-t$, and $z=0-t$, i.e. $x=-t$, $y=1-t$, and $z=-t$. |
Logistical Info about the Final: .pdf |
16.7–16.9 Review Problems: .pdf Solutions
Corrections: 2(ii): In the solutions, I incorrectly wrote the parametrization $\mathbf{r}(x,y)$ with bounds $0\leq x\leq 2$ and $0\leq y\leq 2$. Given that $z$ is a graph (namely, $z=2-x-y$), these bounds imply that the projection to the $xy$-plane would be the $2\times 2$ square. This is clearly incorrect. 3(b): In the solutions, I said highlighted the vector $\langle -1,-1,-1\rangle$ (inside the integral) and said "...plugging $\mathbf{r}$ into $\mathbf{F}$ doesn't change $\mathbf{F}$." That should say: "...plugging $\mathbf{r}$ into $\operatorname{curl}(\mathbf{F})$ doesn't change $\operatorname{curl}(\mathbf{F})$," and this is true because $\operatorname{curl}(\mathbf{F})=\langle -1,-1,-1\rangle$ is a constant vector. For example, if $f(x)=3$, then plugging $x=7$ into $f$ still yields $f(7)=3$; similarly here, $\operatorname{curl}(\mathbf{F})=\langle -1,-1,-1\rangle$ implies that $(\operatorname{curl}(\mathbf{F}))(\text{anything})=\langle-1,-1,-1\rangle$ because there are no variables to plug $\text{anything}$ into. |
Exam Review: .pdf Solutions (note: this is a 3.4 MB scan, i.e. ~25x larger than the other answer keys!)
Corrections: 3(c): The $\theta$ range should be: $\frac{\pi}{4}\leq\theta\leq\frac{3\pi}{4}$. 5(b): If you try to follow the kind of but not really cylindrical note on the answer key, there's a typo: The innermost integral should be $\int_{-1}^{4-r\sin{\theta}}$ rather than $\int_{-1}^{4-r\cos{\theta}}$. Both give $20\pi$ as answers. |
A Q&A Guide to Concepts You Need to Know: .pdf |
Exam Review: .pdf Solutions |
Formulas: .pdf |
Stuff You Need to Know from Calculus!: .pdf |
Cross Products: .pdf |
Exam 4: .pdf Solutions |
Exam 3: .pdf Solutions |
Exam 2: .pdf Solutions |
Exam 1: .pdf Solutions |
Quiz 5: .pdf Solutions
Corrections: 2: The answer I wrote should be multiplied by 2 to get the right answer. Here's why: Recall that $\iint_Df(x,y)dA$ gives the volume of the solid bounded between the region $D$ (in the $xy$-plane) and the function $f(x,y)$. However, you're asked to find the volume of a region that is half above the $xy$-plane and half below it (the $xy$-plane is in green): 5: This isn't entirely correct; there are two different ways to fix it.
I'll try to get a properly drawn/answered version posted here soon; sorry for not catching this sooner! |
Quiz 4: .pdf Solutions |
Quiz 3: .pdf Solutions |
Quiz 2: .pdf Solutions |
Quiz 1: .pdf Solutions |
First-Day Handout: .pdf |
My Schedule: .pdf |
Section 16.9: Notes |
Problems: (1-15)(!!!); 17-18; (23-32)* |
Section 16.8: Notes |
Problems: (1-10, 13-15)(!!!); (16-20)* |
Section 16.7: Notes |
Problems: (5-32)(!!!) |
Section 16.6: Notes |
Problems: 3-6, 13-26; (33-36, 39-50)(!!!) |
Section 16.5: Notes |
Problems: (1-8, 12, 13-18, 23-29)(!!!); 19-22, 30-32; (33-39)* |
Section 16.4: Notes |
Problems: (1-14)(!!!); 17-18; (21-31)* |
Section 16.3: Notes |
Problems: (3-10, 12-20, 31-34)(!!!); 23-24, 28-30 |
Section 16.2: Notes |
Problems: (1-16, 19-22)(!!!); 17-18, 29(a), 30(a), 32(a); (33-50)* |
Section 16.1: Notes |
Problems: 1-18, 29-32; (21-26)(!!!) |
Section 15.10: Notes |
Problems: coming soon |
Section 15.9: Notes |
Problems: coming soon |
Section 15.8: Notes |
Problems: 1-12, 15-16; (17-26, 29-30)(!!!) |
Section 15.7: Notes |
Problems: 1-2, 19-22, 27-28, 55; (3-22, 29-36)(!!!) |
Section 15.6: Notes |
Problems: (1-12)(!!!); (17-24)* |
Section 15.5: We skipped this section |
Problems: No problems |
Section 15.4: Notes |
Problems: (1-14, 19-27, 29-32)(!!!); 15-18, 33-34; (37-41)* |
Section 15.3: Notes |
Problems: 1-16, 43-54; (17-32odd)(!!!); (55-58, 63-67)* |
Section 15.2: Notes |
Problems: 1-14, 25-31; (15-22)(!!!) |
Section 15.1: Notes |
Problems: 1-4; (11-13)(!!!); |
Section 14.8: Notes |
Problems: 3-12, 15-21; (29-41)opt |
Section 14.7: Notes |
Problems: 1-4, 5-18 odd, 29-36, 39-49 odd; (19-20, 50-56)* |
Section 14.6: Notes |
Problems: 4-17, 19-26; (41-46)opt; (27-29, 37-40, 49-68)* |
Section 14.5: Notes |
Problems: (1-14, 17-34)(!!!); (45-59)* |
Section 14.4: Notes |
Problems: (1-6, 11-16, 25-32)(!!!); (17-18)opt; (42-46)* |
Section 14.3: Notes |
Problems: 15-70 odd; (1-14)opt; (71-72, 75-81, 87-89, 93-101)* |
Section 14.2: Notes |
Problems: 5-22, 25-26, 29-38; (39-46)* |
Section 14.1: Notes |
Problems: 9-33, 38-50, 65-68; 32, 59-64(!!); (69-70)* |
Section 13.4: Notes |
Problems: 3-16, 37-42(!!!) |
Section 13.3: Notes |
Problems: 1-6, 10-12, 17-29, 47-50; (30-31, 38-39, 43-45, 53, 55-63)* |
Section 13.2: Notes |
Problems: 3-26, 29-31, 35-40; (41-56)* |
Section 13.1: Notes |
Problems: 1-14, 27-30, 40-44; (15, 16, 21-26, 47-49)* |
Section 12.6: Notes |
Problems: 21-28(!!!); (3-8, 11-20, 29-36)opt |
Section 12.5: Notes |
Problems: 1-40 odd, 48, 50, 51-74 odd; (75-82)* |
Section 12.4: Notes |
Problems: 1-36 odd; (37, 38, 42-53)* |
Section 12.3: Notes |
Problems: 1-44; (45-48, 61-64)* |
Section 12.2: Notes |
Problems: 1-26; (27, 41-52)* |
Section 12.1: Notes |
Problems: 1-34; (35-38)* |
* = hard problems | |
(!!!) = extremely important | |
opt = optional |
Good supplementary resources for multiple integration: Dummit
Dummit's notes are really good, especially the part on changing the order of integration in triple integrals (see the example on pp 10--12 for a really good explanation)! |
Why $dy/dx$ is kinda sorta a fraction but not really: 1 (!!!) 2 3 4 5 6
And similar stuff about differentials $dx$, $dy$, etc.: 1 2 3 4 ...and other related things about $d/dx(y)$ and $dy/dx$ about how $dy/dx(dx)=dy$ and...: 1 2 3 |
What is a determinant?! 1 (not good) 2 (not good) 3 (some good, some not) 4 (the best)
Note: "The best" answer also another suggests why wedge products (which I mentioned in class on Jan 17 as a "more logical version" of cross products) should be taught in/around Calc 3 instead of wayyyyyy later, as is currently the pedagogical norm. A short, geometrical interpretation: The determinant of a square matrix is the (oriented) volume of the (hyper-)parallelepiped spanned by its column vectors. This comes from the (wonderful!) introduction to differential forms found here. An axiomatic treatment can be found on page 33 (Definition 3.1) of the above-linked .pdf. |
Why does the determinant have the form it has?! 1 (some good, some not)
But why does it alternate plus and minus?! That's because of cofactors! As it happens, wedge products are also a good way to understand these! |
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Note: They ask for some data, but it's not too long overall. Note: I'm in the College of Arts & Sciences, Math Department, and you can use my FSU email (cas12c@my.fsu.edu). Note 2: This thing is probably expired; I'll post the new one as soon as it's up! |