Table of topics and assignments
Textbook: Calculus: Early
Transcendentals, 3rd edition, Briggs, Cochran, Gillett, and Schulz.
You can purchase just the MyLab access code, which gives you online access to
the textbook. You need a valid MyLab Math access code to do the online
homework!
Learning Assistant (LA): Melanie Gonzalez Email: mgonz1020@fiu.edu Help Hours: F 5:00-6:30 pm via zoom room: 508 577 4985
Direct link for LA help hours: https://fiu.zoom.us/j/5085774985?pwd=L0RueExVVkVDNXpzYmVCN2U2QlduQT09
For you convenience, in the "Topics Covered" column, I will include links to old notes taken by students in Fall 2021. Beware that these notes are not proof-read and may contain mistakes. However, I hope you will still find them useful, especially if you want to read ahead. I thank Stephanie M and Julian C who took and sent those notes last semester.
Day# | Date | Topics Covered | Suggested assignment | Comments |
0 | 1. Check the syllabus and
get the MyLabMath (MLM) code if you don't have one already.
Assignments in MLM will be available on Monday, Jan. 10 via Canvas. 2. Do a review of basic derivatives and integration by solving as many exercises from this Review for Quiz 0. Answers can be found here (by identifying the corresponding problems in the larger test bank). |
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1 | 1/11 |
13.1 Vectors in 2d 13.2 Vectors in 3d Quiz 0 Old notes (08/24) New notes (1/11) (taken by Layla) |
13.1 # 7, 11, 15, 17, 19, 26, 30, 37, 44, 53, 57, 58, 65, 71, 72, 76, 84* (as in syllabus) 13.2 # 4, 7, 9, 19, 21, 23, 27, 29, 33, 41, 45, 51, 57, 63, 74, 77*, 85* (as in syllabus) Quiz 0 will take about 15 minutes at the end of the class. |
The list of suggested assignments and the list
of MLM problems have a big overlap. The online system has various forms of help, if you get stuck. I suggest you do first the problems with paper and pencil and then in the online system. Make a habit of watching the video lecture from MyLab before you attempt the problems from a section. |
2 | 1/13 | 13.3 Dot product Old notes (08/26) New notes (1/13) (from Layla) |
13.3 as in syllabus + #74*, 83* Worksheet 1/13 - group homework due Tuesday 1/18 |
Homework/Worksheet rules: I accept
individual or group submissions for homework with the following
conditions: (i) groups should have at most 4 people; (ii) each person in the group should contribute to the homework, ideally by writting some parts of it for the group; (iii) initials of the person who wrote a problem should be clearly marked. (iv) work should be clean, multiple sheets stapled. |
3 | 1/18 | 13.3 More on dot product 13.4 Cross product Old notes (08/31/21) |
13.4 as in syllabus + 57 | Quiz 1 on Thursday, Jan. 20, from 13.3 and 13.4. |
4 | 1/20 | 13.5 Lines and planes Old notes (09/02/21) Quiz 1 |
13.5 as in syllabus Quiz 1 - solution key |
Here is a link from Valentina to her notes from the class. (Thank you, Valentina!) https://1drv.ms/u/s!Al-N88542bjEgRAUFaKXratUqeeF These notes will update everytime she writes new notes. |
5 | 1/25 | more on 13.5 13.6 Quadric surfaces Lecture 1/25 (from Layla) |
13.6 as in the syllabus | |
6 | 1/27 | 14.1 Vector-valued
functions 14.2 Calculus with r(t) (see new notes in Canvas) |
14.1 as in syllabus 14.2 as in syllabus Worksheet 1/27 - due Thursday, Feb. 3 |
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7 | 2/01 | 14.3 Motion 14.4 Arclength Old lecture 09/14/21 |
14.3 as in syllabus 14.4 as in syllabus |
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8 | 2/03 | 14.5 Curvature Old notes 09/16/21 Lecture 2/03 (from Layla) |
14.5 as in syllabus | Exam 1 on Thursday, Feb. 10, covers all
sections we did from Chapters 13 and 14. You should know well
all important concepts and results studied. Most problems will be
similiar to your suggested assignment (and the online MyLab homework),
the quizzes and worksheets. One problem will be a theoretical topic (proof) chosen from the following: 1) proving that the dot product of two vectors (as defined in class) is equal to the product of the lengths of the vectors and the cosine of the angle between them -- see class notes; 2) getting the point-normal equation of a plane (see notes or textbook, the bottom of page 849 and top of page 850); 3) getting the parametric equations of projectile motion (see class notes or textbook, page 888). |
9 | 2/08 | 15.1 f(x,y), f(x,y,z) | 15.1 as in syllabus (do after exam 1) | Searching my website (the previously taught courses link) you can find some past exams. You could use the old exams as practice, but be aware that each semester I write a new exam (plus, the material covered in the past may have been different). The ideal preparation for your exam is to do all the suggested problems and worksheets from the covered sections. |
10 | 2/10 | Exam 1 | Solution key of exam 1 | |
11 | 2/15 | 15.2 Limits | 15.2 as in the syllabus | |
12 | 2/17 | 15.3 Partial derivatives, differentiability |
Worksheet 2/17 - due Tuesday, Feb. 22 Solution key - based on Rayon's paper 15.3 as in the syllabus |
In past semesters, students told me that they
found useful the following Calc. 3
youtube videos from Prof. Leonard My way of explaining things may sometimes be different, but you'd get a good coverage of the material through his videos and more examples. You should choose the corresponding sections from his list of videos. For instance, this is the direct link for his video on partial derivatives. |
13 | 2/22 | 15.6 Local linear
approximation (linearization), differentials, tangent planes |
15.6 as in the syllabus | |
14 | 2/24 | 15.4 Chain Rule Lecture 2/24 (from Layla) |
Worksheet 2/24 - due Thursday, March 10 (typo in pb
4(c) - ant starts from (1,1), not the origin) Solution key Have a good Spring break! |
Based on the class lecture, you should be able to do Pbs. 1, 2, 3 from the worksheet. Parts (a) and (b) of Pb. 4 are not very hard either, but you should read ahead the section 15.5 on directional derivatives and gradient. You could also watch the video of Prof. Leonard on this section during the break. Part (c) of Pb. 4 is more challenging, but that part will be considered as bonus. |
15 | 3/08 | 15.5 Directional
derivatives 15.6 Tangent planes for F(x,y,z) = k Lecture 3/08 (from Layla) Lecture 3/08 (from Valentina) |
15.5 as in the syllabus | Quiz from sections 15.5 and 15.6 now became a MyLabMath quiz. You need to reserve 30 minutes to take it by Sunday, May 13, 11:59pm. |
16 | 3/10 | 15.7 Max/min 15.8 Lagrange multipliers New link from Valentina to her notes |
15.7 as in the syllabus 15.8 as in the syllabus |
Exam 2 on Thursday, March 17, covers all
sections between 15.1 and 15.8. You should know well
all important concepts and results studied. Most problems will be
similiar to your suggested assignment (and the online MyLab homework),
the quizzes and worksheets. One problem will be a theoretical topic (proof) chosen from the following: -- Theorem 15.9 (p.955) and Exercise 56 (p. 959) from section 15.4; -- Theorem 15.11 (p. 965, proof is above the statement, or see the notes); -- Theorem 15.12 (p. 967); |
17 | 3/15 | More on 15.8 Brief review |
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18 | 3/17 | Exam 2 |
Solution key for Exam 2 Error in pb. #7 in my solution key, spotted by Jonathan. In the Hessian, the mixed partials f_{xy} and f_{yx} should be -4 instead of 4. The mistake does not affect the conclusion. |
|
19 | 3/22 | 16.1 Double integrals on
rectangles 16.2 Double integrals on more general regions |
16.1 as in syllabus 16.2 as in syllabus |
As introduction to 16.1, 16.2, I used in class these notes of Chris Tisdell, from University of New South Wales, Sydney, Australia |
20 | 3/24 | 16.3 Double integrals in polar coordinates | 16.3 as in syllabus Worksheet 3/24 Pbs 1, 3b and 4 of the worksheet are due on Tuesday, 3/29 Solution key |
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21 | 3/29 | 16.4 Triple Integrals | ||
22 | 3/31 | 16.5 Triple Integrals in
cylindrical or spherical coords. 16.6 Mass, center of mass |
Worksheet 3/31
Solution key of first two problems can be
found in this older worksheet 16.5 as in the syllabus 16.6 as in the syllabus |
This worksheet will NOT be collected, but solve the problems on it, as exam preparation. |
23 | 4/05 | 16.7 Change of variables 17.1 Vector Fields |
Worksheet 4/05 (for change of variables)
Solution key for Pb. 4 16.7 as in the syllabus 17.1 as in the syllabus |
Section 16.6 Centroids and center of mass has been implicitely covered already by the examples presented in previous worksheets |
24 | 4/07 | 17.5 Divergence & Curl 17.2 Line Integrals 17.3 Conservative v. fields |
17.5 as in the syllabus 17.2 as in the syllabus Worksheet 4/07 Partial solution key + pb 1 from 4/12 |
|
25 | 4/12 | 17.3 More on Conservative
v.fields 17.4 Green's Thm |
17.3 as in the syllabus 17.4 as in the syllabus Worksheet 4/12 Solution key for 2nd and 3rd problems |
Exam 3 on Tue. Nov. 27 covers sections 16.1-16.7 and 17.1-17.5. You should know well all important concepts and results studied. Most problems will be similiar to your suggested assignment (and the online MyLab homework), the quizzes and worksheets. Theoretical topics for exam 3 -- one of these will be an exam question: -- Exercise 73 from section 16.3 (I did this in class as an application to integration using polar coordinates); -- Exercise 47 from section 16.7 -- computing the Jacobian of the spherical coordinates transformation; -- Theorem 17.4 (Fundam. Thm. of line integrals of conservative v. fields) -- One of the more theoretical problems from the worksheets (for example, pb. 4 from worksheet 4/07 or pb. 1 from worksheet 4/12) |
26 | 4/14 | 17.6 Surface integrals, Flux | 17.6 as in the syllabus (do after exam 3) | |
27 | 4/19 | Exam 3 | Solution key for exam 3 | For the final exam (Tuesday, April 26,
12-2pm regular room), review all previous exams and worksheets. One theoretical topic (proof) will be selected from the ones mentioned below. |
28 | 4/21 | 17.8 Flux-Divergence Thm Old C3 notes for 17.4, 17.6, 17.8 |
17.8 as in the syllabus You may find useful the class notes from last week of last semester for some extra examples for the last part of the material. For this semester, you can consult Valentina's notes (see link on row 16). |
Theoretical topics for final: -- Getting the parametric equations of projectile motion (see class notes or textbook, page 888). -- Gradient as the direction of maximal change - Theorem 15.11 (p. 965, proof is above the statement, or see the notes); -- Exercise 47 from section 16.7 -- computing the Jacobian of the spherical coordinates transformation; -- Theorem 17.4 (Fundam. Thm. of line integrals of conservative v. fields) -- One of the more theoretical problems from the worksheets |
Final Exam on Tuesday, April 26, 12-2pm, regular room.