Introduction to Abstract Algebra

Instructor:  Prof. Ilya Kapovich

Spring 2008 ;  MATH 417 Section C13

MWF, 10am;   Altgeld Hall 145

http://www.math.uiuc.edu/~kapovich/417-08/417-08.html

alert The final exam has been graded and the results have been posted via Score Reports.  The Final Exam Solutions are available. I have also assigned the final course grades and you should be able to see them in the Score Reports as well. I added the extra credit problem totals to your midterm results so that the extra credit scores are no longer shown as separate items. The course components were weighted as follows: each of the midterms 100 points, h/wk 100 points, final exam 200 points and quizzes 75 points, for the maximum point total of 100+100+100+200+75=575 points. You should be able to see your weighted course point total in the Score Reports next to your course letter grade. One low quiz score and two low h/wk scores were dropped when computing the point totals.

The course letter-grade cut-off levels were:

Grade
A+
A
A-
B+
B
B-
C+
C
C-
D+
D
D-
F
Range
548-575
521-547
495-520
468-494
441-467
414-440
382-413
351-381
320-350
300-319
280-299
260-279
0-259




alert I will be have office hours on Monday, May 12, 10am-11:45am. You can come and take a look at your final exams then if you are interested.

alert LAS and Engineering students enrolled in Math 417 are permitted to drop this course without academic penalty and without petition through Friday, April 11, 2008. LAS students who wish to drop this course by the April 11 deadline should see the receptionist in the LAS office and ask to be directed to a COAR user, who will process the late drop without a grade of "W". Engineering students are directed to the Engineering College Office, 206 Engineering Hall, for assistance with the late drop.


alert  The first midterm exam has been graded and the results are posted in Score Reports. Solutions are available below.
The high score was 100, the low score was 32, the median score was 71, the mean score was 66 with the standard deviation 25%.
Formal letter grades are not assigned for midterms but you can approximately interpret your scores as follows:
A: 90-100; B: 75-89; C: 60-74; D: 45-59; F: 0-44.


alert  The second modterm has been graded and the results have been posted via Score Reports. Solutions are available below. The high score was 96 and the low score was 43; the median score was 69.5 and the average score was 72.7, with the standard deviation 15.2%. Formal letter grades are not assigned for midterms but you can approximately interpret your scores as follows:

A:88-100; B:73-87; C: 57-72; D: 43-56; F:0-42.


Anonymous on-line feedback form is available
 
 

 SCORE REPORTS -Math Department gradebook program where you can look up your quiz, h/work and exam grades. (You will be prompted for your NetId and password).
 

My office hours are Tuesday  10am-11:30am,  Thursday, 10am-11:30am (and at other times by appointment). You DO NOT need to tell me in advance if you want to see me during the office hours. If you want to come at a different time, you need to schedule an appointment. My office is located in Altgeld Hall, room 365.


 

The FINAL EXAM for this course is scheduled for 8:00-11:00 am,  Tuesday, May 6 in our usual classroom. Please make sure now that this time is acceptable for you (if not, you urgently need to register for another section!!!) Keep in mind that I will not entertain any requests for "conflict" final exams from people who do not have what the university officially recognizes as a "conflict". See the official university rules regarding exam conflicts here.

We will be using a Math Department "gradebook" program called the "Score Reports". It will allow you to check on your quiz, h/works and exam scores. I'll post a link here as soon as the Math Office sets up the program for us.
 

Text:      Papantonopoulou,  Algebra, Pure and Applied

Telephone: 265-0633
e-mail: kapovich@math.uiuc.edu. (Preferred method of reaching me!)
Office location: Altgeld Hall, room 365
Office hours:   Tue 10am-11:30am,  Th 10am-11:30am,  or by appointment  
Grader:    Chanyoung Jun, cjun2@uiuc.edu
 


Homework assignments:
  1. Due Wednesday,  January 23: Exercise 0.3 (pp. 22-24), no. 2, 5, 6, 16, 17, 23, 24, 27
  2. Due Wednesday, January 30:  Exercise 1.1 (pp. 48-50), no. 5, 7, 10, 12, 14, 17, 18, 21
  3. Due Wednesday, February 6: Ex. 1.2 no.  5, 15, 21, 24, 33; Ex. 1.3 no.  2, 9, 17, 23
  4. Due Wednesday, February 13: Ex. 1.4 no. 10, 12, 14, 16, 18, 21, 32, 35
  5. Due Wednesday, February 20: Ex. 2.1 no 5, 16, 19, 27, 32; Ex. 2.2 no. 7, 10, 16, 29
  6. Due Friday, February 29:  Ex 2.2 no 43, 44; Ex. 2.3. no 5, 12,  15,  18; Ex 2.4 no. 6, 11,  23,
  7. Due Wednesday, March 5:  Ex. 3.1 no 3, 5, 14, 18; Ex. 3.2 no. 4, 5, 11, 17. 
  8. Due Wednesday, March 12: Ex. 4.1 no. 1, 5, 8, 15; Ex. 4.2 no. 3, 8, 10, 11
  9. Due Wednesday, March 26: Ex. 4.6 no. 3,  4,  7,  13,  14, 15, 16
  10. Due Wednesday, April 2: Ex. 6.1 no.  3, 9, 15, 19, 20;  Ex. 6.2 no.  6, 7, 12, 13
  11. Due Friday, April 11:  Ch 6.3 no 2, 8, 19, 20, 24, 29; Ch 7.1 no. 5, 14, 18, 23
  12. Due Wednesday, April 16: Ch. 7.2 no. 5, 10, 16, 19, 21, 25, 27, 28, 31, 34
  13. Due Wednesday, April 23: Ch. 7.3 no. 7, 10; Ch. 8.1 no 9, 21, 22; Ch. 8.2 no. 1, 4, 7, 10, 12
  14. Due Wednesday, April 30: Ch. 8.4 no 3, 6, 8; Ch 8.6 no 3, 5, 9, 12, 21, 25

Optional Extra Credit Problem  Assignments:

  1. Set 1, due Friday, March 7.
  2. Set 2, due Friday, March 28
  3. Set 3, due Friday, April 11
  4. Set 4, due Friday, April 18
  5. Set 5, Due Friday, April 25


 Approximate Syllabus:

  1. The integers: Division algorithm. Greatest common divisor. Fundamental theorem of arithmetic. Con-
    gruence arithmetic.
  2. Permutations: Cycle decomposition. Order of a permutation. Even and odd permutations.
  3. Group Theory: Definition and examples. Subgroups, cosets and Lagrange's theorem. Normal subgroups
    and quotient groups. Homomorphisms. The Isomorphism Theorems.
  4. Group Actions: Cayley's theorem. Burnside's theorem. Conjugacy classes and centralizers. Applications
    of group actions, eg. to Sylow's theorem or Polya counting.
  5. Ring Theory: Definition and examples. Polynomial rings. Subrings, ideals and quotient rings. Homo-
    morphisms of rings. The Isomorphism Theorems for rings. Integral domains and fields.
    Division algorithm for polynomial rings over a field. Roots of polynomials and the Remain-
    der Theorem. The Fundamental Theorem of Algebra (without proof). Maximal ideals in
    polynomial rings over fields, with application to the construction of ¯elds.



Available course material:


How this course is graded.

 


Back to Ilya Kapovich's homepage