Math 115A: Linear Algebra
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Date | Topic | Homework |
3/30 (Mon) | Sets and functions |
Prove that the complex numbers satisfy the
axioms of a field. |
3/31 (Tues) |
Quiz 0 |
|
4/1 (Wed) | Section 1.2: Vector spaces |
Please note that
I use the problem numbering from Friedberg, 4th
Edition. Section 1.2: 1,4,8,9,10,11,13,16,20 In Problems 13 and 16, if V is a vector space, then verify all the axioms of a vector space. |
4/3 (Fri) | Section 1.3: Subspaces |
Section 1.3: 1,6,8,11,15,20,23,24,30 |
4/6 |
Section 1.4: Linear
combinations |
Section 1.4:
1,2(a)(c)(e),3(a)(c)(e),7,8,13,14 |
4/7 (Tues) |
Quiz 1 |
Go to Gradescope to
take the quiz between 12:01 am and 11:59 pm
Pacific Time on Tues 4/7. The only things
you're allowed to use are: the Friedberg
textbook, the class notes/videos, and your
completed HW. You may not discuss the test
with anyone and you may not give or solicit
help. Besides the class materials on CCLE,
the internet is off limits. This time
you're allowed 50 minutes - about 30 minutes to
do the quiz and another 20 minutes to upload
your solutions. Important:
Please handwrite your solutions!!! |
4/8 |
Section 1.5: Linear dependence/independence | Section 1.5: 1,2(a)(c)(e),4,5,9,15,18 |
4/10 |
Section 1.6: Bases and dimension |
Section 1.6: 2(a)(c)(e),3(a),6,14,15,17
(We may not get to the definition of dimension
until next week; simply take it to be the number
of elements of the basis you constructed.) |
4/13 |
Section 1.6: Bases and dimension |
Section 1.6: 12,20,24,26,28,33,34 |
4/14 (Tues) |
Quiz 2 |
Go to Gradescope to take the quiz between 12:01 am and 11:59 pm Pacific Time. |
4/15 |
Section 2.1: Linear transformations |
Section 2.1: 7,8,9,14(b),15 |
4/17 |
Section 2.1: Linear transformations |
Section 2.1: 1,2,5,6,17,24,26,28 |
4/20 |
Section 2.2: Matrix representation of a linear
transformation |
Section 2.1: 11,13 Section 2.2: 1,2(a)(c)(f),3,4 |
4/21 (Tues) |
Quiz 3 |
Go to Gradescope to take the quiz between 12:01 am and 11:59 pm Pacific Time. |
4/22 |
Section 2.2: More on matrix representations Section 2.3: Composition of linear transformations |
Section 2.2: 5,8,10,11 Section 2.3: 2,3 |
4/24 |
Section 2.3: More on compositions of linear
transformations |
Section 2.3: 1,3,4,12,17 |
4/27 |
Section 2.4: Invertibility and isomorphisms |
Section 2.4: 1, 2(a)(c)(e),3,7,14,15,16,17 |
4/28 (Tues) |
No quiz this week |
|
4/29 |
Section 2.5: Change of coordinates |
Section 2.5: 1,2(a)(c),3(a)(c),5,7,10,13 |
5/1 |
Midterm Exam |
|
5/4 |
Quotient spaces |
1. Complete the proof that the quotient space
V/W is a vector space. Namely, verify the
axioms (VS1)-(VS8) that were not verified in
class. 2. Complete the proof that if f: V->W is a linear map, then V/Ker f is isomorphic to Im f. |
5/5 (Tues) |
Quiz 4 |
|
5/6 |
Section 4.4: Review of determinants |
Section 4.4: 1,2,3(a)(c)(g),4(a),5,6 |
5/8 |
Section 5.1: Eigenvalues and eigenvectors |
Section 5.1: 3(a)(b)(c)(d),4(a)(b)(e) |
5/11 |
Factoring
polynomials |
Section 5.1:
7,8,14,15(a),16(a),17,22,23 |
5/12 (Tues) |
Quiz 5 |
|
5/13 |
Section 5.2: Diagonalizability | Section 5.2: 1(a)-(g),3(a)(d)(e),8 |
5/15 |
Section 5.2: Some applications |
Section 5.2: 9(a),10,11,12,19 |
5/18 |
Section 5.2: Direct sum decompositions |
Section 5.2: 1(h)(i),14,15,20,22 |
5/19 (Tues) |
Quiz 6 |
|
5/20 |
Section 6.1: Inner products |
Section 6.1: 1,2,3,4,6,8,9 |
5/22 |
Section 6.1: Inner products Section 6.2: Gram-Schmidt orthogonalization |
Section 6.1: 12,16,17,23 Section 6.2: 1(a)(b)(f)(g),2(b)(c)(g)(i) |
5/25 |
University Holiday (Memorial Day) | |
5/26 (Tues) |
Quiz 7 |
|
5/27 |
Section 6.2: Gram-Schmidt orthogonalization |
Section 6.2: 4,5,6,7,9,13,19(c),21 |
5/29 |
Section 6.3: Adjoints |
Section 6.3: 1,2(a)(c),3(a)(c),4,14 |
6/1 |
Section 6.4: Self-adjoint and normal operators |
Section 6.4: 1,2(a)(c)(d),4,5,9,12,16,20 (Note that we'll discuss normal operators next time) |
6/2 (Tues) |
Quiz 8 |
|
6/3 |
Section 6.4: Self-adjoint and normal operators |
Start doing sample problems for final exam |
6/5 |
Review/summary (we'll do some sample problems) |
|
6/9 (Tues) | Final
Exam |
|