UW-Madison
Computer Sciences Dept.

CS 577 - Introduction to Algorithms

Fall 2012 - Section 2
Picture of Kleinberg-Tardos cover

Lectures

Date Topic Reading
1 9/4 Introduction: administrativia, course overview, stable marriage. Ch 1-2
2 9/6 Divide and Conquer: mergesort, lower bound for sorting, counting inversions, finding a closest pair of points. §5.1-4 & H
3 9/11 Divide and Conquer: integer multiplication, selection. §5.5 & H
4 9/13 Algorithmic Graph Primitives: BFS, DFS. Ch 3
5 9/18 Greed: shortest paths (Dijkstra). §4.4
6 9/20 Greed: minimum spanning trees (Prim, Kruskal). §4.5-6
7 9/25 Greed: interval scheduling, minimizing lateness. §4.1-2
8 9/27 Greed: Huffman codes. §4.8
9 10/2 Dynamic Programming: weighted interval scheduling. §6.1-2
10 10/4 Dynamic Programming: knapsack, RNA secondary structure. §6.4-5
11 10/9 Dynamic Programming: sequence alignment. §6.6-7
12 10/11 Dynamic Programming: shortest paths. §6.8,10
13 10/16 Network Flow: max-flow and min-cut. §7.1-2
14 10/18 Network Flow: Ford-Fulkerson. §7.1
15 10/23 Network Flow: path augmentation using scaling, Edmonds-Karp. §7.3 & H
16 10/25 Network Flow: bipartite matching, edge-disjoint paths. §7.5-6
17 10/30 Network Flow: applications of max-flow. §7.7-9
18 11/1 Network Flow: applications of min-cut. §7.10-11
19 11/6 Randomness: probability basics, global minimum cut. §13.12,2
20 11/8 Randomness: random variables, expectation. §13.3
21 11/13 Randomness: selection, sorting, hashing. §13.5-6
22 11/15 Randomness: dictionary problem, finding a closest pair of points. §13.6-7
23 11/20 NP-Completeness: reductions. §8.1-2
24 11/27 NP-Completeness: efficient verification. §8.3
25 11/29 NP-Completeness: satisfiability. §8.4
26 12/4 NP-Completeness: graph coloring, subset sum. §8.7-8
27 12/6 NP-Completeness: more examples. §8.5-6,10
28 12/11 NP-Completeness: how to deal with it. §10.1-2, 11.6
29 12/13 Divide and Conquer: Fast Fourier Transform. §5.6

 
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