Outcomes |
Assessments – How it is met & When it is met |
1. Find sets/subsets based upon given criteria |
HW:Wk#1 Test:Wk#4 F.Ex.:Wk#16 |
2. Perform unary and binary set operations both symbolically and visually
|
HW:Wk#1 Test:Wk#4 F.Ex.:Wk#16 |
3. Use quantifiers when describing set relationships |
HW:Wk#2 Test:Wk#4 F.Ex.:Wk#16 |
4. Analyze simple or compound propositions by using truth tables and/or Venn diagrams
|
HW:Wk#1 Test:Wk#4 F.Ex.:Wk#16 |
5. Analyze arguments using rules of inference. |
HW:Wk#2 Test:Wk#4 F.Ex.:Wk#16 |
6. Describe and use methods of proof including direct proofs, indirect proofs, resolution proofs, and mathematical induction
|
HW:Wk#3,4 Test:Wk#4 F.Ex.:Wk#16 |
7. Provide examples of and/or identify functions that are injections, surjections, bijections, and composite functions
|
HW:Wk#1 Test:Wk#8 F.Ex.:Wk#16 |
8. Find terms of a sequence, both specific terms and the general term
|
HW:Wk#5 Test:Wk#8 F.Ex.:Wk#16 |
9. Define sequences and answer questions about them |
HW:Wk#5 Test:Wk#8 F.Ex.:Wk#16 |
10. Define strings and answer questions about them |
HW:Wk#5 Test:Wk#8 F.Ex.:Wk#16 |
11. Compute the resulting string from string operations |
HW:Wk#5 Test:Wk#8 F.Ex.:Wk#16 |
12. Prove or disprove discrete mathematical assertions |
HW throughout the course |
13. Verify characteristics of relations |
HW:Wk#5 Test:Wk#8 F.Ex.:Wk#16 |
14. Use digraphs to describe relations |
HW:Wk#6 Test:Wk#8 F.Ex.:Wk#16 |
15. Use matrices to describe relations |
HW:Wk#6 Test:Wk#8 F.Ex.:Wk#16 |
16. Define and analyze algorithms, including recursive algorithms
|
HW:Wk#6,7 Test:Wk#8 F.Ex.:Wk#16 |
17. Use counting techniques including permutations and combinations to compute the number of ways an event can occur
|
HW:Wk#8,9 Test:Wk#12 F.Ex.:Wk#16 |
18. Calculate discrete probabilities |
HW:Wk#10 Test:Wk#12 F.Ex.:Wk#16 |
19. Compute binomial coefficients, with and without using Pascal’s triangle
|
HW:Wk#10 Test:Wk#12 F.Ex.:Wk#16 |
20. Prove combinatorial identities |
HW:Wk#10 Test:Wk#12 F.Ex.:Wk#16 |
21. Solve problems by using the Pigeonhole Principle |
HW:Wk#10 Test:Wk#12 F.Ex.:Wk#16 |
22. Use recurrence relations to analyze the times algorithms require
|
HW:Wk#11 Test:Wk#12 F.Ex.:Wk#16 |
23. Define both directed and undirected graphs in terms of vertices and edges and visually represent these graphs
|
HW:Wk#12 F.Ex.:Wk#16 |
24. Identify paths and cycles in a graph or sub-graph |
HW:Wk#12 F.Ex.:Wk#16 |
25. Recognize graphs with/without Euler cycles and Hamiltonian cycles
|
HW:Wk#13 F.Ex.:Wk#16 |
26. Define and recognize trees |
HW:Wk#13 F.Ex.:Wk#16 |
27. Show the relationship of a tree to Huffman codes |
HW:Wk#13 F.Ex.:Wk#16 |
28. Characterize trees using proper terminology |
HW:Wk#13 F.Ex.:Wk#16 |
29. Find spanning trees and minimal spanning trees |
HW:Wk#14 F.Ex.:Wk#16 |
30. Analyze combinatorial circuits |
HW:Wk#14 F.Ex.:Wk#16 |
31. Represent circuits using Boolean Algebra expressions |
HW:Wk#15 F.Ex.:Wk#16 |
32. Use Boolean Algebra to synthesize circuits |
HW:Wk#15 F.Ex.:Wk#16 |