COT3100: APPLICATIONS OF DISCRETE STRUCTURES

Term: Spring 2015
Time: MWF period 6 (12:50-1:40)
Location: CSE E119
Discussion session: W period 9 CSE E119 (1088), W period 7 CSE E220 (16GH)
Textbook: Discrete Mathematics and Its Applications, Kenneth Rosen, 7th edition
Professor: Alper Ungor
Teaching Assistants: Jess Jiaqi Sun, Jacob Rabb, Adeesha Malavi
Weekly Schedule (office hours):
  9:00 9:30 10:00 10:30 11:00 11:30 12:00 12:30 13:00 13:30 14:00 14:30 15:00 15:30 16:00 16:30
Monday                 Lecture
(CSE E119)
  Adeesha
(CSE 309)
 
Tuesday                 Jacob
(CSE 309)
       
Wednesday                 Lecture
(CSE E119)
Discussion
(CSE 220)
    Discussion
(CSE 119)
Thursday     Jess
(CSE 309)
    Alper
(CSE 534)
       
Friday                 Lecture
(CSE A101)
           

Announcements

Homework 1
Lecture 1-2 Slides: PropositionalLogic

  • Catalog Description
      COT 3100 Applications of Discrete Structures. Credits: 3; Prereq: MAC 2233, MAC 2311 or MAC 3472; Coreq: COP 3504 or COP 3503. Covers the mathematics of discrete events, i.e., events that involve distinct elements, finite structures of distinct elements, or finite sampled versions of continuous phenomena (such as movement). (M)
  • Course Overview

      This course teaches you the fundamentals of logic, proof techniques, induction/recursion, counting, advanced counting (not as easy as it sounds!), relations, and graph theory. These mathematical tools are essential to doing and understanding computer science / computer engineering.

      The primary emphasis of the course is mathematical reasoning and problem solving. Equipping you with specific skills (such as tools for solving recurrence relations) is important, but only a secondary goal of this course. You won't find many plug-and-chug type of problems to solve. Many of the problems will require original thought, instead. This is true for the homeworks, quizzes, and exams.

  • CISE Academic Tutoring Center:

      The CISE Academic Tutoring Center provides tutors for COT 3100.

    • Books:
    • Policies:
    • Grading:
      • Quizzes: There will be occasional quizzes on recently covered material. The quizzes will be announced two days in advanced. There will be no make up for quizzes. Quizzes account for 30% of your grade.
      • Frequent Homeworks: You are not required to submit them as they won't be graded. You are strictly permitted and even encouraged to work together on homeworks.
      • Two in-class exams: February 11 Wednesday , March 18 Wednesday, in the regular classroom. Exams may be curved, as needed. Each exam accounts for 20% of your grade.
      • Final exam: Date and Location to be announced. The final exam will be comprehensive and accounts for 30% of your grade.
      • Grading scale
        • 90 or higher: A
        • 87: A-
        • 83: B+
        • 80: B
        • 77: B-
        • 73: C+
        • 70: C
        • 67: C-
        • 63: D+
        • 60: D
        • 57: D-
        • less than 57: E
      • No rescheduling permitted for exams (unless you get a letter from a doctor or from the Dean's office).
    • Outline of topics : We will try to cover most of the topics in the textbook.

      Topics in the book in grey (like this) will not likely be covered.

      • 1 The Foundations: Logic and Proofs
        • 1.1 Propositional Logic
        • 1.2 Applicationcs of Propositional Logic
        • 1.3 Propositional Equivalences
        • 1.4 Predicates and Quantifiers
        • 1.5 Nested Quantifiers
        • 1.6 Rules of Inference
        • 1.7 Introduction to Proofs
        • 1.8 Proof Methods and Strategy

      • 2 Basic Structures: Sets, Functions, Sequences, Sums, and Matrices.
        • 2.1 Sets
        • 2.2 Set Operations
        • 2.3 Functions
        • 2.4 Sequences and Summations
        • 2.5 Cardinality of Sets
        • 2.6 Matrices

      • 3 Algorithms
        • 3.1 Algorithms
        • 3.2 The Growth of Functions
        • 3.3 Complexity of Algorithms

      • 4 Number theory and cryptography
        • 4.1 Divisibilty and Modular Arithmetic
        • 4.2 Integer Representation and Algorithms
        • 4.3 Primes and Greatest Common Divisor
        • 4.4 Solving Congruences
        • 4.5 Applications of Congruences
        • 4.6 Cryptography

      • 5 Induction and Recursion
        • 5.1 Mathematical Induction
        • 5.2 Strong Induction and Well-Ordering
        • 5.3 Recursive Definitions and Structural Induction
        • 5.4 Recursive Algorithms
        • 5.5 Program Correctness

      • 6 Counting
        • 6.1 The Basics of Counting
        • 6.2 The Pigeonhole Principle
        • 6.3 Permutations and Combinations
        • 6.4 Binomial Coefficients and Identities
        • 6.5 Generalized Permutations and Combinations
        • 6.6 Generating Permutations and Combinations

      • 7 Discrete Probability
        • 7.1 An Introduction to Discrete Probability
        • 7.2 Probability Theory
        • 7.3 Bayes' Theorem
        • 7.4 Expected Value and Variance

      • 8 Advanced Counting Techniques
        • 8.1 Applications of Recurrence Relations
        • 8.2 Solving Linear Recurrence Relations
        • 8.3 Divide-and-Conquer Algorithms and Recurrence Relations
        • 8.4 Generating Functions
        • 8.5 Inclusion-Exclusion
        • 8.6 Applications of Inclusion-Exclusion

      • 9 Relations
        • 9.1 Relations and Their Properties
        • 9.2 n-ary Relations and Their Applications
        • 9.3 Representing Relations
        • 9.4 Closures of Relations
        • 9.5 Equivalence Relations
        • 9.6 Partial Orderings

      • 10 Graphs
        • 10.1 Graphs and Graph Models
        • 10.2 Graph Terminology and Special Types of Graphs
        • 10.3 Representing Graphs and Graph Isomorphism
        • 10.4 Connectivity
        • 10.5 Euler and Hamilton Paths
        • 10.6 Shortest-Path Problems
        • 10.7 Planar Graphs
        • 10.8 Graph Coloring

      • 11 Trees
        • 11.1 Introduction to Trees
        • 11.2 Applications of Trees
        • 11.3 Tree Traversal
        • 11.4 Spanning Trees
        • 11.5 Minimum Spanning Trees

        Standard UF policies for all courses:

        • A C- will not be a qualifying grade for critical tracking courses. In order to graduate, students must have an overall GPA and an upper-division GPA of 2.0 or better (C or better). Note: a C- average is equivalent to a GPA of 1.67, and therefore, it does not satisfy this graduation requirement. For more information on grades and grading policies, click here.

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