Courses
Course Syllabus
MATH2305 - Discrete Mathematics
Catalog Description: A study of set theory, relations, functions, matrices, number systems, number theory, difference equations, graphs and trees, combinatorics, probability, and Boolean Algebra.
Lecture Hrs = 3, Lab Hrs = 0
Semester Credit Hours: 3
Lecture Hours per Week:
Contact Hours per Semester: 48
State Approval Code: 2701015137
Course Subject/Catalog Number: MATH 2305
Course Title: Discrete Mathematics
Instructional Goals and Purposes:
Lee College’s instructional goals include (1) creating an academic atmosphere
in which students may develop their intellects and skills and (2) providing
courses so students may receive a certificate/an associate degree or transfer to
a senior institution that offers baccalaureate degrees.
General Course Objectives:
Successful completion of this course will promote the general student
learning outcomes listed below. The student will be able
- To apply problem-solving skills through solving application problems.
- To demonstrate arithmetic and algebraic manipulation skills.
- To read and understand scientific and mathematical literature by
utilizing proper vocabulary and methodology.
- To construct appropriate mathematical models to solve applications.
- To interpret and apply mathematical concepts.
- To use multiple approaches – physical, symbolic, graphical and verbal –
to solve application problems
Specific Course Objectives:
Upon successful completion of the course, the student will be able to
- Perform set operations and show the relationships between number
systems.
- Evaluate, compose, compare, and contrast functions, relations, recursion
and algorithms.
- Assess the validity of logical expressions.
- Apply the basic combinatorics formulas to counting problems.
- Compare and contrast algorithm complexity for common algorithms.
- Construct and explain some basic proofs.
- Perform proofs using induction.
- Apply the concept of graphs, trees, paths, and circuits to real world
situations.
- Represent networks and relationships through the use of graphs and
trees.
- Perform and evaluate search problems and sorting algorithms.
- Examine the mathematical contributions made by people from diverse
cultures throughout history.
- Articulate a solution to mathematical problems.
- Apply appropriate technology to the solution of mathematical problems.
Course Content:
Students will be required to do the following:
- Set Theory
- Use listing notation, descriptive notation, and set builder notation
to describe a set.
- Find the union, intersection, and the symmetric difference of
two sets.
- Find the complement of a set.
- Find the Cartesian Product of two sets.
- State and apply DeMorgan’s laws.
- Logic and Proofs
- Calculate truth values of propositions.
- Determine if two propositions are logically equivalent.
- Differentiate between universal and existential quantifiers.
- Analyze an argument.
- Understand the different methods of proof; such as direct, proof by
contrapositive, and proof by contradiction.
- Write a proof to a given statement.
- Language of Mathematics
- Determine if a relation is reflexive, antireflexive, symmetric, or
transitive.
- Determine if a given relation defines an equivalence relation.
- Given a relation on a set S, describe the different equivalence
classes.
- Determine if a function f is well-defined.
- Given an integer n, determine its congruence class mod p, where p is
a positive integer.
- Draw a digraph for a given relation.
- Find a matrix for a given digraph.
- Algorithms
- Analyze algorithms.
- Prove a statement using mathematical induction.
- Analyze sequences using Big-Oh notation.
- Analyze recursive algorithms and relations.
- Use the Euclidean Algorithm to determine the greatest common divisor
between two integers.
- Counting Methods
- Solve application problems concerning permutations and combinations.
- Solve basic probability problems.
- Use the Inclusion-Exclusion Principle for counting unions of more
than two sets.
- Use the Binomial Theorem to evaluate an nth power of a binomial.
- Solve counting problems involving ordered partitions.
- Solve counting problems that require the Pigeon-Hole Principle.
- Solve applications involving conditional probability.
- Find probabilities involving independent events.
- Graph Theory
- Write the definition of and recognize a simple graph, Euler circuit,
tree, spanning tree, leaves, and a rooted tree
- Write the definition of the degree of a vertex.
- Write a definition for a Hamilton path and a Hamilton circuit.
- Determine the length of the shortest path connecting a given pair of
vertices.
- Describe an isomorphism between two given graphs.
- Analyze Euler Circuits.
- Describe an isomorphism between two given trees.
- Determine if a graph has a Hamilton path.
- Determine if a graph is a Hamilton circuit.
Methods of Instruction/Course Format/Delivery:
Faculty may choose from but are not limited to the following methods of
instruction: lecture, discussion, Internet, video, television, demonstrations,
field trips, collaboration, readings.
Assessment:
Faculty may assign both in- and out-of-class activities to evaluate students'
knowledge and abilities. Faculty may choose from the following methods:
- Attendance
- Book reviews
- Class preparedness and participation
- Collaborative learning projects
- Compositions
- Exams/tests/quizzes
- Homework
- Internet
- Journals
- Library assignments
- Readings
- Research papers
- Scientific observations
- Student-teacher conferences
- Written assignments
Course Grade:
Students' final grades are determined by:
| 100-90 |
A |
| 89-80 |
B |
| 79-70 |
C |
| 69-60 |
D |
| 59 or below |
F |
Texts, Materials, and Supplies:
For current texts and materials, use the following link to access bookstore
listings: http://www.leecollegebooks.com
Other:
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