Syllabus
Calendar:
The calendar on the syllabus is the plan for this semester, this calendar reflects in detail what we actually get to cover in class and when.
- …
- 1/26/2026:
Snow Day
: I will adjust the calendar and we will get started next week.
Extra Credit
- Extra Credit: Turing Machine Class(Needs Revision!!!) Due before 5/12/2026 by 5:30pm
- Extra Credit: Exploring the Infinite Due before 5/12/2026 by 5:30pm (We’re doing most of this in class, so for the extra credit you need to answer all the questions typed up neatly.)
Exam Guides:
Unit 1: Automata and Languages Exam (Chapters 1, 2, & 3) on ???
- Definitions: Deterministic and Non-Deterministic Finite State Automata, Regular Languages, Unions, Concatenation, Star Operation, Generalized Non-Deterministic Finite State Automata, Regular Expressions, Pumping Lemma, Context Free Grammars, Parse Tree, Chomsky Normal Form, Pushdown Automata, Turing Machine, Formal, Implementation, and High-Level Descriptions, Multitape Turing Machine, Enumerator, Algorithm, …
- Be Able To:
- Create basic NFAs or DFAs to recognize simple languages
- State explicitly \(A\cup B\), \(A\circ B\), \(A^*\), and \(A^+\) for small sets \(A\) and \(B\)
- Simplify a GNFA to create a regular expression
- Apply to Pumping Lemma for regular languages to show a language is not regular
- Identify Context Free Grammar and make “simplifications” to it to change it to Chomsky Normal Form
- Write a parse tree for an expression based on a grammar
- Read and explain the action of a Pushdown Automata
- Challenge Questions: Three of the following will be on the exam and each count for 7% of the exam grade.
- Chapter 0: 0.7, 0.11, 0.14
- Chapter 1: 1.12, subset of 1.24-1.27, 1.40
- Chapter 2: 2.2, 2.18, 2.20, 2.26
- Chapter 3: 3.7, 3.9, 3.10
- Slides:
Unit 2: Computability Theory Exam (Chapters 4, 5, & 7) on ???
- Definitions: Decidable Language, Recognizable Language, Regular Language, Context Free Language, Cardinality of a Set, Power Set, Turing Recognizable and co-Recognizable, Reducible, Computable Function, Mapping Reducible, Computational History, linear bounded automaton,
Self Replicating, Recursion, Universal Quantifier, Existential Quantifier, Model, Theory, Provability, Information, Minimal Description, Descriptive Complexity, Compressible. - Be Able To:
- Organize the different categories of languages
- Describe the diagonalization process
- Explain why two sets are the same cardinality
- Describe the power set of a set
- Demonstrate understanding of predicates, quantifiers, and what it means for a statement to be true,
- Read a diagram of a Turing Machine,
- Follow a High-Level Description of a Turing Machine,
- Find/Follow the computational history of a Turing Machine
- Challenge Questions: Three of the following will be on the exam and each count for 7% of the exam grade. I will put four questions on the exam, two from unit 1 and two from unit 2; you will need to do at least three of the four and may do the other for extra credit.
- Chapter 1: 1.12, subset of 1.24-1.27, 1.40
- Chapter 2: 2.2, 2.18, 2.20, 2.26
- Chapter 3: 3.7, 3.9, 3.10
- Chapter 4: 4.4,4.7,4.9
- Chapter 5: 5.4, 5.7
- Chapter 7: ????
- Slides:
Lecture Slides (2023 Versions)
Links and Handouts:
- Sipser’s Notes:
- Regular Expressions Simulator (RegEx 101)
- JFLAP is software for experimenting with formal languages topics
- “Writing Math Well” and “Guidelines for good Mathematical Writing” by Francis Su
- Writing Math Exercise
- LaTeX Quick Reference
- LaTeX Homework Template
- LaTeX Lesson Videos on media.wcsu.edu
- Sample LaTeX Document with MAT/CS 359 Content