7. Tutorial 1: Part II - Discrete Mathematics - Vol 1
Students

Academic Programs

AI-powered learning for grades 8-12, aligned with major curricula

Professional

Professional Courses

Industry-relevant training in Business, Technology, and Design

Games

Interactive Games

Fun games to boost memory, math, typing, and English skills

7. Tutorial 1: Part II

7. Tutorial 1: Part II

The chapter provides an in-depth exploration of functionally complete sets of logical operators and their properties. It allows for the representation of any compound proposition using a minimal set of logical operators, demonstrating the transformability of expressions involving implication and conjunction into solely disjunctions and negations. Furthermore, it examines satisfiability of propositions and introduces resolution methods to determine valid arguments and contradictions within logical frameworks.

23 sections

Enroll to start learning

You've not yet enrolled in this course. Please enroll for free to listen to audio lessons, classroom podcasts and take practice test.

Sections

Navigate through the learning materials and practice exercises.

  1. 7.1
    Discrete Mathematics

    This section introduces the concept of functionally complete sets of logical...

  2. 7.1.1
    Lecture - 07

    This section explores the concept of functionally complete sets of logical...

  3. 7.1.2
    Tutorial 1: Part Ii

    This section explores functionally complete sets of logical operators and...

  4. 7.2

    This section explores the concept of functionally complete sets of logical...

  5. 7.2.1
    Functionally Complete Set Of Logical Operators

    This section discusses the concept of functionally complete sets of logical...

  6. 7.2.2
    Proving Functionality With Three Operators

    This section discusses the concept of functionally complete sets of logical...

  7. 7.2.3
    Replacing Conjunction With Negation And Disjunction

    This section explains the process of proving that certain logical operators...

  8. 7.2.4
    Negation And Disjunction Functionality

    This section explores the functionality of negation and disjunction within...

  9. 7.3

    Question 9 discusses the concept of satisfiability in propositional logic,...

  10. 7.3.1
    Satisfiability Of A Compound Proposition

    This section discusses the satisfiability of compound propositions and the...

  11. 7.3.2
    Verification Of Other Expressions

    The section discusses the concept of functionally complete sets of logical...

  12. 7.3.3
    Algorithm For Tautology Check

    This section discusses the algorithm to check if a compound proposition is a...

  13. 7.4

    This section discusses how to verify the validity of an argument using...

  14. 7.4.1
    Validity Of Argument

    This section explores the validity of logical arguments, emphasizing...

  15. 7.5

    This section discusses the validity of argumentative forms in propositional...

  16. 7.5.1
    Valid Argument Form For Premises

    This section explores the structure of valid arguments using logical...

  17. 7.5.2
    Tautology Implication

    This section discusses the functional completeness of logical operators and...

  18. 7.6

    This section focuses on using resolution to determine the validity of a...

  19. 7.6.1
    Using Resolution For Validity

    This section focuses on using resolution to establish the validity of...

  20. 7.7

    This section demonstrates the use of resolution to show that a given...

  21. 7.7.1
    Unsatisfiability Proof Via Resolution

    This section discusses the concept of functional completeness in logical...

  22. 7.8
    Final Question

    This section discusses the concept of functionally complete sets of logical...

  23. 7.8.1
    Verification Of Valid Argument

    This section covers the verification of valid arguments using logical...

What we have learnt

  • A set of logical operators is functionally complete if any compound proposition can be represented using that set.
  • Implication can be expressed in terms of conjunction and disjunction, enabling the simplification of logical expressions.
  • Resolution is a powerful method for demonstrating the validity or invalidity of logical arguments using propositional variables.

Key Concepts

-- Functionally Complete Set
A collection of logical operators from which any logical expression can be derived.
-- Satisfiability
The property of a logical proposition that determines if there exists an interpretation under which the proposition evaluates to true.
-- Resolution
A rule of inference that allows the derivation of conclusions from premises by eliminating variables.
-- Conjunctive Normal Form (CNF)
A way of structuring logical propositions as a conjunction of disjunctions.
-- Tautology
A logical statement that is true in every possible interpretation.

Additional Learning Materials

Supplementary resources to enhance your learning experience.