Sets and Set Theory

Sets and Set Theory

Sets and Set Theory

This page lists the Learning Objectives for all lessons in Unit 15.


Introduction to Sets

The student will be able to:

  • Define set, inclusive, element, object, and roster notation.
  • Identify the elements of a given set.
  • Describe conventions used to list sets.
  • List the elements of a set using roster notation.
  • List the elements of a set by describing the set and the rules that its elements follows.
  • Recognize when to describe a set and its elements instead of listing it in roster notation.
  • Apply basic set concepts to complete five interactive exercises.

Basic Notation

The student will be able to:

  • Define member.
  • Identify basic set notation which indicates whether an object is, or is not an element of a set.
  • Write set notation to indicate whether an object is, or is not, an element of a set..
  • Describe the meaning of basic set notation.
  • Determine if a given element is, or is not a member of a set.
  • Apply basic set notation to complete five interactive exercises.

Types of Sets

The student will be able to:

  • Define ellipsis, finite, infinite, countable, finite set, infinite set, empty, and null set.
  • Determine if a given set is finite or infinite.
  • List a given set using roster notation or by describing it, including an ellipsis when appropriate..
  • Classify several sets as finite or infinite.
  • Recognize the difference between a finite set and an infinite set.
  • Describe the difference between a finite set and an infinite set.
  • Determine if a set is empty (null).
  • List a set as null using proper notation.
  • Describe examples of null sets from the real world.
  • Apply types of sets to complete five interactive exercises.

Set Equality

The student will be able to:

  • Define equality and equal.
  • Describe the meaning of equal sets.
  • Determine if two or more sets are equal by examining their elements.
  • Indicate if two or more sets are equal or not not equal by writing the proper notation.
  • Recognize that the order in which elements appear in a set is not important.
  • Determine which sets are equal from a given list of sets.
  • Determine which sets are not equal from a given list of sets.
  • Apply equality concepts to complete five interactive exercises.

Venn Diagrams

The student will be able to:

  • Define Venn diagram, intersection, and union.
  • Recognize that a Venn diagram is a visual representation of a set.
  • Describe the procedure for drawing and labeling a Venn diagram to represent a set and the elements it contains.
  • Describe the procedure for drawing and labeling a Venn diagram to represent the intersection of two sets.
  • Describe the procedure for drawing and labeling a Venn diagram to represent the union of two sets.
  • Recognize the difference between the intersection and the union of two sets.
  • List the intersection of two sets using proper notation.
  • List the union of two sets using proper notation.
  • Given the roster notation of two sets, draw and label a Venn diagram to show their intersection.
  • Given the roster notation of two sets, draw and label a Venn diagram to show their union.
  • Recognize that a Venn diagram shows the relationship between two sets.
  • Apply Venn diagrams to complete five interactive exercises.

Subsets

The student will be able to:

  • Define subset, proper subset, and equivalent sets.
  • Indicate that one set is a subset of another by writing the proper notation.
  • Indicate that one set is not a subset of another by writing the proper notation.
  • Describe the procedure for drawing and labeling a Venn diagram to show the relationship between a set and its subset.
  • Identify the relationships between sets and their subsets using a Venn diagram.
  • Define equivalent sets in terms of subsets.
  • List all subsets for a given set using proper notation.
  • Recognize that the empty (null) set is a subset of all sets.
  • Recognize the difference between a subset and a proper subset.
  • Identify a proper subset of a given set.
  • Identify a subset of a given set.
  • Examine patterns in the number of subsets of a given set.
  • Describe the relationship between the number of subsets of a set and the number of elements it has.
  • List the formula for finding the number of subsets of a set with n elements.
  • Apply all subset concepts to complete five interactive exercises.

Universal Set

The student will be able to:

  • Define Universal set, overlapping, and disjoint.
  • Describe the procedure for drawing and labeling a Venn diagram to represent the Universal set.
  • List the Universal set for a given set using proper notation.
  • Recognize that every set is a subset of the Universal set.
  • Distinguish between overlapping, disjoint and subsets as they relate to a Universal set.
  • Recognize that a universal set includes everything under consideration, or everything that is relevant to the problem you have.
  • Given the roster notation of two sets, and their universal set, draw and label a Venn diagram to represent the relationship between all sets.
  • Apply the Universal set to complete five interactive exercises.

Set-Builder Notation

The student will be able to:

  • Define set-builder notation.
  • Define common types of numbers including the set of integers, whole, counting, natural, rational, real, imaginary and complex.
  • Recognize that the common types of numbers listed above are infinite sets.
  • Define i.
  • List or describe all elements in a given set written with set-builder-notation.
  • Describe the general form used for set-builder notation.
  • Read and write sets using set builder-notation
  • Recognize the  importance of indicating inclusivity when using set-builder notation.
  • Explain the meaning of a set given in set-builder-notation.
  • Classify a set given in set-builder notation as all or part of a set of numbers (integers, whole, counting, natural, rational, real, imaginary or complex numbers).
  • Explain why i squared is equal to negative one.
  • Evaluate a set of real numbers to solve equations for the unknown value.
  • Apply set-builder notation to complete five interactive exercises.

Complement

The student will be able to:

  • Define complement, universe, and A-prime.
  • Define union and intersection in terms of a complement.
  • List the notation for a set and its complement.
  • Identify the complement of a set shown in a Venn Diagram.
  • Examine the logical and visual relationship between a set and its complement using Venn diagrams.
  • Examine the logical and visual relationship between a set and its complement using set-builder notation.
  • Examine the complement of a single set, two disjoint sets, and two overlapping sets.
  • Apply set notation and set-builder notation to list sets and their complements.
  • Express the complement of a set using set notation in terms of a union.
  • Express the complement of a set using set notation in terms of an intersection.
  • Recognize that there are several different ways to represent the complement of a set.
  • Distinguish between all notation used to represent the complement of a set.
  • Given the set-builder notation of a set and its universe, draw and label a Venn diagram to represent their relationship.
  • Apply complement concepts and notation to complete five interactive exercises.

Intersection

The student will be able to:

  • Define the intersection of two sets.
  • Describe the intersection of two sets by examining a Venn diagram.
  • List the intersection of two sets using proper set notation.
  • Describe the procedure for drawing Venn diagrams to illustrate the intersection of two sets.
  • Examine the intersection of disjoint sets, overlapping sets, and subsets through Venn diagrams.
  • Express the intersection of two sets in terms of a subset.
  • Redefine the empty set in terms of intersection.
  • Redefine disjoint sets in terms of intersection.
  • Express the intersection of two sets using set-builder notation.
  • Summarize the procedure for drawing the Intersection of one set contained within another.
  • Apply intersection concepts, notation and procedures to complete five interactive exercises.

Union

The student will be able to:

  • Define the union of two sets.
  • Describe the union of two sets by examining a Venn diagram.
  • List the union of two sets using set notation.
  • Compare the union and intersection of two given sets using set notation.
  • Describe the procedure for drawing Venn diagrams to illustrate the union of two sets.
  • Examine the union of disjoint sets, overlapping sets, and subsets through Venn diagrams.
  • Express the union of two sets using set-builder notation.
  • Apply union concepts, notation and procedures to complete five interactive exercises.

Practice Exercises

The student will be able to:

  • Examine ten interactive exercises for all topics in this unit.
  • Identify the concepts, notation and procedures needed to complete each practice exercise.
  • Compute all answers and solve all problems by applying appropriate concepts, notation and procedures.
  • Self-assess knowledge and skills acquired from the instruction provided in this unit.

Challenge Exercises

The student will be able to:

  • Evaluate ten challenging, non-routine exercises for all topics in this unit.
  • Analyze each problem to identify the given information.
  • Formulate a strategy for solving each problem.
  • Apply strategies to solve problems and write answers.
  • Synthesize all information presented in this unit.
  • Develop strong problem-solving skills and the ability to handle non-routine problems.

Solutions

The student will be able to:

  • Examine the solution for each exercise presented in this unit.
  • Compare solutions to completed exercises.
  • Identify which solutions need to be reviewed.
  • Identify and evaluate incorrect answers to exercises from this unit.
  • Amend and label original answers.
  • Identify areas of strength and weakness.
  • Decide which concepts, notation, and procedures need to be reviewed from this unit.