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  1. Dictionary
    E·quiv·a·lence re·la·tion
    /əˈkwivələns/

    noun

    • 1. a relation between elements of a set that is reflexive, symmetric, and transitive. It thus defines exclusive classes whose members bear the relation to each other and not to those in other classes (e.g., “having the same value of a measured property”).

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    • Reflexive, symmetric, and transitive

      • A relation R on a set is called an equivalence relation if and only if the relation is reflexive, symmetric, and transitive. The equivalence relation is a relationship on the set which is generally represented by the symbol “∼”. Equivalence Relation Definition
      www.geeksforgeeks.org › equivalence-relations
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  4. Nov 9, 2023 · Define Equivalence Relation. An equivalence relation is a binary relation on a set that satisfies three properties: reflexivity, symmetry, and transitivity. It is a way to partition a set into distinct subsets or “ equivalence classes.

  5. An equivalence relation is a binary relation defined on a set X such that the relation is reflexive, symmetric and transitive. The equivalence relation divides the set into disjoint equivalence classes.

  6. Apr 17, 2022 · An equivalence relation on a set is a relation with a certain combination of properties that allow us to sort the elements of the set into certain classes. In this section, we will focus on the properties that define an equivalence relation, and in the next section, we will see how these properties allow us to sort or partition the elements of ...

  7. A relation on a set A is an equivalence relation if it is reflexive, symmetric, and transitive. We often use the tilde notation a∼b to denote an equivalence relation.

  8. Definition: Equivalence Relation. A relation \(\text{R}\) on a set \(S\) is an equivalence relation iff \(\text{R}\) is reflexive, symmetric and transitive.

  9. Proposition Let S be a set and let ∼ be an equivalence relation on S. For all a, b ∈ S, a ∈ cl(a) cl(a) = cl(b) if and only if a ∼ b. cl(a)∩ cl(b) = ∅ if and only if a 6∼b. Proof: Let a, b ∈ S be given. (i) We know that cl(a) = {s ∈ S : s ∼ a}. Since ∼ is reflexive, we know that a ∼ a. This means, by definition, that a ∈ cl(a).

  10. Today's concepts are the ideas of sets and equivalence relations: 1 Sets. set, for the purposes of this lecture, is just some collection of objects1. We usually denote a set by listing its elements in between a pair of curly braces fg.

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