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- next → ← prev Binary Relation Let P and Q be two non- empty sets.[1]
- We can also use binary relations to trace relationships between people or between any other objects.[2]
- There are many ways to specify and represent binary relations.[2]
- To represent a binary relation graphically, we can plot the ordered pairs of the relation as points on a coordinate plane.[2]
- Binary relations are used in many branches of mathematics to model a wide variety of concepts.[3]
- When X = Y, a binary relation is called a homogeneous relation (or endorelation).[3]
- In a binary relation, the order of the elements is important; if x ≠ y then xRy, but yRx can be true or false independently of xRy.[3]
- Such a binary relation is called a partial function .[3]
- This chapter provided a thorough self-contained introduction to binary relations.[4]
- Here we are going to define relation formally, first binary relation , then general n-ary relation .[5]
- For a binary relation, one often uses a symbol such as ∼ \sim and writes a ∼ b a \sim b instead of ( a , b ) ∈ ∼ (a,b) \in \sim .[6]
- Very often additional axioms or assumptions are added to the definition of binary relation in order to obtain useful structures.[7]
- If E is a non-empty set then by an order on E we mean a binary relation on E that is reflexive, anti-symmetric, and transitive.[8]
- Note: One may think of a binary relation as a binary function whose range is {true, false}.[9]
- Special cases of binary relations are transformations (see chapter Transformations) and permutations (see chapter "Permutations").[10]
- The product of binary relations is defined via composition of mappings, or equivalently, via concatenation of edges of directed graphs.[10]
- A binary relation is entered and displayed by giving its lists of successors as an argument to the function Relation .[10]
- This chapter describes finite binary relations in GAP3 and the functions that deal with them.[10]
- We can also define binary relations from a set on itself.[11]
- Now that we are more familiar with the concept of binary relations, let's take a look at a binary relation in mathematics.[11]
- A binary relation from a set X to a set Y is a subset of the product ..[12]
- Examples: < can be a binary relation over ℕ, ℤ, ℝ, etc.[12]
- The binary relation “equal to” satisfies transitivity but does not satisfy completeness.[12]
- Besides, we consider some properties of binary relations.[12]
- Any set of ordered pairs defines a binary relation.[13]
- An equivalence relation is defined to be a binary relation that is reflexive, symmetric, and transitive.[13]
- This chapter describes finite binary relations in GAP and the functions that deal with them.[14]
- I also give a characterization of the existence of a realizer of a binary relation defined on an abelian group.[15]
- Let be a nonempty set, and let be a binary relation on .[15]
- If and are two binary relations on , then denotes the set that results from removing the elements of from .[15]
- An ordered group is an abelian group equipped with a homogeneous binary relation .[15]
소스
- ↑ Binary Relation
- ↑ 2.0 2.1 2.2 Binary Relations
- ↑ 3.0 3.1 3.2 3.3 Binary relation
- ↑ Binary Relations
- ↑ Definition of Relation
- ↑ relation in nLab
- ↑ Binary Relations
- ↑ binary relation
- ↑ binary relation
- ↑ 10.0 10.1 10.2 10.3 GAP3 Manual: 76 Binary Relations
- ↑ 11.0 11.1 Binary Relations: Definition & Examples - Video & Lesson Transcript
- ↑ 12.0 12.1 12.2 12.3 binary relation example
- ↑ 13.0 13.1 symmetric binary relation
- ↑ GAP Manual: 88 Binary Relations
- ↑ 15.0 15.1 15.2 15.3 A Generalization of Arrow’s Lemma on Extending a Binary Relation
메타데이터
위키데이터
- ID : Q130901
Spacy 패턴 목록
- [{'LOWER': 'binary'}, {'LEMMA': 'relation'}]
- [{'LOWER': '2-place'}, {'LEMMA': 'relation'}]
- [{'LOWER': 'dyadic'}, {'LEMMA': 'relation'}]