Abstract

We discuss properties of a class of real-valued functions on a set X 2 constructed as finite (real) linear combinations of functions denoted as [(X, ∗); μ], where (X, ∗) is a groupoid (binary system) and μ is a fuzzy subset of X and where [(X, ∗); μ](x, y): = μ(x∗y) − min⁡{μ(x), μ(y)}. Many properties, for example, μ being a fuzzy subgroupoid of X, ∗), can be restated as some properties of [(X, ∗); μ]. Thus, the context provided opens up ways to consider well-known concepts in a new light, with new ways to prove known results as well as to provide new questions and new results. Among these are identifications of many subsemigroups and left ideals of (Bin(X), □) for example.

Highlights

  • The notion of a fuzzy subset of a set was introduced by Zadeh [1]

  • Rosenfeld [2] used the notion of a fuzzy subset to set down corner stone papers in several areas of mathematics

  • The book included all the important work that has been done on L-subspaces of a vector space and on Lsubfields of a field

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Summary

Introduction

The notion of a fuzzy subset of a set was introduced by Zadeh [1] His seminal paper in 1965 has opened up new insights and applications in a wide range of scientific fields. The present authors [6] introduced the notion of abelian fuzzy subgroupoids on a groupoid and discuss diagonal symmetric relations, convex sets, and fuzzy centers on Bin(X). The context provided opens up ways to consider wellknown concepts in a new light, with new ways to prove known results as well as to provide new questions and new results. Among these are identifications of many subsemigroups and left ideals of (Bin(X), ◻), for example

Preliminaries
Interactions
Composition of Interactions
Representable Functions by Interactions
Full Text
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