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On the $S$-version of some special elements in commutative rings

D. Bennis, A. Bouziri, S. D. Kumar, T. Singh

Abstract

In this paper, we introduce and study the $S$-versions of several fundamental elements in commutative rings. Specifically, for a commutative ring $R$ with identity and a multiplicative subset $S$, we define and investigate the notions of $S$-invertible, $S$-idempotent, $S$-von Neumann regular, and $S$-$π$-regular elements. We establish their basic properties, interrelations, and structural inclusions, and use them to characterize classes of rings. Special attention is given to the uniform $S$-counterparts of Boolean and $π$-regular rings, where we provide examples distinguishing these from their classical analogues. Several transfer results under homomorphisms and direct product constructions are established, and connections with existing $S$-counterparts (uniformly $S$-von Neumann regular, uniformly $S$-Artinian, etc.) are highlighted. Throughout the paper, we point out several open problems, offering directions for further research.

On the $S$-version of some special elements in commutative rings

Abstract

In this paper, we introduce and study the -versions of several fundamental elements in commutative rings. Specifically, for a commutative ring with identity and a multiplicative subset , we define and investigate the notions of -invertible, -idempotent, -von Neumann regular, and --regular elements. We establish their basic properties, interrelations, and structural inclusions, and use them to characterize classes of rings. Special attention is given to the uniform -counterparts of Boolean and -regular rings, where we provide examples distinguishing these from their classical analogues. Several transfer results under homomorphisms and direct product constructions are established, and connections with existing -counterparts (uniformly -von Neumann regular, uniformly -Artinian, etc.) are highlighted. Throughout the paper, we point out several open problems, offering directions for further research.
Paper Structure (3 sections, 53 equations)

This paper contains 3 sections, 53 equations.

Theorems & Definitions (18)

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