n-absorbing ideal factorization in commutative rings
Hyun Seung Choi

TL;DR
This paper explores the relationships between Mori domains, pseudo-valuation domains, and n-absorbing ideals, providing new characterizations and examples of how these concepts interconnect in commutative ring theory.
Contribution
It establishes equivalences between Mori locally pseudo-valuation domains and finite products of 2-absorbing ideals, and characterizes when rings of the form A+XB[X] have ideals as products of n-absorbing ideals.
Findings
Mori domains are characterized by ideals as products of 2-absorbing ideals.
Rings of the form A+XB[X] have ideals as products of n-absorbing ideals iff A and B are Artinian reduced rings.
Complete descriptions of certain orders in quadratic number fields as pseudo valuation domains are provided.
Abstract
In this article, we show that Mori domains, pseudo-valuation domains, and -absorbing ideals, the three seemingly unrelated notions in commutative ring theory, are interconnected. In particular, we prove that an integral domain is a Mori locally pseudo-valuation domain if and only if each proper ideal of is a finite product of 2-absorbing ideals of . Moreover, every ideal of a Mori locally almost pseudo-valuation domain can be written as a finite product of 3-absorbing ideals. To provide concrete examples of such rings, we study rings of the form where is a subring of a commutative ring and is indeterminate, which is of independent interest, and along with several characterization theorems, we prove that in such a ring, each proper ideal is a finite product of -absorbing ideals for some if and only if and are both Artinian reduced…
Peer Reviews
No public reviews on file for this paper yet. If you reviewed it on a platform where reviews are public (OpenReview, ICLR, NeurIPS, ICML), you can paste yours below so the community can read it here.
Videos
No videos yet. Explain this paper in a talk, walkthrough, or lecture? Add one.
Taxonomy
TopicsRings, Modules, and Algebras · Commutative Algebra and Its Applications · Algebraic Geometry and Number Theory
