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      A weaker notion of the finite factorization property

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      https://www.riss.kr/link?id=A109061422

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      다국어 초록 (Multilingual Abstract) kakao i 다국어 번역

      An (additive) commutative monoid is called atomic if every given non-invertible element can be written as a sum of atoms (i.e., irreducible elements), in which case, such a sum is called a factorization of the given element. The number of atoms (counting repetitions) in the corresponding sum is called the length of the factorization. Following Geroldinger and Zhong, we say that an atomic monoid $M$ is a length-finite factorization monoid if each $b \in M$ has only finitely many factorizations of any prescribed length. An additive submonoid of $\mathbb{R}_{\ge 0}$ is called a positive monoid. Factorizations in positive monoids have been actively studied in recent years. The main purpose of this paper is to give a better understanding of the non-unique factorization phenomenon in positive monoids through the lens of the length-finite factorization property. To do so, we identify a large class of positive monoids which satisfy the length-finite factorization property. Then we compare the length-finite factorization property to the bounded and the finite factorization properties, which are two properties that have been systematically investigated for more than thirty years.
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      An (additive) commutative monoid is called atomic if every given non-invertible element can be written as a sum of atoms (i.e., irreducible elements), in which case, such a sum is called a factorization of the given element. The number of atoms (count...

      An (additive) commutative monoid is called atomic if every given non-invertible element can be written as a sum of atoms (i.e., irreducible elements), in which case, such a sum is called a factorization of the given element. The number of atoms (counting repetitions) in the corresponding sum is called the length of the factorization. Following Geroldinger and Zhong, we say that an atomic monoid $M$ is a length-finite factorization monoid if each $b \in M$ has only finitely many factorizations of any prescribed length. An additive submonoid of $\mathbb{R}_{\ge 0}$ is called a positive monoid. Factorizations in positive monoids have been actively studied in recent years. The main purpose of this paper is to give a better understanding of the non-unique factorization phenomenon in positive monoids through the lens of the length-finite factorization property. To do so, we identify a large class of positive monoids which satisfy the length-finite factorization property. Then we compare the length-finite factorization property to the bounded and the finite factorization properties, which are two properties that have been systematically investigated for more than thirty years.

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      참고문헌 (Reference)

      1 A. Baker, "Transcendental Number Theory" Cambridge Mathematical Library, Cambridge Univ. Press 1990

      2 J. S. Golan, "Semirings and their Applications" Kluwer Acad. Publ 1999

      3 D. F. Anderson, "Rings, Monoids and Module Theory" Springer 7-57,

      4 J. Coykendall, "On unique factorization domains" 332 (332): 62-70, 2011

      5 N. Jiang, "On the primality and elasticity of algebraic valuations of cyclic free semirings" 33 (33): 197-210, 2023

      6 F. Gotti, "On the atomic structure of torsion-free monoids" 107 (107): 402-423, 2023

      7 F. Gotti, "On the arithmetic of polynomial semidomains" 35 (35): 1179-1197, 2023

      8 J. Correa-Morris, "On the additive structure of algebraic valuations of polynomial semirings" 226 (226): 20-, 2022

      9 F. Gotti, "On semigroup algebras with rational exponents" 50 (50): 3-18, 2022

      10 J. Coykendall, "On integral domains with no atoms" 27 (27): 5813-5831, 1999

      1 A. Baker, "Transcendental Number Theory" Cambridge Mathematical Library, Cambridge Univ. Press 1990

      2 J. S. Golan, "Semirings and their Applications" Kluwer Acad. Publ 1999

      3 D. F. Anderson, "Rings, Monoids and Module Theory" Springer 7-57,

      4 J. Coykendall, "On unique factorization domains" 332 (332): 62-70, 2011

      5 N. Jiang, "On the primality and elasticity of algebraic valuations of cyclic free semirings" 33 (33): 197-210, 2023

      6 F. Gotti, "On the atomic structure of torsion-free monoids" 107 (107): 402-423, 2023

      7 F. Gotti, "On the arithmetic of polynomial semidomains" 35 (35): 1179-1197, 2023

      8 J. Correa-Morris, "On the additive structure of algebraic valuations of polynomial semirings" 226 (226): 20-, 2022

      9 F. Gotti, "On semigroup algebras with rational exponents" 50 (50): 3-18, 2022

      10 J. Coykendall, "On integral domains with no atoms" 27 (27): 5813-5831, 1999

      11 W. Gao, "On half-factoriality of transfer Krull monoids" 49 (49): 409-420, 2021

      12 F. Gotti, "Numerical Semigroups" Springer 141-161, 2020

      13 A. Geroldinger, "Non-Unique Factorizations" Chapman & Hall/CRC 2006

      14 S. T. Chapman, "Non-Noetherian Commutative Ring Theory" Kluwer Acad. Publ 97-115, 2020

      15 S. T. Chapman, "Length-factoriality in commutative monoids and integral domains" 578 : 186-212, 2021

      16 A. Bu, "Length-factoriality and pure irreducibility" 51 (51): 3745-3755, 2023

      17 M. Bras-Amor´os, "Increasingly enumerable submonoids of R : music theory as a unifying theme" 127 (127): 33-44, 2020

      18 F. Gotti, "Increasing positive monoids of ordered fields are FF-monoids" 518 : 40-56, 2019

      19 A. Zaks, "Half factorial domains" 82 (82): 721-723, 1976

      20 F. Halter-Koch, "Finiteness theorems for factorizations" 44 (44): 112-117, 1992

      21 N. R. Baeth, "Factorizations in upper triangular matrices over information semialgebras" 562 : 466-496, 2020

      22 S. Zhu, "Factorizations in evaluation monoids of Laurent semirings" 50 (50): 2719-2730, 2022

      23 S. T. Chapman, "Factorization invariants of Puiseux monoids generated by geometric sequences" 48 (48): 380-396, 2020

      24 D. D. Anderson, "Factorization in integral domains" 69 (69): 1-19, 1990

      25 K. Ajran, "Factorization in additive monoids of evaluation polynomial semirings" 51 (51): 4347-4362, 2023

      26 N. R. Baeth, "Bi-atomic classes of positive semirings" 103 (103): 1-23, 2021

      27 P. M. Cohn, "Bezout rings and their subrings" 64 (64): 251-264, 1968

      28 S. T. Chapman, "Atomicity of positive monoids"

      29 M. Bras-Amor´os, "Atomicity and density of Puiseux monoids" 49 (49): 1560-1570, 2021

      30 F. Gotti, "Atomicity and boundedness of monotone Puiseux monoids" 96 (96): 536-552, 2018

      31 F. Gotti, "Atomic semigroup rings and the ascending chain condition on principal ideals" 151 (151): 2291-2302, 2023

      32 A. Grams, "Atomic rings and the ascending chain condition for principal ideals" 75 : 321-329, 1974

      33 F. Gotti, "Algebraic, Number Theoretic, and Topological Aspects of Ring Theory" Springer 197-212, 2023

      34 A. Geroldinger, "A characterization of length-factorial Krull monoids" 27 : 1347-1374, 2021

      35 Harold Polo, "A characterization of finite factorization positive monoids" 37 (37): 669-679, 2022

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