Ring $R_{ 131 }$

Noetherian domain that is not N-1

Description:

Let $x_i$ be countably many indeterminates, and $T=\mathbb Q[\{x_i^2\mid i \in \mathbb N\}\cup\{x_i^3\in\mathbb N\}]$. Let $S_0$ be the multiplicative set that is the intersection of complements of $(x_i^2, x_i^3)$ in $\mathbb Q[\{x_i\mid i \in \mathbb N\}]$, and $S=S_0\cap T$. The desired ring is the localization $TS^{-1}$

Notes: not integrally closed in its field of fractions

Keywords localization polynomial ring

Reference(s):

  • (Citation needed)


  • Known Properties
    Name
    $I_0$
    analytically normal
    analytically unramified
    catenary
    clean
    Cohen-Macaulay
    exchange
    finitely pseudo-Frobenius
    Goldman domain
    Gorenstein
    Henselian local
    Jacobson
    lift/rad
    linearly compact
    local
    local complete intersection
    max ring
    maximal ring
    Mori domain
    nil radical
    nilpotent radical
    potent
    rad-nil
    regular
    semilocal
    semiperfect
    semiprimitive
    semiregular
    simple-injective
    stable range 1
    T-nilpotent radical
    top regular
    top simple
    top simple Artinian
    UGP ring
    universally catenary
    weakly clean
    Zorn
    $\pi$-regular
    ?-ring
    algebraically closed field
    almost Dedekind domain
    almost maximal valuation ring
    Archimedean field
    arithmetical
    Artinian
    Bezout
    Bezout domain
    Boolean
    characteristic 0 field
    cogenerator ring
    cohopfian
    complete discrete valuation ring
    complete local
    continuous
    Dedekind domain
    discrete valuation ring
    distributive
    division ring
    dual
    essential socle
    Euclidean domain
    Euclidean field
    excellent
    FGC
    FI-injective
    field
    finite
    finitely cogenerated
    free ideal ring
    Frobenius
    fully prime
    fully semiprime
    GCD domain
    hereditary
    J-0
    J-1
    J-2
    Kasch
    Krull domain
    maximal valuation ring
    N-1
    N-2
    Nagata
    nonzero socle
    normal
    normal domain
    ordered field
    PCI ring
    perfect
    perfect field
    periodic
    primary
    primitive
    principal ideal domain
    principal ideal ring
    principally injective
    Prufer domain
    pseudo-Frobenius
    Pythagorean field
    quadratically closed field
    quasi-excellent
    quasi-Frobenius
    regular local
    Schreier domain
    self-injective
    semi free ideal ring
    semi-Artinian
    semihereditary
    semiprimary
    semisimple
    serial
    simple
    simple Artinian
    simple socle
    strongly $\pi$-regular
    strongly regular
    torch
    unique factorization domain
    uniserial domain
    uniserial ring
    unit regular
    universally Japanese
    V ring
    valuation domain
    valuation ring
    von Neumann regular
    $h$-local domain
    2-primal
    Abelian
    ACC annihilator
    ACC principal
    almost maximal domain
    almost maximal ring
    anti-automorphic
    Armendariz
    atomic domain
    Baer
    coherent
    commutative
    compressible
    countable
    CS
    DCC annihilator
    Dedekind finite
    directly irreducible
    domain
    duo
    finite uniform dimension
    finitely generated socle
    Goldie
    Grothendieck
    IBN
    IC ring
    Ikeda-Nakayama
    involutive
    McCoy
    NI ring
    Noetherian
    nonsingular
    Ore domain
    Ore ring
    orthogonally finite
    polynomial identity
    prime
    quasi-continuous
    quasi-duo
    reduced
    reversible
    Rickart
    semi-Noetherian
    semicommutative
    semiprime
    stably finite
    strongly connected
    symmetric
    uniform
    Legend
    • = has the property
    • = does not have the property
    • = information not in database
    Name Measure
    Krull dimension (classical) 1
    Name Description
    Idempotents $\{0,1\}$
    Left singular ideal $\{0\}$
    Left socle $\{0\}$
    Nilpotents $\{0\}$
    Right singular ideal $\{0\}$
    Right socle $\{0\}$
    Zero divisors $\{0\}$