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
    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
    stable range 1
    T-nilpotent radical
    top regular
    top simple
    top simple Artinian
    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
    co-Hopfian
    cogenerator ring
    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
    subdirectly irreducible
    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
    catenary
    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
    simple-injective
    stably finite
    strongly connected
    symmetric
    UGP ring
    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 $\{0\}$