Ring $R_{ 187 }$

Non lift/rad matrix ring over a lift/rad base ring

Description:

$M_2(R)$ where $R=R_{186}$

Keywords matrix ring

Reference(s):

  • A. J. Diesl, S. J. Dittmer, and P. P. Nielsen. Idempotent lifting and ring extensions. (2016) @ Theorem 2.1 p 2
Symmetric properties
Name
2-primal
Abelian
anti-automorphic
Armendariz
Baer
compressible
domain
fully prime
fully semiprime
IC ring
involutive
NI ring
reversible
semi free ideal ring
semicommutative
semilocal
stable range 1
strongly connected
symmetric
top regular
top simple
top simple Artinian
weakly clean
$\pi$-regular
$I_0$
Boolean
clean
commutative
division ring
exchange
field
finite
Frobenius
lift/rad
local
nil radical
nilpotent radical
periodic
potent
primary
quasi-Frobenius
reduced
semiperfect
semiprimary
semiprimitive
semiregular
semisimple
simple
simple Artinian
strongly $\pi$-regular
strongly regular
unit regular
von Neumann regular
Zorn
countable
Dedekind finite
directly irreducible
IBN
orthogonally finite
polynomial identity
prime
semiprime
stably finite
Asymmetric properties
left Name right
Bezout
Bezout domain
cohopfian
CS
distributive
duo
finitely pseudo-Frobenius
free ideal ring
hereditary
Ikeda-Nakayama
McCoy
Ore domain
principal ideal domain
principal ideal ring
quasi-continuous
quasi-duo
Rickart
semihereditary
UGP ring
uniform
Artinian
cogenerator ring
continuous
dual
essential socle
FI-injective
finitely cogenerated
Kasch
linearly compact
max ring
nonzero socle
PCI ring
perfect
primitive
principally injective
pseudo-Frobenius
self-injective
semi-Artinian
serial
simple socle
T-nilpotent radical
uniserial domain
uniserial ring
V ring
ACC annihilator
ACC principal
coherent
DCC annihilator
finite uniform dimension
finitely generated socle
Goldie
Noetherian
nonsingular
Ore ring
semi-Noetherian
simple-injective
Legend
  • = has the property
  • = does not have the property
  • = information not in database

(Nothing was retrieved.)

Name Description
Left singular ideal $\{0\}$
Left socle $\{0\}$
Right singular ideal $\{0\}$
Right socle $\{0\}$