1973
DOI: 10.2140/pjm.1973.49.493
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Rings of quotients of rings without nilpotent elements

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Cited by 11 publications
(6 citation statements)
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“…Rings which have the property that prime factor rings are domains include commutative rings as well as rings in which prime factor rings are division rings. Hence we immediately have the following corollary which was discovered independently by various authors including Herstein, Snider [27], Steinberg [28], and Wong [30]. A prime ideal P of R is completely prime if R/P is a domain.…”
Section: A Ring R Is Von Neumann Regular If and Only If Each Factor Rmentioning
confidence: 72%
“…Rings which have the property that prime factor rings are domains include commutative rings as well as rings in which prime factor rings are division rings. Hence we immediately have the following corollary which was discovered independently by various authors including Herstein, Snider [27], Steinberg [28], and Wong [30]. A prime ideal P of R is completely prime if R/P is a domain.…”
Section: A Ring R Is Von Neumann Regular If and Only If Each Factor Rmentioning
confidence: 72%
“…Since G is reduced the singular ideals of G are zero. Thus [6] H is a quotient ring of G and so H is reduced [15].…”
Section: Lemma 34 // G Is Reduced and Large In H Then H Is Reducedmentioning
confidence: 99%
“…Then obviously, R C Q(R) It is proved by Wong and Johnson [14] that Q(R) is a subring of Q r (R) and it is unique (up to isomorphism over R) maximal two sided ring of quotients of R. Also for every reduced ring i?, Q(R) is reduced (see Steinberg [12], page 466). It is proved in [10] (page 483) that every orthogonal subset X of R has a supremum in Q(R) and since Q(Q(R)) = Q(R), Q(R) is orthogonally complete.…”
Section: R K Raimentioning
confidence: 99%