Question (a) The triple < Z311., State whether True or False. Provide a reason for your answer. that consists of the set of congruence classes modulo 311 together with addition and multiplication, constitutes an integral domain. (b) An integral domain consists of an Abelian additive group. a commutative unital ring which has a nonzero unity, but no zero divisors. A well-ordered integral domain is an ordered integral domain for which every nonempty subset of positive elements has a least element. (c) A finite integral domain cannot be ordered. In particular, < Zp. ,, for p prime, cannot be ordered.

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(a) The triple
State whether True or False. Provide a reason for your answer.
Z311.. that consists of the set of congruence classes modulo 311
together with addition and multiplication, constitutes an integral domain.
(b) An integral domain consists of an Abelian additive group. a commutative unital ring
which has a nonzero unity, but no zero divisors. A well-ordered integral domain is an
ordered integral domain for which every nonempty subset of positive elements has a least
element.
(c) A finite integral domain cannot be ordered. In particular, < Zp. 0, 0, for p prime,
cannot be ordered.
(d) The triple Z[√3.+, consisting of the set of algebraic numbers
Z[√3] = {m+n√3: Vm, ne Z}
constitutes an integral domain. It is an ordered integral domain.
(e) The ring Z₂ x Zs, t,
X
modulo 10. The ring
K
is isomorphic to Zio. , >. the ring of congruence classes
Z₂ x Zs. t. is an integral domain.
(f) The ring of integers Z. +. can be embedded in every field of quotients <Fp.†.. >
of an integral domain D with characteristic 0. This field of quotients contains a subring
isomorphic to the integral domain D.
Transcribed Image Text:Question (a) The triple State whether True or False. Provide a reason for your answer. Z311.. that consists of the set of congruence classes modulo 311 together with addition and multiplication, constitutes an integral domain. (b) An integral domain consists of an Abelian additive group. a commutative unital ring which has a nonzero unity, but no zero divisors. A well-ordered integral domain is an ordered integral domain for which every nonempty subset of positive elements has a least element. (c) A finite integral domain cannot be ordered. In particular, < Zp. 0, 0, for p prime, cannot be ordered. (d) The triple Z[√3.+, consisting of the set of algebraic numbers Z[√3] = {m+n√3: Vm, ne Z} constitutes an integral domain. It is an ordered integral domain. (e) The ring Z₂ x Zs, t, X modulo 10. The ring K is isomorphic to Zio. , >. the ring of congruence classes Z₂ x Zs. t. is an integral domain. (f) The ring of integers Z. +. can be embedded in every field of quotients <Fp.†.. > of an integral domain D with characteristic 0. This field of quotients contains a subring isomorphic to the integral domain D.
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