So far, there is no reason to excise the equivalence class [1 : 0] from our tentative construction of the rational numbers. Since [1:0] is likened to, we may think of (and, indeed, any quotient of a nonzero quantity and zero) as ∞o. However, we might like for our construction of the rational numbers to enjoy the arithmetic attributes of a field, Is our current construction of the rational numbers (including ∞ := [10]), and with binary operations addition and multiplication (as we've defined them) a field (as per the “Classic definition” written on Wikipedia)? (Provably) verify as many axioms as possible, and provide explicit counterexamples to any axioms which are violated. If any of the axioms defining a field are violated due to the inclusion of ∞ = [1 : 0], is the problem remedied by simply removing ∞ := [1 : 0]?

Advanced Engineering Mathematics
10th Edition
ISBN:9780470458365
Author:Erwin Kreyszig
Publisher:Erwin Kreyszig
Chapter2: Second-order Linear Odes
Section: Chapter Questions
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So far, there is no reason to excise the equivalence class [1:0] from our tentative
construction of the rational numbers. Since [1:0] is likened to, we may think
of (and, indeed, any quotient of a nonzero quantity and zero) as ∞o. However,
we might like for our construction of the rational numbers to enjoy the arithmetic
attributes of a field,
Is our current construction of the rational numbers (including ∞ :=
[10]), and with binary operations addition and multiplication (as
we've defined them) a field (as per the “Classic_definition" written
on Wikipedia)? (Provably) verify as many axioms as possible, and
provide explicit counterexamples to any axioms which are violated. If
any of the axioms defining a field are violated due to the inclusion of
∞ = [1 : 0], is the problem remedied by simply removing ∞ := [1 : 0]?
Transcribed Image Text:So far, there is no reason to excise the equivalence class [1:0] from our tentative construction of the rational numbers. Since [1:0] is likened to, we may think of (and, indeed, any quotient of a nonzero quantity and zero) as ∞o. However, we might like for our construction of the rational numbers to enjoy the arithmetic attributes of a field, Is our current construction of the rational numbers (including ∞ := [10]), and with binary operations addition and multiplication (as we've defined them) a field (as per the “Classic_definition" written on Wikipedia)? (Provably) verify as many axioms as possible, and provide explicit counterexamples to any axioms which are violated. If any of the axioms defining a field are violated due to the inclusion of ∞ = [1 : 0], is the problem remedied by simply removing ∞ := [1 : 0]?
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