- #1
jmjlt88
- 96
- 0
I have a quick question. The problem reads:
Prove that there is no integer m such that 3x2+4x + m is a factor of 6x4+50 in Z[x].
Now, Z[x] is not a field. So, the division algorithm for polynomials does not guarantee us a quotient and remainder. When I tried dividing 6x4+50 by 3x2+4x + m, it immediately would have push me out of the integers. So, 3x2+4x + m cannot be a factor no matter what m is.
My question, how can write that nicely in a proof? This may be a silly question. I have finished my first run through of Pinter's A Book of Abstract Algebra and I am now going back, re-writing proofs more concisely, fixing mistakes, and trying ones I skipped or did not "get." I only wrote an explanation similar to the one above for my answer with an attempt at divinding the polynomials.
Prove that there is no integer m such that 3x2+4x + m is a factor of 6x4+50 in Z[x].
Now, Z[x] is not a field. So, the division algorithm for polynomials does not guarantee us a quotient and remainder. When I tried dividing 6x4+50 by 3x2+4x + m, it immediately would have push me out of the integers. So, 3x2+4x + m cannot be a factor no matter what m is.
My question, how can write that nicely in a proof? This may be a silly question. I have finished my first run through of Pinter's A Book of Abstract Algebra and I am now going back, re-writing proofs more concisely, fixing mistakes, and trying ones I skipped or did not "get." I only wrote an explanation similar to the one above for my answer with an attempt at divinding the polynomials.