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This may be a well known problem:

Let $f$ be a polynomial with integer coefficients. Is it possible for the set of prime divisors of values of $f$ on an infinite set of integers, to be finite?

I guess such a set exists only for only polynomialpolynomials $f$ of the form $f(x) = c(ax+b)^n, a,b,c\in \mathbb{Z}, c\neq 0$. But I can't give a proof.

I'm specially interested in the case $f(x) = x^2+1$.

Thanks!

This may be a well known problem:

Let $f$ be a polynomial with integer coefficients. Is it possible for the set of prime divisors of values of $f$ on an infinite set of integers, to be finite?

I guess such a set exists for only polynomial $f$ of the form $f(x) = c(ax+b)^n, a,b,c\in \mathbb{Z}, c\neq 0$. But I can't give a proof.

I'm specially interested in the case $f(x) = x^2+1$.

Thanks!

This may be a well known problem:

Let $f$ be a polynomial with integer coefficients. Is it possible for the set of prime divisors of values of $f$ on an infinite set of integers, to be finite?

I guess such a set exists only for polynomials $f$ of the form $f(x) = c(ax+b)^n, a,b,c\in \mathbb{Z}, c\neq 0$. But I can't give a proof.

I'm specially interested in the case $f(x) = x^2+1$.

Thanks!

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This may be a well known problem:

Let $f$ be a non-constant polynomial polynomial with integer coefficients which is not a constant multiple of a power of a linear polynomial. Is it possible for the set of prime divisors of values of $f$ on an infinite set of integers, to be finite? ( To be clear, 

I need the answer (if known) guess such a set exists for allonly polynomial $f(x)\in \mathbb{Z}[x]$.$f$ of the form )$f(x) = c(ax+b)^n, a,b,c\in \mathbb{Z}, c\neq 0$. But I can't give a proof.

I'm specially interested in the case $f(x) = x^2+1$.

Thanks!

This may be a well known problem:

Let $f$ be a non-constant polynomial with integer coefficients which is not a constant multiple of a power of a linear polynomial. Is it possible for the set of prime divisors of values of $f$ on an infinite set of integers, to be finite? ( To be clear, I need the answer (if known) for all $f(x)\in \mathbb{Z}[x]$. )

I'm specially interested in the case $f(x) = x^2+1$.

Thanks!

This may be a well known problem:

Let $f$ be a polynomial with integer coefficients. Is it possible for the set of prime divisors of values of $f$ on an infinite set of integers, to be finite? 

I guess such a set exists for only polynomial $f$ of the form $f(x) = c(ax+b)^n, a,b,c\in \mathbb{Z}, c\neq 0$. But I can't give a proof.

I'm specially interested in the case $f(x) = x^2+1$.

Thanks!

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Source Link

This may be a well known problem:

Let $f$ be a non-constant polynomial with integer coefficients which is not a constant multiple of a power of a linear polynomial. Is it possible for the set of prime divisors of values of $f$ on an infinite set of integers, to be finite? ( To be clear, I need the answer (if known) for all $f(x)\in \mathbb{Z}[x]$. )

I'm specially interested in the case $f(x) = x^2+1$.

Thanks!

This may be a well known problem:

Let $f$ be a non-constant polynomial with integer coefficients. Is it possible for the set of prime divisors of values of $f$ on an infinite set of integers, to be finite? ( To be clear, I need the answer (if known) for all $f(x)\in \mathbb{Z}[x]$. )

I'm specially interested in the case $f(x) = x^2+1$.

Thanks!

This may be a well known problem:

Let $f$ be a non-constant polynomial with integer coefficients which is not a constant multiple of a power of a linear polynomial. Is it possible for the set of prime divisors of values of $f$ on an infinite set of integers, to be finite? ( To be clear, I need the answer (if known) for all $f(x)\in \mathbb{Z}[x]$. )

I'm specially interested in the case $f(x) = x^2+1$.

Thanks!

Source Link
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