List questions from prime-factorization

Published on 03 Nov 2020 - 15:23

176

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Prime elements of $\mathbb{Z}[i\sqrt5]$.

Published on 03 Nov 2020 - 16:45

604

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If $\gcd(a, b) = p$, what are possible values of $\gcd(a^3, b^2)$?

Published on 07 Nov 2020 - 14:51

125

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Help proving that $\sum_{d^k|n}\mu(d) =$ 1 if is k-free and 0 otherwise

Published on 27 Mar 2026 - 13:40

123

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The product of which 6 primes is 201-times larger than their sum?

Published on 12 Nov 2020 - 0:28

457

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Polynomial in $\mathbb{Z}[x]$ which is irreducible but not prime.

Published on 12 Nov 2020 - 11:52

36

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Prime factors and relation

Published on 13 Nov 2020 - 3:41

104

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Divisibility proof through prime-factorization.

Published on 13 Nov 2020 - 10:37

65

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Why $r \notin R^*$ if it is a prime?

Published on 16 Nov 2020 - 5:47

98

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Showing that a relation tied to prime factorization is an equivalence relation

Published on 17 Nov 2020 - 2:14

69

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An inequality with respect to sum of power of prime factors

Published on 18 Nov 2020 - 10:46

38

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How to prove this sentence?

Published on 30 Mar 2026 - 15:36

53

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How do I proof this in Number-Theoretic Function?

Published on 19 Nov 2020 - 4:21

36

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Help in factorization (Explain if I was wrong)

Published on 23 Nov 2020 - 21:28

101

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Do there exist numbers of the form $n^2+1$ with arbitrarily many prime factors?

Published on 27 Nov 2020 - 6:54

List Question

subtracting exponents with different bases and finding all the prime factors of it

Prime elements of $\mathbb{Z}[i\sqrt5]$.

If $\gcd(a, b) = p$, what are possible values of $\gcd(a^3, b^2)$?

Help proving that $\sum_{d^k|n}\mu(d) =$ 1 if is k-free and 0 otherwise

The product of which 6 primes is 201-times larger than their sum?

Polynomial in $\mathbb{Z}[x]$ which is irreducible but not prime.

Prime factors and relation

Divisibility proof through prime-factorization.

Why $r \notin R^*$ if it is a prime?

Showing that a relation tied to prime factorization is an equivalence relation

An inequality with respect to sum of power of prime factors

How to prove this sentence?

How do I proof this in Number-Theoretic Function?

Help in factorization (Explain if I was wrong)

Do there exist numbers of the form $n^2+1$ with arbitrarily many prime factors?

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