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Conjecture about primes and the greatest common divisor



The 2019 Stack Overflow Developer Survey Results Are InGreatest common divisor sequenceprime numbers and greatest common divisorGreatest Common Divisor DivisibilityGreatest Common Divisor and PrimesGreatest common divisor algorithmGoldbach's Conjecture and 1-1 correspondenceLeave-$k$-out greatest common divisorA confession and a conjecture $gcd(a-b,a+b)|2gcd(a,b)$A conjecture about big prime numbersWhy do we notate the greatest common divisor of $a$ and $b$ as $(a,b)$?










5












$begingroup$


Conjecture:




Given $m,ninmathbb N^+$, one odd and one even, there are two
primes $p,q$ such that $|mp-nq|=gcd(m,n)$.




I hope MSE can determine its validity.



From time to time, when testing my growing math packages BigZ and Forthmath, I recognize some patterns which I can't prove or disprove (or even have the ambition to). I post them here with the hope that it will not annoy too much. I hope you can bear with it.










share|cite|improve this question











$endgroup$







  • 1




    $begingroup$
    I think it is true by the structure of the solution set to Bézout's identity and Dirichlet's theorem on arithmetic progressions. EDIT: But some details need to be taken care of.
    $endgroup$
    – Jeppe Stig Nielsen
    Mar 23 at 17:33







  • 2




    $begingroup$
    @JeppeStigNielsen I was thinking the same thing. But the problem is: don't you need to show that two different arithmetic progressions have the property that the $n$th term of each is a prime for some $n$?
    $endgroup$
    – Ashvin Swaminathan
    Mar 23 at 19:36






  • 3




    $begingroup$
    @AshvinSwaminathan Yes, something like that. The two progressions should not "conspire" in a way that they never yield primes simultaneously. I do not know if this is technically hard to establish rigorously. But intuitively, Lehs's conjecture should be true.
    $endgroup$
    – Jeppe Stig Nielsen
    Mar 23 at 19:48






  • 2




    $begingroup$
    I think this problem is equivalent to an unsolved version of Goldbach's conjecture. Take $m = 1$. Then essentially we're asking the following question: given a linear function $f(x) = a x + b$ with $a,b$ coprime integers, is there some prime $q$ for which $f(q) = p$ is also prime? Some googling suggests this is not known.
    $endgroup$
    – Ashvin Swaminathan
    Mar 24 at 4:02






  • 1




    $begingroup$
    @Lehs I think, Ashvin's version is a case of the Bunyakovsky conjecture. I share Ashvin's doubt that this special case is known.
    $endgroup$
    – Peter
    Mar 24 at 14:19
















5












$begingroup$


Conjecture:




Given $m,ninmathbb N^+$, one odd and one even, there are two
primes $p,q$ such that $|mp-nq|=gcd(m,n)$.




I hope MSE can determine its validity.



From time to time, when testing my growing math packages BigZ and Forthmath, I recognize some patterns which I can't prove or disprove (or even have the ambition to). I post them here with the hope that it will not annoy too much. I hope you can bear with it.










share|cite|improve this question











$endgroup$







  • 1




    $begingroup$
    I think it is true by the structure of the solution set to Bézout's identity and Dirichlet's theorem on arithmetic progressions. EDIT: But some details need to be taken care of.
    $endgroup$
    – Jeppe Stig Nielsen
    Mar 23 at 17:33







  • 2




    $begingroup$
    @JeppeStigNielsen I was thinking the same thing. But the problem is: don't you need to show that two different arithmetic progressions have the property that the $n$th term of each is a prime for some $n$?
    $endgroup$
    – Ashvin Swaminathan
    Mar 23 at 19:36






  • 3




    $begingroup$
    @AshvinSwaminathan Yes, something like that. The two progressions should not "conspire" in a way that they never yield primes simultaneously. I do not know if this is technically hard to establish rigorously. But intuitively, Lehs's conjecture should be true.
    $endgroup$
    – Jeppe Stig Nielsen
    Mar 23 at 19:48






  • 2




    $begingroup$
    I think this problem is equivalent to an unsolved version of Goldbach's conjecture. Take $m = 1$. Then essentially we're asking the following question: given a linear function $f(x) = a x + b$ with $a,b$ coprime integers, is there some prime $q$ for which $f(q) = p$ is also prime? Some googling suggests this is not known.
    $endgroup$
    – Ashvin Swaminathan
    Mar 24 at 4:02






  • 1




    $begingroup$
    @Lehs I think, Ashvin's version is a case of the Bunyakovsky conjecture. I share Ashvin's doubt that this special case is known.
    $endgroup$
    – Peter
    Mar 24 at 14:19














5












5








5





$begingroup$


Conjecture:




Given $m,ninmathbb N^+$, one odd and one even, there are two
primes $p,q$ such that $|mp-nq|=gcd(m,n)$.




I hope MSE can determine its validity.



From time to time, when testing my growing math packages BigZ and Forthmath, I recognize some patterns which I can't prove or disprove (or even have the ambition to). I post them here with the hope that it will not annoy too much. I hope you can bear with it.










share|cite|improve this question











$endgroup$




Conjecture:




Given $m,ninmathbb N^+$, one odd and one even, there are two
primes $p,q$ such that $|mp-nq|=gcd(m,n)$.




I hope MSE can determine its validity.



From time to time, when testing my growing math packages BigZ and Forthmath, I recognize some patterns which I can't prove or disprove (or even have the ambition to). I post them here with the hope that it will not annoy too much. I hope you can bear with it.







number-theory prime-numbers greatest-common-divisor conjectures






share|cite|improve this question















share|cite|improve this question













share|cite|improve this question




share|cite|improve this question








edited Mar 23 at 19:01







Lehs

















asked Mar 23 at 17:04









LehsLehs

6,99731664




6,99731664







  • 1




    $begingroup$
    I think it is true by the structure of the solution set to Bézout's identity and Dirichlet's theorem on arithmetic progressions. EDIT: But some details need to be taken care of.
    $endgroup$
    – Jeppe Stig Nielsen
    Mar 23 at 17:33







  • 2




    $begingroup$
    @JeppeStigNielsen I was thinking the same thing. But the problem is: don't you need to show that two different arithmetic progressions have the property that the $n$th term of each is a prime for some $n$?
    $endgroup$
    – Ashvin Swaminathan
    Mar 23 at 19:36






  • 3




    $begingroup$
    @AshvinSwaminathan Yes, something like that. The two progressions should not "conspire" in a way that they never yield primes simultaneously. I do not know if this is technically hard to establish rigorously. But intuitively, Lehs's conjecture should be true.
    $endgroup$
    – Jeppe Stig Nielsen
    Mar 23 at 19:48






  • 2




    $begingroup$
    I think this problem is equivalent to an unsolved version of Goldbach's conjecture. Take $m = 1$. Then essentially we're asking the following question: given a linear function $f(x) = a x + b$ with $a,b$ coprime integers, is there some prime $q$ for which $f(q) = p$ is also prime? Some googling suggests this is not known.
    $endgroup$
    – Ashvin Swaminathan
    Mar 24 at 4:02






  • 1




    $begingroup$
    @Lehs I think, Ashvin's version is a case of the Bunyakovsky conjecture. I share Ashvin's doubt that this special case is known.
    $endgroup$
    – Peter
    Mar 24 at 14:19













  • 1




    $begingroup$
    I think it is true by the structure of the solution set to Bézout's identity and Dirichlet's theorem on arithmetic progressions. EDIT: But some details need to be taken care of.
    $endgroup$
    – Jeppe Stig Nielsen
    Mar 23 at 17:33







  • 2




    $begingroup$
    @JeppeStigNielsen I was thinking the same thing. But the problem is: don't you need to show that two different arithmetic progressions have the property that the $n$th term of each is a prime for some $n$?
    $endgroup$
    – Ashvin Swaminathan
    Mar 23 at 19:36






  • 3




    $begingroup$
    @AshvinSwaminathan Yes, something like that. The two progressions should not "conspire" in a way that they never yield primes simultaneously. I do not know if this is technically hard to establish rigorously. But intuitively, Lehs's conjecture should be true.
    $endgroup$
    – Jeppe Stig Nielsen
    Mar 23 at 19:48






  • 2




    $begingroup$
    I think this problem is equivalent to an unsolved version of Goldbach's conjecture. Take $m = 1$. Then essentially we're asking the following question: given a linear function $f(x) = a x + b$ with $a,b$ coprime integers, is there some prime $q$ for which $f(q) = p$ is also prime? Some googling suggests this is not known.
    $endgroup$
    – Ashvin Swaminathan
    Mar 24 at 4:02






  • 1




    $begingroup$
    @Lehs I think, Ashvin's version is a case of the Bunyakovsky conjecture. I share Ashvin's doubt that this special case is known.
    $endgroup$
    – Peter
    Mar 24 at 14:19








1




1




$begingroup$
I think it is true by the structure of the solution set to Bézout's identity and Dirichlet's theorem on arithmetic progressions. EDIT: But some details need to be taken care of.
$endgroup$
– Jeppe Stig Nielsen
Mar 23 at 17:33





$begingroup$
I think it is true by the structure of the solution set to Bézout's identity and Dirichlet's theorem on arithmetic progressions. EDIT: But some details need to be taken care of.
$endgroup$
– Jeppe Stig Nielsen
Mar 23 at 17:33





2




2




$begingroup$
@JeppeStigNielsen I was thinking the same thing. But the problem is: don't you need to show that two different arithmetic progressions have the property that the $n$th term of each is a prime for some $n$?
$endgroup$
– Ashvin Swaminathan
Mar 23 at 19:36




$begingroup$
@JeppeStigNielsen I was thinking the same thing. But the problem is: don't you need to show that two different arithmetic progressions have the property that the $n$th term of each is a prime for some $n$?
$endgroup$
– Ashvin Swaminathan
Mar 23 at 19:36




3




3




$begingroup$
@AshvinSwaminathan Yes, something like that. The two progressions should not "conspire" in a way that they never yield primes simultaneously. I do not know if this is technically hard to establish rigorously. But intuitively, Lehs's conjecture should be true.
$endgroup$
– Jeppe Stig Nielsen
Mar 23 at 19:48




$begingroup$
@AshvinSwaminathan Yes, something like that. The two progressions should not "conspire" in a way that they never yield primes simultaneously. I do not know if this is technically hard to establish rigorously. But intuitively, Lehs's conjecture should be true.
$endgroup$
– Jeppe Stig Nielsen
Mar 23 at 19:48




2




2




$begingroup$
I think this problem is equivalent to an unsolved version of Goldbach's conjecture. Take $m = 1$. Then essentially we're asking the following question: given a linear function $f(x) = a x + b$ with $a,b$ coprime integers, is there some prime $q$ for which $f(q) = p$ is also prime? Some googling suggests this is not known.
$endgroup$
– Ashvin Swaminathan
Mar 24 at 4:02




$begingroup$
I think this problem is equivalent to an unsolved version of Goldbach's conjecture. Take $m = 1$. Then essentially we're asking the following question: given a linear function $f(x) = a x + b$ with $a,b$ coprime integers, is there some prime $q$ for which $f(q) = p$ is also prime? Some googling suggests this is not known.
$endgroup$
– Ashvin Swaminathan
Mar 24 at 4:02




1




1




$begingroup$
@Lehs I think, Ashvin's version is a case of the Bunyakovsky conjecture. I share Ashvin's doubt that this special case is known.
$endgroup$
– Peter
Mar 24 at 14:19





$begingroup$
@Lehs I think, Ashvin's version is a case of the Bunyakovsky conjecture. I share Ashvin's doubt that this special case is known.
$endgroup$
– Peter
Mar 24 at 14:19











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