Upper and Lower bounds on the nth prime number
Clash Royale CLAN TAG#URR8PPP
up vote
2
down vote
favorite
I know from papers like Dusarts's that $$nleft(ln n +ln ln n -1+ fracln ln n -2ln n-fracln^2 ln n -6 ln ln n +122 ln^2 nright) leq p_n leq nleft(ln n +ln ln n -1+ fracln ln n -2ln n-fracln^2 ln n -6 ln ln n +102 ln^2 nright) $$
But could any one give and explicit number $n_0$ for which for all $n geq n_0$ the above inequalities hold true ?
It does not have to be the smallest one, also if there is way, could you please show me how to get this number
I read a paper that estimate that the $n_0 approx 3.9*10^31$ under the R.H.
if we don't assume R.H. could we still have $n_0 ll 10^100$
Thanks in advance
number-theory prime-numbers
This question has an open bounty worth +500
reputation from Ahmad ending ending at 2018-08-12 07:00:38Z">in 4 days.
This question has not received enough attention.
Give a ref to a paper dealing with this problem, or give a proof about the $n_0$ number, Thanks
add a comment |Â
up vote
2
down vote
favorite
I know from papers like Dusarts's that $$nleft(ln n +ln ln n -1+ fracln ln n -2ln n-fracln^2 ln n -6 ln ln n +122 ln^2 nright) leq p_n leq nleft(ln n +ln ln n -1+ fracln ln n -2ln n-fracln^2 ln n -6 ln ln n +102 ln^2 nright) $$
But could any one give and explicit number $n_0$ for which for all $n geq n_0$ the above inequalities hold true ?
It does not have to be the smallest one, also if there is way, could you please show me how to get this number
I read a paper that estimate that the $n_0 approx 3.9*10^31$ under the R.H.
if we don't assume R.H. could we still have $n_0 ll 10^100$
Thanks in advance
number-theory prime-numbers
This question has an open bounty worth +500
reputation from Ahmad ending ending at 2018-08-12 07:00:38Z">in 4 days.
This question has not received enough attention.
Give a ref to a paper dealing with this problem, or give a proof about the $n_0$ number, Thanks
These bounds are much tighter than the one mentioned in Wikipedia! Did the paper mentioned a proven bound (not assuming RH) ?
– Peter
Aug 2 at 22:06
My guess is that $n_0=10^100$ is sufficient
– Peter
Aug 2 at 22:09
@peter yes,search for juan and toulisse paper
– Ahmad
Aug 2 at 23:35
add a comment |Â
up vote
2
down vote
favorite
up vote
2
down vote
favorite
I know from papers like Dusarts's that $$nleft(ln n +ln ln n -1+ fracln ln n -2ln n-fracln^2 ln n -6 ln ln n +122 ln^2 nright) leq p_n leq nleft(ln n +ln ln n -1+ fracln ln n -2ln n-fracln^2 ln n -6 ln ln n +102 ln^2 nright) $$
But could any one give and explicit number $n_0$ for which for all $n geq n_0$ the above inequalities hold true ?
It does not have to be the smallest one, also if there is way, could you please show me how to get this number
I read a paper that estimate that the $n_0 approx 3.9*10^31$ under the R.H.
if we don't assume R.H. could we still have $n_0 ll 10^100$
Thanks in advance
number-theory prime-numbers
I know from papers like Dusarts's that $$nleft(ln n +ln ln n -1+ fracln ln n -2ln n-fracln^2 ln n -6 ln ln n +122 ln^2 nright) leq p_n leq nleft(ln n +ln ln n -1+ fracln ln n -2ln n-fracln^2 ln n -6 ln ln n +102 ln^2 nright) $$
But could any one give and explicit number $n_0$ for which for all $n geq n_0$ the above inequalities hold true ?
It does not have to be the smallest one, also if there is way, could you please show me how to get this number
I read a paper that estimate that the $n_0 approx 3.9*10^31$ under the R.H.
if we don't assume R.H. could we still have $n_0 ll 10^100$
Thanks in advance
number-theory prime-numbers
edited Aug 2 at 20:49
Ed Pegg
9,12432486
9,12432486
asked Aug 2 at 17:57


Ahmad
2,2911625
2,2911625
This question has an open bounty worth +500
reputation from Ahmad ending ending at 2018-08-12 07:00:38Z">in 4 days.
This question has not received enough attention.
Give a ref to a paper dealing with this problem, or give a proof about the $n_0$ number, Thanks
This question has an open bounty worth +500
reputation from Ahmad ending ending at 2018-08-12 07:00:38Z">in 4 days.
This question has not received enough attention.
Give a ref to a paper dealing with this problem, or give a proof about the $n_0$ number, Thanks
These bounds are much tighter than the one mentioned in Wikipedia! Did the paper mentioned a proven bound (not assuming RH) ?
– Peter
Aug 2 at 22:06
My guess is that $n_0=10^100$ is sufficient
– Peter
Aug 2 at 22:09
@peter yes,search for juan and toulisse paper
– Ahmad
Aug 2 at 23:35
add a comment |Â
These bounds are much tighter than the one mentioned in Wikipedia! Did the paper mentioned a proven bound (not assuming RH) ?
– Peter
Aug 2 at 22:06
My guess is that $n_0=10^100$ is sufficient
– Peter
Aug 2 at 22:09
@peter yes,search for juan and toulisse paper
– Ahmad
Aug 2 at 23:35
These bounds are much tighter than the one mentioned in Wikipedia! Did the paper mentioned a proven bound (not assuming RH) ?
– Peter
Aug 2 at 22:06
These bounds are much tighter than the one mentioned in Wikipedia! Did the paper mentioned a proven bound (not assuming RH) ?
– Peter
Aug 2 at 22:06
My guess is that $n_0=10^100$ is sufficient
– Peter
Aug 2 at 22:09
My guess is that $n_0=10^100$ is sufficient
– Peter
Aug 2 at 22:09
@peter yes,search for juan and toulisse paper
– Ahmad
Aug 2 at 23:35
@peter yes,search for juan and toulisse paper
– Ahmad
Aug 2 at 23:35
add a comment |Â
active
oldest
votes
active
oldest
votes
active
oldest
votes
active
oldest
votes
active
oldest
votes
Sign up or log in
StackExchange.ready(function ()
StackExchange.helpers.onClickDraftSave('#login-link');
);
Sign up using Google
Sign up using Facebook
Sign up using Email and Password
Post as a guest
StackExchange.ready(
function ()
StackExchange.openid.initPostLogin('.new-post-login', 'https%3a%2f%2fmath.stackexchange.com%2fquestions%2f2870327%2fupper-and-lower-bounds-on-the-nth-prime-number%23new-answer', 'question_page');
);
Post as a guest
Sign up or log in
StackExchange.ready(function ()
StackExchange.helpers.onClickDraftSave('#login-link');
);
Sign up using Google
Sign up using Facebook
Sign up using Email and Password
Post as a guest
Sign up or log in
StackExchange.ready(function ()
StackExchange.helpers.onClickDraftSave('#login-link');
);
Sign up using Google
Sign up using Facebook
Sign up using Email and Password
Post as a guest
Sign up or log in
StackExchange.ready(function ()
StackExchange.helpers.onClickDraftSave('#login-link');
);
Sign up using Google
Sign up using Facebook
Sign up using Email and Password
Sign up using Google
Sign up using Facebook
Sign up using Email and Password
These bounds are much tighter than the one mentioned in Wikipedia! Did the paper mentioned a proven bound (not assuming RH) ?
– Peter
Aug 2 at 22:06
My guess is that $n_0=10^100$ is sufficient
– Peter
Aug 2 at 22:09
@peter yes,search for juan and toulisse paper
– Ahmad
Aug 2 at 23:35