Is this probability function continuous?
Clash Royale CLAN TAG#URR8PPP
up vote
0
down vote
favorite
I have a probability function shown below, and I was wondering if it is possible to set the right side equal to 0, then take the derivative of the right side with respect to $P_j_r$ and find the global maximum. However, to do this the function should be continuous and I'm not sure if it is.
Assuming all variables other than $P_j_r$ are given constants, is this function continuous and is it possible to find the global maximum?
$$ Pr_j_r=fracy_j_rexp(fracx_j+x_r+b*log(P_j_r)1-h)( sum_s=1^R y_j_sexp(frac(x_j+x_s+b*log(P_j_r))1-h))^-^hexp(I_0)+sum_r=1^Rsum_j=1^Jy_j_rexp(fracx_j+x_r+b*log(P_j_r)1-h)(sum_s=1^Ry_j_sexp(fracx_j+x_r+b*log(P_j_r)1-h))^-^h $$
derivatives probability-distributions continuity
add a comment |Â
up vote
0
down vote
favorite
I have a probability function shown below, and I was wondering if it is possible to set the right side equal to 0, then take the derivative of the right side with respect to $P_j_r$ and find the global maximum. However, to do this the function should be continuous and I'm not sure if it is.
Assuming all variables other than $P_j_r$ are given constants, is this function continuous and is it possible to find the global maximum?
$$ Pr_j_r=fracy_j_rexp(fracx_j+x_r+b*log(P_j_r)1-h)( sum_s=1^R y_j_sexp(frac(x_j+x_s+b*log(P_j_r))1-h))^-^hexp(I_0)+sum_r=1^Rsum_j=1^Jy_j_rexp(fracx_j+x_r+b*log(P_j_r)1-h)(sum_s=1^Ry_j_sexp(fracx_j+x_r+b*log(P_j_r)1-h))^-^h $$
derivatives probability-distributions continuity
I'm a little confused about why you're worrying if this function is just continous, rather than being worried for it being differentiable.
â Ovi
Aug 13 at 9:24
You can get proper formatting for functions like $exp$ and $log$ usingexp
andlog
. For operators that don't have a command of their own, you can useoperatornamename
.
â joriki
Aug 13 at 11:10
add a comment |Â
up vote
0
down vote
favorite
up vote
0
down vote
favorite
I have a probability function shown below, and I was wondering if it is possible to set the right side equal to 0, then take the derivative of the right side with respect to $P_j_r$ and find the global maximum. However, to do this the function should be continuous and I'm not sure if it is.
Assuming all variables other than $P_j_r$ are given constants, is this function continuous and is it possible to find the global maximum?
$$ Pr_j_r=fracy_j_rexp(fracx_j+x_r+b*log(P_j_r)1-h)( sum_s=1^R y_j_sexp(frac(x_j+x_s+b*log(P_j_r))1-h))^-^hexp(I_0)+sum_r=1^Rsum_j=1^Jy_j_rexp(fracx_j+x_r+b*log(P_j_r)1-h)(sum_s=1^Ry_j_sexp(fracx_j+x_r+b*log(P_j_r)1-h))^-^h $$
derivatives probability-distributions continuity
I have a probability function shown below, and I was wondering if it is possible to set the right side equal to 0, then take the derivative of the right side with respect to $P_j_r$ and find the global maximum. However, to do this the function should be continuous and I'm not sure if it is.
Assuming all variables other than $P_j_r$ are given constants, is this function continuous and is it possible to find the global maximum?
$$ Pr_j_r=fracy_j_rexp(fracx_j+x_r+b*log(P_j_r)1-h)( sum_s=1^R y_j_sexp(frac(x_j+x_s+b*log(P_j_r))1-h))^-^hexp(I_0)+sum_r=1^Rsum_j=1^Jy_j_rexp(fracx_j+x_r+b*log(P_j_r)1-h)(sum_s=1^Ry_j_sexp(fracx_j+x_r+b*log(P_j_r)1-h))^-^h $$
derivatives probability-distributions continuity
asked Aug 13 at 8:54
amadzebra
1
1
I'm a little confused about why you're worrying if this function is just continous, rather than being worried for it being differentiable.
â Ovi
Aug 13 at 9:24
You can get proper formatting for functions like $exp$ and $log$ usingexp
andlog
. For operators that don't have a command of their own, you can useoperatornamename
.
â joriki
Aug 13 at 11:10
add a comment |Â
I'm a little confused about why you're worrying if this function is just continous, rather than being worried for it being differentiable.
â Ovi
Aug 13 at 9:24
You can get proper formatting for functions like $exp$ and $log$ usingexp
andlog
. For operators that don't have a command of their own, you can useoperatornamename
.
â joriki
Aug 13 at 11:10
I'm a little confused about why you're worrying if this function is just continous, rather than being worried for it being differentiable.
â Ovi
Aug 13 at 9:24
I'm a little confused about why you're worrying if this function is just continous, rather than being worried for it being differentiable.
â Ovi
Aug 13 at 9:24
You can get proper formatting for functions like $exp$ and $log$ using
exp
and log
. For operators that don't have a command of their own, you can use operatornamename
.â joriki
Aug 13 at 11:10
You can get proper formatting for functions like $exp$ and $log$ using
exp
and log
. For operators that don't have a command of their own, you can use operatornamename
.â joriki
Aug 13 at 11:10
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%2f2881148%2fis-this-probability-function-continuous%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
I'm a little confused about why you're worrying if this function is just continous, rather than being worried for it being differentiable.
â Ovi
Aug 13 at 9:24
You can get proper formatting for functions like $exp$ and $log$ using
exp
andlog
. For operators that don't have a command of their own, you can useoperatornamename
.â joriki
Aug 13 at 11:10