References for the âPrincipal part methodâ?
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Here is the statement :
If $f$ is a continuous function on $mathbbR$ and there exists $pin mathbbN^*$ and a real number $gamma>0$ such that $f(x)undersetxto 0=x-gamma x^p+1+ o(x^p+1)$ and $(u_n)_nin mathbbN$ a stricly positive decreasing sequence with $lim limits_nto +inftyu_n=0$ and defined by $forall n in mathbbN u_n+1=f(u_n)$. Then $u_n sim( frac1gamma pn)^frac1p$.
Apparently it is called the "principal part method". I could not find any references with that.
I know that the we can use the term "principal part" to define the function of the $n^th$-term in the Taylor expansion of $F$ near a point $t$.
Thanks in advance !
real-analysis sequences-and-series limits taylor-expansion
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up vote
0
down vote
favorite
Here is the statement :
If $f$ is a continuous function on $mathbbR$ and there exists $pin mathbbN^*$ and a real number $gamma>0$ such that $f(x)undersetxto 0=x-gamma x^p+1+ o(x^p+1)$ and $(u_n)_nin mathbbN$ a stricly positive decreasing sequence with $lim limits_nto +inftyu_n=0$ and defined by $forall n in mathbbN u_n+1=f(u_n)$. Then $u_n sim( frac1gamma pn)^frac1p$.
Apparently it is called the "principal part method". I could not find any references with that.
I know that the we can use the term "principal part" to define the function of the $n^th$-term in the Taylor expansion of $F$ near a point $t$.
Thanks in advance !
real-analysis sequences-and-series limits taylor-expansion
add a comment |Â
up vote
0
down vote
favorite
up vote
0
down vote
favorite
Here is the statement :
If $f$ is a continuous function on $mathbbR$ and there exists $pin mathbbN^*$ and a real number $gamma>0$ such that $f(x)undersetxto 0=x-gamma x^p+1+ o(x^p+1)$ and $(u_n)_nin mathbbN$ a stricly positive decreasing sequence with $lim limits_nto +inftyu_n=0$ and defined by $forall n in mathbbN u_n+1=f(u_n)$. Then $u_n sim( frac1gamma pn)^frac1p$.
Apparently it is called the "principal part method". I could not find any references with that.
I know that the we can use the term "principal part" to define the function of the $n^th$-term in the Taylor expansion of $F$ near a point $t$.
Thanks in advance !
real-analysis sequences-and-series limits taylor-expansion
Here is the statement :
If $f$ is a continuous function on $mathbbR$ and there exists $pin mathbbN^*$ and a real number $gamma>0$ such that $f(x)undersetxto 0=x-gamma x^p+1+ o(x^p+1)$ and $(u_n)_nin mathbbN$ a stricly positive decreasing sequence with $lim limits_nto +inftyu_n=0$ and defined by $forall n in mathbbN u_n+1=f(u_n)$. Then $u_n sim( frac1gamma pn)^frac1p$.
Apparently it is called the "principal part method". I could not find any references with that.
I know that the we can use the term "principal part" to define the function of the $n^th$-term in the Taylor expansion of $F$ near a point $t$.
Thanks in advance !
real-analysis sequences-and-series limits taylor-expansion
asked Jul 30 at 3:12
Maman
1,161720
1,161720
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