Difference between revisions of "File:Sinplo2t100.jpg"

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($ -> \( ; refs ; pre ; keywords)
Line 1: Line 1:
{{oq|Sinplo2t100.jpg|Original file ‎(4,469 × 2,352 pixels, file size: 1.62 MB, MIME type: image/jpeg)}}
+
{{oq|Boyt100.jpg|Original file ‎(3,473 × 1,646 pixels, file size: 467 KB, MIME type: image/jpeg)}}
   
Fig.12.6 at from page 157 of book «[[Superfunctions]]»
+
Figure 12.7 from page 158 of book [[Superfunctions]]<ref>
<ref>
 
 
https://www.amazon.co.jp/-/en/Dmitrii-Kouznetsov/dp/6202672862 <br>
 
https://www.amazon.co.jp/-/en/Dmitrii-Kouznetsov/dp/6202672862 <br>
 
https://www.morebooks.de/shop-ui/shop/product/978-620-2-67286-3 <br>
 
https://www.morebooks.de/shop-ui/shop/product/978-620-2-67286-3 <br>
 
https://mizugadro.mydns.jp/BOOK/468.pdf <br>
 
https://mizugadro.mydns.jp/BOOK/468.pdf <br>
 
D.Kouznetov. [[Superfunctions]]. [[Lambert Academic Publishing]], 2020.
 
D.Kouznetov. [[Superfunctions]]. [[Lambert Academic Publishing]], 2020.
  +
</ref>:
  +
  +
Approximation of the shape of the sledge runner by
  +
<ref>
  +
http://en.wikipedia.org/wiki/File:Boy_on_snow_sled,_1945.jpg Father of JGKlein. Boy on snow sled, 1945.
 
</ref>
 
</ref>
  +
with the hundredth iteration of [[sin]]
  +
<ref>http://mizugadro.mydns.jp/PAPERS/2014susin.pdf Dmitrii Kouznetsov. Super sin. December 17, 2013. Iterates of function sin are considered. The superfunction SuSin is constructed as holomorphic solution of the transfer equation sin(SuSin(z))=SuSin(z+1). The Abel function AuSin is constructed as solution of the Abel equation AuSin(sin(z))=AuSin(z)+1; in wide range of values z, the rela- tion SuSin(AuSin(z))=z holds. Iteration of sin is expressed with sinˆn(z)=SuSin(n+AuSin(z)), where the number n of iteration has no need to be integer. ..
  +
</ref>;
   
  +
\(
[[Iterate]]s of function [[sin]] of real argument, [[explicit plot]]
 
  +
y=\sin^n(\pi/2)-\sin^n(x)\)
   
  +
with single adjusting parameter \(n\!=\!100\).
\(y=\sin^n(x)=\mathrm{SuSin}\big(n+\mathrm{AuSin}(x)\big)\)
 
  +
Super sin and the Abel sin functions, id est, [[SuSin]] and [[AuSin]], can be used to evaluate the iteration of [[sin]];
  +
then, the number \(n\) of iterate has no need to be integer.
   
  +
This is improved version of image http://mizugadro.mydns.jp/t/index.php/File:Boyt.jpg
for various real values of number \(n\) of iterate.
 
  +
the resolution of the image of the sledge is better, and the file is half shorter.
   
  +
==C++ generator of curve==
For the evaluation at non-integer \(n\), the representation through the superfunction [[SuSin]] and the Abel function [[AuSin]] are used.
 
  +
// Files [[ado.cin]], [[arcsin.cin]], [[susin.cin]], [[ausin.cin]], should be loaded in order to compile the code below.
 
  +
//<pre>
Example:
 
 
\(\sin^{1/2}(\pi/2)\approx 1.140179476170028\)
 
 
\(\sin^{1/2}(1.140179476170028) \approx 1.000000000000003\approx 1\)
 
 
This figure is almost the same as
 
http://mizugadro.mydns.jp/t/index.php/File:Sinplo1t100.jpg
 
, but the thin curves are made a little bit thicker,
 
to make them seen at the poor resolution of the screen.
 
 
==[[C++]] generator of curves==
 
/* Files
 
[[ado.cin]],
 
[[arcsin.cin]],
 
[[susin.cin]],
 
[[ausin.cin]]
 
should be loaded in order to compile the code below.*/
 
<pre>
 
 
#include <math.h>
 
#include <math.h>
 
#include <stdio.h>
 
#include <stdio.h>
Line 52: Line 45:
 
#include "susin.cin"
 
#include "susin.cin"
 
#include "ausin.cin"
 
#include "ausin.cin"
  +
  +
DB sinni(int n, DB x){ DB s=x; int m; DO(m,n)s=sin(s); return s;}
  +
  +
z_type sinn(z_type n, z_type z){return susin(n+ausin(z));}
  +
 
int main(){ int j,k,m,n; DB x,y, p,q, t; z_type z,c,d;
 
int main(){ int j,k,m,n; DB x,y, p,q, t; z_type z,c,d;
   
FILE *o;o=fopen("sinplo2.eps","w"); ado(o,318,160);
+
FILE *o;o=fopen("boy.eps","w"); ado(o,318,30);
 
#define M(x,y) {fprintf(o,"%6.4f %6.4f M\n",0.+x,0.+y);}
 
#define M(x,y) {fprintf(o,"%6.4f %6.4f M\n",0.+x,0.+y);}
 
#define L(x,y) {fprintf(o,"%6.4f %6.4f L\n",0.+x,0.+y);}
 
#define L(x,y) {fprintf(o,"%6.4f %6.4f L\n",0.+x,0.+y);}
Line 60: Line 58:
 
fprintf(o,"1 1 translate\n 100 100 scale\n");
 
fprintf(o,"1 1 translate\n 100 100 scale\n");
 
fprintf(o,"1 setlinejoin 2 setlinecap\n");
 
fprintf(o,"1 setlinejoin 2 setlinecap\n");
for(m=0;m<4;m++){M(m,0) L(m,M_PI/2.) }
+
for(m=0;m<4;m++){M(m,0) L(m,.2) }
for(n=0;n<2;n++){M( 0,n) L(M_PI,n)}
+
for(n=0;n<3;n++){M( 0,.1*n) L(M_PI,.1*n)}
 
fprintf(o,".004 W 0 0 0 RGB S\n");
 
fprintf(o,".004 W 0 0 0 RGB S\n");
M(M_PI/2.,0); L(M_PI/2.,M_PI/2)
+
M(M_PI/2.,0); L(M_PI/2.,.2)
M(M_PI,0); L(M_PI,M_PI/2)
+
M(M_PI,0); L(M_PI,.2)
  +
fprintf(o,".003 W 0 0 0 RGB S\n");
M(0,M_PI/2.); L(M_PI,M_PI/2)
 
fprintf(o,".001 W 0 0 0 RGB S\n");
 
M(0,0) L(M_PI/2.,M_PI/2.)
 
fprintf(o,".007 W 0 1 1 RGB S\n");
 
M(0,0) L(M_PI/2., M_PI/2.) L(M_PI,0)
 
fprintf(o,".001 W 0 0 0 RGB S\n");
 
   
  +
n=100;
fprintf(o,"1 setlinejoin 1 setlinecap\n");
 
  +
p=sinni(100,M_PI/2);
   
  +
M(0,p) DO(m,315){x=.01*(m+.1);y=sin(x); y=p-sinni(100,x); L(x,y); } fprintf(o,".01 W 0 1 0 RGB S\n");
 
M(0,0) DO(m,158){x=.01*(m+.1);y=sin(x); L(y,x); } fprintf(o,".009 W 0 1 1 RGB S\n");
 
M(0,0) DO(m,158){x=.01*(m+.1);y=sin(sin(x)); L(y,x); } fprintf(o,".009 W 0 1 1 RGB S\n");
 
M(0,0) DO(m,158){x=.01*(m+.1);y=sin(sin(sin(x))); L(y,x); } fprintf(o,".006 W 0 0 1 RGB S\n");
 
M(0,0) DO(m,158){x=.01*(m+.1);y=sin(sin(sin(sin(x)))); L(y,x); } fprintf(o,".006 W 0 0 1 RGB S\n");
 
M(0,0) DO(m,158){x=.01*(m+.1);y=sin(sin(sin(sin(sin(x)))));L(y,x); } fprintf(o,".006 W 0 0 1 RGB S\n");
 
M(0,0) DO(m,158){x=.01*(m+.1);y=sin(x); DO(n, 10)y=sin(y); L(y,x); } fprintf(o,".006 W 0 0 1 RGB S\n");
 
M(0,0) DO(m,158){x=.01*(m+.1);y=sin(x); DO(n, 20)y=sin(y); L(y,x); } fprintf(o,".006 W 0 0 1 RGB S\n");
 
M(0,0) DO(m,158){x=.01*(m+.1);y=sin(x); DO(n,100)y=sin(y); L(y,x); } fprintf(o,".006 W 0 0 1 RGB S\n");
 
 
M(0,0) DO(m,315){x=.01*(m+.1);y=sin(x); L(x,y); } fprintf(o,".009 W 0 1 1 RGB S\n");
 
M(0,0) DO(m,315){x=.01*(m+.1);y=sin(sin(x)); L(x,y); } fprintf(o,".009 W 0 1 1 RGB S\n");
 
M(0,0) DO(m,315){x=.01*(m+.1);y=sin(sin(sin(x))); L(x,y); } fprintf(o,".006 W 0 0 1 RGB S\n");
 
M(0,0) DO(m,315){x=.01*(m+.1);y=sin(sin(sin(sin(x)))); L(x,y); } fprintf(o,".006 W 0 0 1 RGB S\n");
 
M(0,0) DO(m,315){x=.01*(m+.1);y=sin(sin(sin(sin(sin(x)))));L(x,y); } fprintf(o,".006 W 0 0 1 RGB S\n");
 
M(0,0) DO(m,315){x=.01*(m+.1);y=sin(x); DO(n, 10)y=sin(y); L(x,y); } fprintf(o,".006 W 0 0 1 RGB S\n");
 
M(0,0) DO(m,315){x=.01*(m+.1);y=sin(x); DO(n, 20)y=sin(y); L(x,y); } fprintf(o,".006 W 0 0 1 RGB S\n");
 
M(0,0) DO(m,315){x=.01*(m+.1);y=sin(x); DO(n,100)y=sin(y); L(x,y); } fprintf(o,".006 W 0 0 1 RGB S\n");
 
 
for(n=1;n<21;n++){
 
M(0,0) DO(m,158){ x=.01*(m+.1); z=x; c=ausin(z); c=susin(.1*n+c); y=Re(c);
 
if(abs(Im(c))>1.e-9) break; if(y>-1. && y<4.) L(y,x) else break; }
 
fprintf(o,".003 W 0 0 0 RGB S\n");
 
}
 
 
for(n=1;n<21;n++){
 
M(0,0) DO(m,315){ x=.01*(m+.1); z=x; c=ausin(z); c=susin(.1*n+c); y=Re(c);
 
if(abs(Im(c))>1.e-9) break; if(y>-1. && y<4.) L(x,y) else break; }
 
fprintf(o,".003 W 0 0 0 RGB S\n");
 
}
 
   
 
fprintf(o,"showpage\n");
 
fprintf(o,"showpage\n");
 
fprintf(o,"%c%cTrailer\n",'%','%');
 
fprintf(o,"%c%cTrailer\n",'%','%');
 
fclose(o);
 
fclose(o);
system("epstopdf sinplo2.eps");
+
system("epstopdf boy.eps");
system( "open sinplo2.pdf"); //for macintosh
+
system( "open boy.pdf"); //for macintosh
 
getchar(); system("killall Preview"); // For macintosh
 
getchar(); system("killall Preview"); // For macintosh
 
}
 
}
  +
</pre>
  +
  +
==Latex generator of labels==
  +
File http://en.wikipedia.org/wiki/File:Boy_on_snow_sled,_1945.jpg should be loaded to the working directory in order to compile the [[Latex]] document below]]
   
</pre>
 
==[[Latex]] generator of labels==
 
 
<pre>
 
<pre>
 
\documentclass[12pt]{article}
 
\documentclass[12pt]{article}
Line 120: Line 87:
 
\usepackage{graphics}
 
\usepackage{graphics}
 
\usepackage{rotating}
 
\usepackage{rotating}
  +
\usepackage{color}
\paperwidth 3230pt
 
  +
%\paperwidth 3230pt
\paperheight 1700pt
 
  +
%\paperheight 1700pt
  +
\paperwidth 2510pt
  +
\paperheight 1190pt
 
\topmargin -100pt
 
\topmargin -100pt
\oddsidemargin -72pt
+
\oddsidemargin -92pt
 
\textwidth 3200pt
 
\textwidth 3200pt
 
\textheight 1700pt
 
\textheight 1700pt
Line 131: Line 101:
 
\pagestyle{empty}
 
\pagestyle{empty}
 
\begin{document}
 
\begin{document}
  +
\parindent 0pt
\sx{10}{\begin{picture}(328,168)
 
  +
%\sx{10}{\begin{picture}(248,120)
\put(4,9){\includegraphics{sinplo2}}
 
  +
\sx{10}{\begin{picture}(285,136)
\put(-1.6,162){\sx{1.}{$y$}}
 
\put(-1.6,106){\sx{1.}{$1$}}
+
%\put(4,9){\includegraphics{sinplo1}}
\put(-1.6, 06){\sx{1.}{$0$}}
+
\put(0,15.9){\sx{1.76}{\rot{1}\includegraphics{Boy_on_snow_sled,_1945}\ero}}
  +
%\put(-16,0){\rot{1}\sx{.14}{\includegraphics{boy05}}\ero}
  +
%\put(0,0){\color{red} \rule{10pt}{100pt}}
  +
%\put(0,0){\rot{1}\color{magenta} \rule{15pt}{132pt}\ero}
  +
%\put(10,10){\rot{1}\color{yellow} \rule{215pt}{18pt}\ero}
  +
%\put(210,0){\rot{1}\color{red} \rule{215pt}{138pt}\ero}
  +
\put(.5,0){\rot{1}\color{white} \rule{5pt}{152pt}\ero}
  +
\put(0,6){\rot{1}\color{white} \rule{225pt}{18pt}\ero}
  +
\put(222,0){\rot{1}\color{white} \rule{215pt}{148pt}\ero}
  +
%\put(14,9){\includegraphics{boy}}
  +
\put(36,29){\includegraphics{boy}} % Curves by C++
  +
%\put(3,28){\sx{1.}{$y$}}
  +
\put(25,48){\sx{1.}{$y$}}
  +
\put(22,36){\sx{1.}{$0.1$}}
  +
\put(22, 26){\sx{1.}{$0$}}
 
%\put(-7, 06){\sx{1.2}{$-2$}}
 
%\put(-7, 06){\sx{1.2}{$-2$}}
\put(3,0){\sx{1.}{$0$}}
+
\put(35,20){\sx{1.}{$0$}}
\put(103,0){\sx{1.}{$1$}}
+
\put(135,20){\sx{1.}{$1$}}
\put(153,0){\sx{1.}{$\pi/2$}}
+
\put(185,19){\sx{1.}{$\pi/2$}}
\put(203,0){\sx{1.}{$2$}}
+
\put(235,20){\sx{1.}{$2$}}
\put(303,0){\sx{1.}{$3$}}
+
%\put(313,0){\sx{1.}{$3$}}
\put(315,0){\sx{1.}{$x$}}
+
\put(246,20){\sx{1.}{$x$}}
\put(24.6,115){\sx{.8}{\rot{89}$n\!=\!-100$\ero}}
 
\put(42.6,115){\sx{.8}{\rot{89}$n\!=\!-20$\ero}}
 
\put(53,115){\sx{.8}{\rot{87}$n\!=\!-10$\ero}}
 
\put(67,115){\sx{.8}{\rot{85}$n\!= -5$\ero}}
 
%\put(70,115){\sx{.8}{\rot{82}$n\!=\!-4$\ero}}
 
\put(77,115){\sx{.8}{\rot{82}$n\!=\!-3$\ero}}
 
\put(84.3,115){\sx{.8}{\rot{79}$n\!=\!-2$\ero}}
 
\put(94,112){\sx{.8}{\rot{68}$n\!=\!-1$\ero}}
 
\put(123.4,134){\sx{.8}{\rot{63}$n\!=\! -0.2$\ero}}
 
\put(146,147){\sx{.9}{\rot{45}$n\!=\!0$\ero}}
 
\put(142,140){\sx{.8}{\rot{10}$n\!= 0.1$\ero}}
 
\put(140,131.6){\sx{.8}{\rot{10}$n\!= 0.2$\ero}}
 
\put(139,122){\sx{.8}{\rot{9}$n\!= 0.4$\ero}}
 
\put(110,95){\sx{.8}{\rot{21}$n\!= 1$\ero}}
 
\put(110,84.3){\sx{.8}{\rot{13}$n\!= 2$\ero}}
 
\put(110,77.3){\sx{.8}{\rot{8}$n\!= 3$\ero}}
 
%\put(110,72){\sx{.8}{\rot{6}$n\!= 4$\ero}}
 
\put(110,67){\sx{.8}{\rot{6}$n\!= 5$\ero}}
 
\put(110,53){\sx{.8}{$n\!=\! 10$}}
 
\put(110,42.3){\sx{.8}{$n\!= 20$}}
 
\put(110,24.3){\sx{.8}{$n\!=\!100$}}
 
 
\end{picture}}
 
\end{picture}}
 
\end{document}
 
\end{document}
 
</pre>
 
</pre>
  +
==References==
  +
{{ref}}
  +
  +
{{fer}}
  +
 
==Keywords==
 
==Keywords==
«[[Abel function]]»,
+
«[[]]»,
«[[Abelfunction]]»,
+
«[[AuSin]]»,
<b>«[[Iteration]]»</b>,
+
«[[Iterate]]»,
<b>«[[Sin]]»</b>,
+
«[[Sin]]»,
<b>«[[SuSin]]»</b>,
 
«[[Superfunction]]»,
 
 
«[[Superfunctions]]»,
 
«[[Superfunctions]]»,
  +
«[[SuSun]]»,
 
  +
«[[Wikimedia]]»,
 
«[[Суперфункции]]»,
 
«[[Суперфункции]]»,
   
==References==
 
{{ref}}
 
{{fer}}
 
 
[[Category:Abel function]]
 
[[Category:Abelfunction]]
 
[[Category:AuSin]]
 
 
[[Category:Book]]
 
[[Category:Book]]
 
[[Category:BookPlot]]
 
[[Category:BookPlot]]
  +
[[Category:Explicit plot]]
 
[[Category:C++]]
 
[[Category:C++]]
[[Category:Explicit plot]]
 
 
[[Category:Iterate]]
 
[[Category:Iterate]]
 
[[Category:Latex]]
 
[[Category:Latex]]
[[Category:Super sin]]
+
[[Category:Snow]]
  +
[[Category:Sled]]
 
[[Category:Sin]]
 
[[Category:Sin]]
 
[[Category:SuSin]]
 
[[Category:SuSin]]
[[Category:Super sin]]
+
[[Category:Superfunctiins]]
[[Category:Superfunction]]
+
[[Category:Wikipedia]]

Revision as of 00:40, 3 December 2025


Figure 12.7 from page 158 of book Superfunctions[1]:

Approximation of the shape of the sledge runner by [2] with the hundredth iteration of sin [3];

\( y=\sin^n(\pi/2)-\sin^n(x)\)

with single adjusting parameter \(n\!=\!100\). Super sin and the Abel sin functions, id est, SuSin and AuSin, can be used to evaluate the iteration of sin; then, the number \(n\) of iterate has no need to be integer.

This is improved version of image http://mizugadro.mydns.jp/t/index.php/File:Boyt.jpg the resolution of the image of the sledge is better, and the file is half shorter.

C++ generator of curve

// Files ado.cin, arcsin.cin, susin.cin, ausin.cin, should be loaded in order to compile the code below.

//
#include <math.h>
#include <stdio.h>
#include <stdlib.h>
#define DB double
#define DO(x,y) for(x=0;x<y;x++)
using namespace std;
#include<complex>
typedef complex<double> z_type;
#define Re(x) x.real()
#define Im(x) x.imag()
#define I z_type(0.,1.)

#include "ado.cin"
#include "arcsin.cin"
#include "susin.cin"
#include "ausin.cin"

DB sinni(int n, DB x){ DB s=x; int m; DO(m,n)s=sin(s); return s;}

z_type sinn(z_type n, z_type z){return susin(n+ausin(z));}

int main(){ int j,k,m,n; DB x,y, p,q, t; z_type z,c,d;

FILE *o;o=fopen("boy.eps","w"); ado(o,318,30);
#define M(x,y) {fprintf(o,"%6.4f %6.4f M\n",0.+x,0.+y);}
#define L(x,y) {fprintf(o,"%6.4f %6.4f L\n",0.+x,0.+y);}

fprintf(o,"1 1 translate\n 100 100 scale\n");
fprintf(o,"1 setlinejoin 2 setlinecap\n");
for(m=0;m<4;m++){M(m,0) L(m,.2) }
for(n=0;n<3;n++){M( 0,.1*n) L(M_PI,.1*n)}
fprintf(o,".004 W 0 0 0 RGB S\n");
M(M_PI/2.,0); L(M_PI/2.,.2)
M(M_PI,0); L(M_PI,.2)
fprintf(o,".003 W 0 0 0 RGB S\n");

n=100;
p=sinni(100,M_PI/2);

M(0,p) DO(m,315){x=.01*(m+.1);y=sin(x); y=p-sinni(100,x); L(x,y); } fprintf(o,".01 W 0 1 0 RGB S\n");

fprintf(o,"showpage\n");
fprintf(o,"%c%cTrailer\n",'%','%');
fclose(o);
      system("epstopdf boy.eps"); 
      system(    "open boy.pdf"); //for macintosh
      getchar(); system("killall Preview"); // For macintosh
}

Latex generator of labels

File http://en.wikipedia.org/wiki/File:Boy_on_snow_sled,_1945.jpg should be loaded to the working directory in order to compile the Latex document below]]

\documentclass[12pt]{article}
\usepackage{geometry}
\usepackage{graphics}
\usepackage{rotating}
\usepackage{color}
%\paperwidth 3230pt 
%\paperheight 1700pt
\paperwidth 2510pt 
\paperheight 1190pt
\topmargin -100pt
\oddsidemargin -92pt
\textwidth 3200pt
\textheight 1700pt
\newcommand \sx {\scalebox}
\newcommand \rot {\begin{rotate}}
\newcommand \ero {\end{rotate}}
\pagestyle{empty}
\begin{document}
\parindent 0pt
%\sx{10}{\begin{picture}(248,120)
\sx{10}{\begin{picture}(285,136)
%\put(4,9){\includegraphics{sinplo1}}
\put(0,15.9){\sx{1.76}{\rot{1}\includegraphics{Boy_on_snow_sled,_1945}\ero}}
%\put(-16,0){\rot{1}\sx{.14}{\includegraphics{boy05}}\ero}
%\put(0,0){\color{red} \rule{10pt}{100pt}}
%\put(0,0){\rot{1}\color{magenta} \rule{15pt}{132pt}\ero}
%\put(10,10){\rot{1}\color{yellow} \rule{215pt}{18pt}\ero}
%\put(210,0){\rot{1}\color{red} \rule{215pt}{138pt}\ero}
\put(.5,0){\rot{1}\color{white} \rule{5pt}{152pt}\ero}
\put(0,6){\rot{1}\color{white} \rule{225pt}{18pt}\ero}
\put(222,0){\rot{1}\color{white} \rule{215pt}{148pt}\ero}
%\put(14,9){\includegraphics{boy}}
\put(36,29){\includegraphics{boy}} % Curves by C++
%\put(3,28){\sx{1.}{$y$}}
\put(25,48){\sx{1.}{$y$}}
\put(22,36){\sx{1.}{$0.1$}}
\put(22, 26){\sx{1.}{$0$}}
%\put(-7, 06){\sx{1.2}{$-2$}}
\put(35,20){\sx{1.}{$0$}}
\put(135,20){\sx{1.}{$1$}}
\put(185,19){\sx{1.}{$\pi/2$}}
\put(235,20){\sx{1.}{$2$}}
%\put(313,0){\sx{1.}{$3$}}
\put(246,20){\sx{1.}{$x$}}
\end{picture}}
\end{document}

References

  1. https://www.amazon.co.jp/-/en/Dmitrii-Kouznetsov/dp/6202672862
    https://www.morebooks.de/shop-ui/shop/product/978-620-2-67286-3
    https://mizugadro.mydns.jp/BOOK/468.pdf
    D.Kouznetov. Superfunctions. Lambert Academic Publishing, 2020.
  2. http://en.wikipedia.org/wiki/File:Boy_on_snow_sled,_1945.jpg Father of JGKlein. Boy on snow sled, 1945.
  3. http://mizugadro.mydns.jp/PAPERS/2014susin.pdf Dmitrii Kouznetsov. Super sin. December 17, 2013. Iterates of function sin are considered. The superfunction SuSin is constructed as holomorphic solution of the transfer equation sin(SuSin(z))=SuSin(z+1). The Abel function AuSin is constructed as solution of the Abel equation AuSin(sin(z))=AuSin(z)+1; in wide range of values z, the rela- tion SuSin(AuSin(z))=z holds. Iteration of sin is expressed with sinˆn(z)=SuSin(n+AuSin(z)), where the number n of iteration has no need to be integer. ..

Keywords

«[[]]», «AuSin», «Iterate», «Sin», «Superfunctions», «SuSun», «Wikimedia», «Суперфункции»,

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