mfpic4ode move .tex to runtime (luecking 08 Oct 2009 13:51:19)

git-svn-id: svn://tug.org/texlive/trunk@15692 c570f23f-e606-0410-a88d-b1316a301751

1 files changed, 0 insertions, 207 deletions

diff --git a/Master/texmf-dist/doc/latex/mfpic4ode/mfpic4ode.tex b/Master/texmf-dist/doc/latex/mfpic4ode/mfpic4ode.tex
deleted file mode 100644
index a20dcb81c35..00000000000
--- a/Master/texmf-dist/doc/latex/mfpic4ode/mfpic4ode.tex
+++ /dev/null
@@ -1,207 +0,0 @@
-%%
-%% This is file `mfpic4ode.tex',
-%% generated with the docstrip utility.
-%%
-%% The original source files were:
-%%
-%% mfpic4ode.dtx  (with options: `tex')
-%% 
-%% This is a generated file.
-%% 
-%% Copyright (C) 2007 by Robert Marik <marik@mendelu.cz>
-%% 
-%% This file may be distributed and/or modified under the conditions of
-%% the LaTeX Project Public License, either version 1.2 of this license
-%% or (at your option) any later version.  The latest version of this
-%% license is in:
-%% 
-%%    http://www.latex-project.org/lppl.txt
-%% 
-%% and version 1.2 or later is part of all distributions of LaTeX version
-%% 1999/12/01 or later.
-%% 
-\catcode`\@=11
-
-\newif\ifcolorODEarrow
-%%%\colorODEarrowfalse
-\colorODEarrowtrue
-
-%%% The line from one point to another
-\def\ODEline#1#2{\lines{#1,#2}}
-
-%%% The variable ODErhs is used to store the function from the right
-%%% hand side of ODE in the form y'=f(x,y). We use command
-%%% ODEdefineequation to set up this variable.
-\def\ODEdefineequation#1{\fdef{ODErhs}{x,y}{#1}}
-
-%%% Integral curve using Euler method. The step of this method is
-%%% ODEstep and the number of steps is ODEstepcount. The points are
-%%% stored in metapost variables x1,y1.
-\def\trajectory#1#2{
-  \begin{connect}
-    \mfsrc{x1:=#1;y1:=#2;
-      for i=1 upto ODEstepcount:
-      x2:=x1+ODEstep;
-      y2:=y1+ODEstep*ODErhs(x1,y1);}
-    \ODEline{z1}{z2}
-    \mfsrc{
-      if ((y2>yneg) and (y2<ypos)): x1:=x2; y1:=y2 fi;
-      endfor
-    }
-  \end{connect}
-}
-
-%%% Integral curve using Runge--Kutta method.
-\def\trajectoryRK#1#2{
-  \begin{connect}
-    \mfsrc{x1:=#1;y1:=#2;
-      for i=1 upto ODEstepcount:
-      k1:=ODErhs(x1,y1);
-      x3:=x1+(ODEstep/2);
-      y3:=y1+k1*(ODEstep/2);
-      k2:=ODErhs(x3,y3);
-      x2:=x1+ODEstep;
-      y2:=y1+ODEstep*k2;}
-    \ODEline{z1}{z2}
-    \mfsrc{
-      if ((y2>yneg) and (y2<ypos)): x1:=x2; y1:=y2 fi;
-      endfor
-    }
-  \end{connect}
-}
-%%% Integral curve using fourth order Runge--Kutta method.
-\def\trajectoryRKF#1#2{
-  \begin{connect}
-    \mfsrc{x1:=#1;y1:=#2;
-      for i=1 upto ODEstepcount:
-      k1:=ODErhs(x1,y1);
-      x3:=x1+(ODEstep/2);
-      y3:=y1+k1*(ODEstep/2);
-      k2:=ODErhs(x3,y3);
-      y4:=y1+k2*(ODEstep/2);
-      k3:=ODErhs(x3,y4);
-      y5:=y1+k3*(ODEstep/2);
-      k4:=ODErhs(x3,y5);
-      kk:=(k1+2*k2+2*k3+k4)/6;
-      x2:=x1+ODEstep;
-      y2:=y1+ODEstep*kk;}
-    \ODEline{z1}{z2}
-    \mfsrc{
-      if ((y2>yneg) and (y2<ypos)): x1:=x2; y1:=y2 fi;
-      endfor
-    }
-  \end{connect}
-}
-\def\ODEarrow#1#2{
-  \mfsrc{x1:=#1; y1:=#2;
-    x3:=x1+(ODEarrowlength)/((xscale)++(ODErhs(#1,#2)*yscale));
-    y3:=y1+(ODEarrowlength*ODErhs(#1,#2))/((xscale)++(ODErhs(#1,#2)*yscale));
-    if y3>y1:ODEcolorarrow:=blue else: ODEcolorarrow:=red fi;
-  }
-  \ifcolorODEarrow
-    \drawcolor{ODEcolorarrow} \headcolor{ODEcolorarrow}
-  \fi
-  \draw\arrow\lines{z1,z3}
-}
-
-\def\ODEarrows#1{\ODE@cycle@points#1;,;}
-\def\trajectories#1{\ODE@cycle@IC#1;,;}
-\def\ODE@last@point{}
-\def\ODE@cycle@points#1,#2;{\def\temp{#1}\ifx\temp\ODE@last@point\let\next\relax
-  \else\ODEarrow{#1}{#2}\relax\let\next\ODE@cycle@points\fi\next}
-\def\ODE@cycle@IC#1,#2;{\def\temp{#1}\ifx\temp\ODE@last@point\let\next\relax
-  \else
-  \trajectoryRKF{#1}{#2}\relax\let\next\ODE@cycle@IC\fi\next}
-\mfsrc{path p,q;color ODEcolorarrow;}
-
-%%% Onedimensional autonomous systems y'=f(y) where  '=d/dx
-\def\ODEharrow#1{
-  \mfsrc{x1:=#1;
-    if ODErhs(0,x1)>0: x3:=x1+ODEarrowlength else: x3:=x1-ODEarrowlength fi;
-    if ODErhs(0,x1)*ODErhs(0,x3)<0: x1:=-100;x3:=-100 fi;
-    if x3>x1:ODEcolorarrow:=blue else: ODEcolorarrow:=red fi;
-  }
-  \ifcolorODEarrow \drawcolor{ODEcolorarrow}
-  \headcolor{ODEcolorarrow} \fi
-  \pen{1.5pt}
-  \draw\arrow\lines{(x1,0),(x3,0)}
-}
-
-\def\ODEvarrow#1{
-  \mfsrc{x1:=#1;
-    if ODErhs(0,#1)>0:
-    x3:=x1+(ODEarrowlength/yscale) else: x3:=x1-(ODEarrowlength/yscale) fi;
-    if ODErhs(0,x1)*ODErhs(0,x3)<0: x1:=-100;x3:=-100 fi;
-    if x3>x1:ODEcolorarrow:=blue else: ODEcolorarrow:=red fi;
-  }
-  \ifcolorODEarrow \drawcolor{ODEcolorarrow}
-  \headcolor{ODEcolorarrow} \fi
-  \pen{1.5pt}
-  \draw\arrow\lines{(0,x1),(0,x3)}
-}
-
-%%% Twodimensional autonomous systems  x'=f(x,y), y'=g(x,y) where '=d/dt
-\def\ASdefineequations#1#2{\fdef{ASf}{x,y}{#1}\fdef{ASg}{x,y}{#2}}
-
-\def\AStrajectory#1#2{
-  \begin{connect}
-    \mfsrc{x1:=#1;y1:=#2;
-      for i=1 upto ODEstepcount:
-      x2:=x1+ODEstep*ASf(x1,y1);
-      y2:=y1+ODEstep*ASg(x1,y1);}
-    \ODEline{z1}{z2}
-    \mfsrc{
-      if ((y2>yneg) and (y2<ypos)): x1:=x2; y1:=y2 fi;
-      endfor
-    }
-  \end{connect}
-}
-\def\ASarrow#1#2{
-  \mfsrc{x1:=#1; y1:=#2;
-    x3:=x1+(ODEarrowlength*ASf(#1,#2))/((ASf(#1,#2)*xscale)++(ASg(#1,#2)*yscale    ));
-    y3:=y1+(ODEarrowlength*ASg(#1,#2))/((ASf(#1,#2)*xscale)++(ASg(#1,#2)*yscale    ));
-    if y3>y1:ODEcolorarrow:=blue else: ODEcolorarrow:=red fi;
-  }
-  \ifcolorODEarrow
-  \drawcolor{ODEcolorarrow} \headcolor{ODEcolorarrow}
-  \fi
-  \draw\arrow\lines{z1,z3}
-}
-
-\def\ASarrows#1{\AS@cycle@points#1;,;}
-\def\AS@cycle@points#1,#2;{\def\temp{#1}\ifx\temp\ODE@last@point\let\next\relax
-  \else\ASarrow{#1}{#2}\relax\let\next\AS@cycle@points\fi\next}
-\def\AStrajectories#1{\AS@cycle@IC#1;,;}
-\def\AS@cycle@IC#1,#2;{\def\temp{#1}\ifx\temp\ODE@last@point\let\next\relax
-  \else
-  \AStrajectoryRKF{#1}{#2}\relax\let\next\AS@cycle@IC\fi\next}
-\def\AStrajectoryRKF#1#2{
-  \begin{connect}
-    \mfsrc{x1:=#1;y1:=#2;
-      TIMEsteps:=abs(TIMEend/TIMEstep);
-      TIME:=0;
-      for i=1 upto TIMEsteps:
-      k1:=ASf(x1,y1);
-      l1:=ASg(x1,y1);
-      k2:=ASf(x1+(TIMEstep*k1/2),y1+(TIMEstep*l1/2));
-      l2:=ASg(x1+(TIMEstep*k1/2),y1+(TIMEstep*l1/2));
-      k3:=ASf(x1+(TIMEstep*k2/2),y1+(TIMEstep*l2/2));
-      l3:=ASg(x1+(TIMEstep*k2/2),y1+(TIMEstep*l2/2));
-      k4:=ASf(x1+(TIMEstep*k3),y1+(TIMEstep*l3));
-      l4:=ASg(x1+(TIMEstep*k3),y1+(TIMEstep*l3));
-      k5:=((k1)/6)+((k2)/3)+((k3)/3)+((k4)/6);
-      l5:=(l1/6)+(l2/3)+(l3/3)+(l4/6);
-      x2:=x1+(TIMEstep*k5);
-      y2:=y1+(TIMEstep*l5);}
-    \ODEline{z1}{z2}
-    \mfsrc{
-      if ((y2>yneg) and (y2<ypos) and (x2<xpos) and (x2>xneg)): x1:=x2; y1:=y2 fi;
-      endfor
-    }
-  \end{connect}
-}
-
-\catcode`\@12\relax
-\endinput
-%%
-%% End of file `mfpic4ode.tex'.