animate (29nov18)

git-svn-id: svn://tug.org/texlive/trunk@49273 c570f23f-e606-0410-a88d-b1316a301751

4 files changed, 25 insertions, 251 deletions

diff --git a/Master/texmf-dist/source/latex/animate/animate.tex b/Master/texmf-dist/source/latex/animate/animate.tex
index 786bc1a2989..f3c272d1c03 100644
--- a/Master/texmf-dist/source/latex/animate/animate.tex
+++ b/Master/texmf-dist/source/latex/animate/animate.tex
@@ -107,11 +107,13 @@
 \section{Introduction}
 This package provides an interface for creating PDF and SVG files with animated content from sets of graphics or image files, from inline graphics, such as \LaTeX-picture, PSTricks or pgf/TikZ generated pictures, or just from typeset text. Unlike standard movie/video formats, package `animate' allows for animating vector graphics. The result is roughly similar to the SWF (Flash) format, although not as space-efficient.
 
-The user interacts with the animation through optional animation controls or using the mouse like so: Pressing the mouse button over the animation widget immediately pauses a playing animation and releasing it resumes playback. Pressing the shift-key at the same time reverses the playback direction. Keeping the mouse button pressed while moving the mouse pointer off the animation widget permanently pauses playback.
+Package `animate' supports the usual workflows for making PDF, i.\,e. pdf\LaTeX{}, Lua\LaTeX{}, \LaTeX{} $\rightarrow$ \verb+dvips+ $\rightarrow$ \verb+ps2pdf+/Distiller and \pXepLaTeX{} $\rightarrow$ \verb+(x)dvipdfmx+. For animated SVG, it supports the \verb+dvisvgm+ driver. The DVI/XDV used as input for \verb+dvisvgm+ can be generated with \LaTeX{}, Lua\LaTeX{} (in DVI mode) and \XeLaTeX.
+
+PDF files with animations can be viewed in Acrobat Reader (except on mobile devices), PDF-XChange and Foxit Reader. Animated SVG produced by means of \LaTeX{} and \verb+dvisvgm+ are self-contained files that can be embedded into HTML using the \verb+<object>+ tag or opened directly in a Web browser, such as Firefox or Chromium. 
 
-Package `animate' supports the usual workflows for making PDF, i.\,e. pdf\LaTeX{}, Lua\LaTeX{}, \LaTeX{} $\rightarrow$ \verb+dvips+ $\rightarrow$ \verb+ps2pdf+/Distiller and \pXepLaTeX{} $\rightarrow$ \verb+(x)dvipdfmx+, and \LaTeX{} $\rightarrow$ \verb+dvisvgm+ for SVG.
+The user interacts with the animation through optional animation controls or using the mouse like so: Pressing the mouse button over the animation widget immediately pauses a playing animation and releasing it resumes playback. Pressing the shift-key at the same time reverses the playback direction. Keeping the mouse button pressed while moving the mouse pointer off the animation widget permanently pauses playback.
 
-PDF files with animations can be viewed in Acrobat Reader (except on mobile devices), PDF-XChange and Foxit Reader. Animated SVG produced by means of \LaTeX{} and \verb+dvisvgm+ are self-contained files that can be embedded into HTML using the \verb+<object>+ tag or opened directly in a Web browser, such as Firefox or Chromium.
+On mobile devices, interaction with an animated SVG is similar to that on desktop devices, just using finger touches instead of mouse button press/release. To permanently pause an animation without the pause button, touch the animation with a second finger, then lift both fingers off.
 
 \section{Requirements}
 \begin{trivlist}
@@ -169,7 +171,7 @@ poster[=first | <num> | last | none]
 \end{verbatim}
 Except for `\verb+dvipdfmx+', `\verb+xetex+', `\verb+dvisvgm+' and `\verb+export+', the listed package options are also available (among others) as command options and will be explained shortly. However, if used as package options they have global scope, taking effect on all animations in the document. In turn, command options locally override global settings. Options without an argument are boolean options and can be negated, with the exception of package-only options `\verb+dvipdfmx+', `\verb+xetex+', `\verb+dvisvgm+ and `\verb+export+', by appending `\verb+=false+'.
 
-\begin{animateinline}[autoplay,loop,nomouse]{1}\strut\emph{Important:}\newframe[3]\end{animateinline} Option `\verb+-Ppdf+' should \emph{not} be used with \verb+dvips+ when converting DVI to Postscript. If you cannot do without, put `\verb+-D 1200+' \emph{after} `\verb+-Ppdf+' on the command line. Users of \LaTeX-aware text editors with menu-driven toolchain invocation, such as \TeX{}nicCenter, should check the configuration of the \verb+dvips+ call.
+\begin{animateinline}[autoplay,loop,nomouse]{1}\strut\emph{Important:}\newframe[3]\end{animateinline} Option `\verb+-Ppdf+' should \emph{not} be used with \verb+dvips+ when converting DVI to PostScript. If you cannot do without, put `\verb+-D 1200+' \emph{after} `\verb+-Ppdf+' on the command line. Users of \LaTeX-aware text editors with menu-driven toolchain invocation, such as \TeX{}nicCenter, should check the configuration of the \verb+dvips+ call.
 
 All workflows require the `graphicx' package to be loaded explicitly.
 
@@ -238,7 +240,7 @@ For example, given the sequence `frame\_5.png' through `frame\_50.png' from a po
   \animategraphics{12}{frame_}{5}{50}
 \end{verbatim}
 
-The possible file formats depend on the output driver being used. In the case of \LaTeX{} + \verb+dvips+, files with the `eps' extension are at first searched for, followed by `mps' (\MP-generated Postscript) and `ps'. With pdf\LaTeX{} and Lua\LaTeX{} the searching order is: (1)~`pdf', (2)~`mps', (3)~`png', (4)~`jpg', (5)~`jpeg', (6)~`jbig2', (7)~`jb2', (8)~`jp2'\footnotemark[1], (9)~`j2k'\footnotemark[1], (10)~`jpx'\footnotemark[1]\footnotetext[1]{Only Lua\LaTeX{} currently supports JPEG2000.}, with \XeLaTeX{} or \LaTeX{}+\verb+dvipdfmx+: (1)~`pdf', (2)~`mps', (3)~`eps', (4)~`ps', (5)~`png', (6)~`jpg', (7)~`jpeg', (8)~`bmp', and with \LaTeX{}+\verb+dvisvgm+: (1)~`eps', (2)~`ps', (3)~`svg', (4)~`png', (5)~`jpg', (6)~`jpeg'. That is, files capable of storing vector graphics are found first. Make sure that all file names have \emph{lower case} extensions.
+The possible file formats depend on the output driver being used. In the case of \LaTeX{} + \verb+dvips+, files with the `eps' extension are at first searched for, followed by `mps' (\MP-generated PostScript) and `ps'. With pdf\LaTeX{} and Lua\LaTeX{} the searching order is: (1)~`pdf', (2)~`mps', (3)~`png', (4)~`jpg', (5)~`jpeg', (6)~`jbig2', (7)~`jb2', (8)~`jp2'\footnotemark[1], (9)~`j2k'\footnotemark[1], (10)~`jpx'\footnotemark[1]\footnotetext[1]{Only Lua\LaTeX{} currently supports JPEG2000.}, with \XeLaTeX{} or \LaTeX{}+\verb+dvipdfmx+: (1)~`pdf', (2)~`mps', (3)~`eps', (4)~`ps', (5)~`png', (6)~`jpg', (7)~`jpeg', (8)~`bmp', and with \LaTeX{}+\verb+dvisvgm+: (1)~`eps', (2)~`ps', (3)~`mps', (4)~`svg', (5)~`png', (6)~`jpg', (7)~`jpeg'. That is, files capable of storing vector graphics are found first. Make sure that all file names have \emph{lower case} extensions.
 
 This searching procedure can be skipped thanks to the package and command option `\verb+type=<file ext>+'. It enforces the embedding of files with the given file name extension \verb+<file ext>+.
 
@@ -309,7 +311,7 @@ Scales the animation widget by \verb+<factor>+.
 \begin{verbatim}
 bb=<llx> <lly> <urx> <ury>
 \end{verbatim}
-(\verb+\animategraphics+ only.) The four, space separated arguments set the bounding box of the graphics files. Units can be omitted, in which case `bp' (Postscript points) is assumed.
+(\verb+\animategraphics+ only.) The four, space separated arguments set the bounding box of the graphics files. Units can be omitted, in which case `bp' (PostScript points) is assumed.
 \begin{verbatim}
 viewport=<llx> <lly> <urx> <ury>
 \end{verbatim}
@@ -1122,8 +1124,8 @@ dt dt Tm nT mul { % pop
 \psline(! -.1 \psk@oscmetronomed neg)(!0.1 \psk@oscmetronomed neg)\psline(! 0 \psk@oscmetronomed neg 0.1 sub)(!0 \psk@oscmetronomed neg 0.1 add)}
 \pnode(!0 \psk@oscmetronomex){C}% curseur
 \pnode(! 0 \psk@oscmetronomed neg){D}% disque
-\pstextpath[c](0,-2ex){\psarcn[linestyle=none](D){1}{180}{0}}{\small\textsf{\textbf{m e t r o n o m e}}}
-\pstextpath[c](0,1ex){\psarc[linestyle=none](D){1}{180}{0}}{\small\textsf{\textbf{P S t r i c k s}}}
+%\pstextpath[c](0,-2ex){\psarcn[linestyle=none](D){1}{180}{0}}{\small\textsf{\textbf{m e t r o n o m e}}}
+%\pstextpath[c](0,1ex){\psarc[linestyle=none](D){1}{180}{0}}{\small\textsf{\textbf{P S t r i c k s}}}
   \end@SpecialObj%
 \endgroup}
 \psmetronome%
@@ -1295,13 +1297,13 @@ dt dt Tm nT mul { % pop
 \end{lstlisting}
 
 \section{Producing animated SVG} 
-Thanks to Martin Gieseking's `\verb+dvisvgm+' utility~\cite{dvisvgm} that ships with all major \TeX{} distributions, package `animate' can produce self-contained animated SVG, with all the bits and pieces already included that are necessary to run in modern Web browsers as standalone files or as embedded objects within a Web page made of HTML. Animations have the same look and usability, including optional control buttons, as if they were embedded in a PDF document.
+Thanks to Martin Gieseking's `\verb+dvisvgm+' utility~\cite{dvisvgm} that ships with all major \TeX{} distributions, package `animate' can produce self-contained animated SVG, with all the bits and pieces already included that are necessary to run in modern Web browsers as standalone files or as embedded objects within a Web page made of HTML. Animations have the same look and usability, including optional control buttons, as if they were embedded in a PDF document. Animated SVG even work on mobile devices.
 
-Moreover, as `\verb+dvisvgm+' is linked against the Ghostscript library, it can parse and convert embedded Postscript to inline SVG code. It is therefore compatible with the popular TikZ and PSTricks \LaTeX{} packages.
+As `\verb+dvisvgm+' is linked against the Ghostscript library, it can parse and convert embedded PostScript to inline SVG code. It is therefore compatible with the popular TikZ and PSTricks \LaTeX{} packages.
  
-SVG is a one-page graphics format. Therefore, it is most useful to first produce DVI with a single animation per file or page. Then, `\verb+dvisvgm+' converts every page of the DVI input to a standalone SVG file. For a standalone animated SVG, use the `article' document class and pass `\verb+dvisvgm+' as a global option. In this way, it gets conveyed to  `animate' and other packages to be loaded, such as `graphicx' or TikZ. Note that the `standalone' document class is not required; `\verb+dvisvgm+' already computes the tightly enclosing bounding box around the page content by default.
+SVG is a one-page graphics format. Therefore, it is most useful to first produce DVI with a single animation per file or page. Then, `\verb+dvisvgm+' converts every page of the DVI input to a standalone animated SVG file. Use the `article' document class and pass `\verb+dvisvgm+' as a global option. In this way, it gets conveyed to `animate' and other packages to be loaded, such as `graphicx' or TikZ. Note that the `standalone' document class is not required; `\verb+dvisvgm+' already computes the tightly enclosing bounding box around the page content by default.
 
-The following code may serve as a template for generating standalone SVG:
+The following code may serve as a template for generating standalone animated SVG:
 \begin{lstlisting}
 \documentclass[12pt,dvisvgm]{article}
 
@@ -1330,7 +1332,7 @@ The following code may serve as a template for generating standalone SVG:
 \end{center}
 \end{document}
 \end{lstlisting}
-Note that when animating external graphics with \verb+\animategraphics+, only Postscript (EPS, PS) files are converted to inline SVG code; files in other formats (SVG, PNG, JPEG) remain external and must be bundled with the final SVG output. Unfortunately, the use of (E)PS with \verb+\animategraphics+ is limited to vector graphics. If such files contain bitmapped content they must be converted to PNG (or JPEG, if photographs). Of course, these files remain external to the final animated SVG.
+Note that when animating external graphics with \verb+\animategraphics+, only PostScript (EPS, PS, MPS) files are converted to inline SVG code; files in other formats (SVG, PNG, JPEG) remain external and must be bundled with the final SVG output. Also note that PostScript files must have the fonts embedded. This is not always the case for \MP-generated PostScript. Here, embedding of fonts is ensured putting `\verb+prologues := 3+' into the header of the \MP{} input. Unfortunately, animating PostScript files with \verb+\animategraphics+ is limited to vector graphics. If such files contain bitmapped content they must be converted to PNG (or JPEG, if photographs). Of course, these files remain external to the final animated SVG.
 
 Use one of
 \begin{verbatim}
@@ -1341,7 +1343,7 @@ xelatex -no-pdf
 \end{verbatim}
 to produce DVI or XDV output from the \LaTeX{} source. After this, SVG is obtained by running
 \begin{verbatim}
-dvisvgm --no-fonts -exact
+dvisvgm --no-fonts --exact
 \end{verbatim}
 on the intermediate DVI or XDV file. Option `\verb+--no-fonts+' prompts `\verb+dvisvgm+' to retrace font glyphs as graphical paths. It ensures that the text font looks as in normal PDF output. Option `\verb+--exact+' tells `\verb+dvisvgm+' to calculate exact bounding boxes around font glyphs. This avoids clipping of glyphs in the SVG output, as glyphs usually tend to be slightly bigger than their boxes defined in the font files. To convert multipage DVI/XDV with several animations, add option `\verb+-p1,-+'. By default, `\verb+dvisvgm+' processes only the very first page of the input file. As SVG derives from XML it is not known to be particularly economical in terms of file size. Compressed SVG, with file extension `\verb+svgz+', shortens download times and is supported by most Web browsers. It can be generated by adding option `\verb+-z+'.
 
diff --git a/Master/texmf-dist/source/latex/animate/files/exp.mp b/Master/texmf-dist/source/latex/animate/files/exp.mp
index 4c61c0a655a..85c5c429692 100644
--- a/Master/texmf-dist/source/latex/animate/files/exp.mp
+++ b/Master/texmf-dist/source/latex/animate/files/exp.mp
@@ -1,7 +1,10 @@
 % Jan Holecek, Alexander Grahn
-% 2017/02/27
+% 2018/11/29
+
+prologues:=3;
+outputtemplate := "%j_%c.mps";
+outputformat := "mps";
 
-filenametemplate "%j_%c.mps";
 verbatimtex
 \documentclass{article}
 \usepackage[latin1]{inputenc}
diff --git a/Master/texmf-dist/source/latex/animate/files/pstmetronome.tex b/Master/texmf-dist/source/latex/animate/files/pstmetronome.tex
deleted file mode 100644
index bb847e6f8b8..00000000000
--- a/Master/texmf-dist/source/latex/animate/files/pstmetronome.tex
+++ /dev/null
@@ -1,233 +0,0 @@
-%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
-% animated metronome
-% this code is based to 99.9 percent on the work by Manuel Luque
-% (pstricks.blogspot.com)
-%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
-\makeatletter
-\pst@addfams{pst-metronome}
-\define@key[psset]{pst-metronome}{theta0}{\def\psk@oscmetronomethetai{#1 }}
-\psset[pst-metronome]{theta0=45} % position initiale du metronome
-\define@key[psset]{pst-metronome}{M}{\def\psk@oscmetronometM{#1 }}
-\psset[pst-metronome]{M=25} % masse du disque en g
-\define@key[psset]{pst-metronome}{m}{\def\psk@oscmetronometm{#1 }}
-\psset[pst-metronome]{m=6} % masse du curseur en g
-\define@key[psset]{pst-metronome}{r}{\def\psk@oscmetronomer{#1 }}
-\psset[pst-metronome]{r=1} % rayon du disque en cm
-\define@key[psset]{pst-metronome}{x}{\def\psk@oscmetronomex{#1 }}
-\psset[pst-metronome]{x=8.4} % position du curseur en cm par rapport à l'axe
-\define@key[psset]{pst-metronome}{d}{\def\psk@oscmetronomed{#1 }}
-\psset[pst-metronome]{d=3.2} % distance de l'axe au centre du disque en cm
-\define@key[psset]{pst-metronome}{dt}{\def\psk@oscmetronomedt{#1 }}
-\psset[pst-metronome]{dt=0.01} % pas pour RK4
-\define@key[psset]{pst-metronome}{nT}{\def\psk@oscmetronomenT{#1 }}
-\psset[pst-metronome]{nT=1} % nombre de périodes représentées
-%---- calculer theta(t) et thetapoint(t) --------
-\def\psmetronome{\pst@object{psmetronome}}
-\def\psmetronome@i{%
-\begingroup%
-\use@par%
-  \begin@SpecialObj%
-  \pstVerb{%
- /deg2rad {180 div 3.14159 mul} def
- /rad2deg {180 mul 3.14159 div} def
- /gp 9.8 def % pesanteur
- /radius \psk@oscmetronomer 1e-2 mul def % en m
- /OA \psk@oscmetronomed 1e-2 mul def % distance de l'axe au centre du disque en m
- /xC \psk@oscmetronomex 1e-2 mul def % position du curseur en m par rapport à l'axe
- /theta0 \psk@oscmetronomethetai def % en degrés
- /theta0rad theta0 deg2rad def % en radians
- /Md \psk@oscmetronometM 1e-3 mul def % en kg
- /mc \psk@oscmetronometm 1e-3 mul def % en kg
- /dt \psk@oscmetronomedt def
- /nT \psk@oscmetronomenT def
- % moment d'inertie du métronome
- % J=1/2M*R^2+M*a^2+m*x^2
- /Ji {0.5 Md mul radius dup mul mul Md OA dup mul mul add mc xC dup mul mul add} def
- /AT {4
-      Ji
-      gp Md OA mul mc xC mul sub mul
-      div
-      sqrt
-      mul} def
- % Pour le calcul de la période
- % coefficients de l'approximation polynômiale du calcul
- % de l'intégrale elliptique
-% coefficient pour le calcul de l'intégrale elliptique
-        /m0 theta0 2 div sin def
-        /m1 {1 m0 dup mul sub} def
-        /m2 {m1 dup mul} def
-        /m3 {m2 m1 mul} def
-        /m4 {m2 dup mul} def
-        /m_1 {1 m1 div} def
-     /EllipticK {
-        0.5
-        0.12498593597 m1 mul add
-        0.06880248576 m2 mul add
-        0.03328355376 m3 mul add
-        0.00441787012 m4 mul add
-        m_1 ln mul
-        1.38629436112 add
-        0.09666344259 m1 mul add
-        0.03590092383 m2 mul add
-        0.03742563713 m3 mul add
-        0.01451196212 m4 mul add
-      } def
-/Tm {AT EllipticK mul} def
-% tableau des valeurs de theta(t)
-    /W 0 def % vitesse angulaire
-    /theta theta0 def
-    /oscillateur {sin gp Md OA mul mc xC mul sub mul neg mul Ji div} def
-    /j1 {W dt mul} def
-    /k1 {theta oscillateur dt mul} def
-    /j2 {W k1 2 div add dt mul} def
-    /k2 {theta j1 2 div rad2deg add oscillateur dt mul} def
-    /j3 {W k2 2 div add dt mul} def
-    /k3 {theta j2 2 div rad2deg add oscillateur dt mul} def
-    /j4 {W k3 add dt mul} def
-    /k4 {theta j3 rad2deg add oscillateur dt mul} def
-    /theta2 {theta j1 rad2deg 2 j2 rad2deg j3 rad2deg add mul add j4 rad2deg add 6 div add} def
-/tabTheta [ % pour l'animation
-    0 theta0 % date angle
-dt dt Tm nT mul{ %
-    theta2 %
-    /W2 W k1 2 k2 k3 add mul add k4 add 6 div add def
-    /theta theta2 def
-    /W W2 def
-    }  for
-        ] def
-/Nvaleurs tabTheta length 2 div cvi def
-    /W 0 def % vitesse angulaire
-    /theta theta0 def
-/tabThetaGraph [ % pour le graphique theta(t)
-    0 theta0  % date angle
-0 dt Tm nT mul { % pop
-    theta2 % 180 div 3.14159 mul
-    /W2 W k1 2 k2 k3 add mul add k4 add 6 div add def
-    /theta theta2 def
-    /W W2 def
-    }  for
-        ] def
-    /W 0 def % vitesse angulaire
-    /theta theta0 def
-/tabThetaPoint [ % pour le graphique thetapoint(t)
-    0 0  % date angle
-dt dt Tm nT mul { % pop
-%    theta2 % 180 div 3.14159 mul
-    /W2 W k1 2 k2 k3 add mul add k4 add 6 div add def
-    W2
-    /theta theta2 def
-    /W W2 def
-    }  for
-        ] def
-/tabXOSC [ % oscillations par min en fonction de x
-0.5 0.1 12 {/xc exch def
- /xC xc 1e-2 mul def
- xc 60 Tm div % cvi
- } for
-        ] def
-/tabXbattements [ % battements par min en fonction de x
-3 0.1 12 {/xc exch def
- /xC xc 1e-2 mul def
- xc 60 Tm div 2 mul % cvi
- } for
-        ] def
-% graduation T --> x
-/tabXT [ % [T,x]
- 40 1 220 {/batt exch def % battements
- /Tmetronome2 120 batt div dup mul def
- /A1 16 mc mul EllipticK dup mul mul def
- /B1 gp Tmetronome2 mul mc mul def
- /C1 gp Md mul OA mul Tmetronome2 mul neg
-     8 Md mul radius dup mul mul 16 Md mul OA dup mul mul add EllipticK dup mul mul add def
- /Delta B1 dup mul 4 A1 mul C1 mul sub sqrt def
- /xC1 B1 neg Delta sub 2 div A1 div def
- /xC2 B1 neg Delta add 2 div A1 div def
- xC2 0 ge {/posC xC2 def}{/posC xC1 def} ifelse
- batt posC 1e2 mul
- } for
-        ] def
-/xT { % pour une valeur particulière battement -> position du curseur
-    /batt exch def
-    /Tmetronome2 120 batt div dup mul def
-    /A1 16 mc mul EllipticK dup mul mul def
-    /B1 gp Tmetronome2 mul mc mul def
-    /C1 gp Md mul OA mul Tmetronome2 mul neg
-     8 Md mul radius dup mul mul 16 Md mul OA dup mul mul add EllipticK dup mul mul add def
-    /Delta B1 dup mul 4 A1 mul C1 mul sub sqrt def
-    /xC1 B1 neg Delta sub 2 div A1 div def
-    /xC2 B1 neg Delta add 2 div A1 div def
-     xC2 0 ge {/posC xC2 def}{/posC xC1 def} ifelse
-     posC 1e2 mul
- } def
-/xC \psk@oscmetronomex 1e-2 mul def % position du curseur en m par rapport à l'axe
-/Tm {AT EllipticK mul} def
-  }%
-  \end@SpecialObj%
-\endgroup}
-%
-\def\psmetronomeA{\pst@object{psmetronomeA}}
-\def\psmetronomeA@i{%
-\begingroup%
-\use@par%
-  \begin@SpecialObj%
-  \pstVerb{%
- /radius \psk@oscmetronomer 1e-2 mul def % en m
- /OA \psk@oscmetronomed 1e-2 mul def % distance de l'axe au centre du disque en m
- /xC \psk@oscmetronomex 1e-2 mul def % position du curseur en m par rapport à l'axe
-  }%
-\psframe[fillstyle=solid](! -0.075 \psk@oscmetronomed neg)(0.075,13)
-\pscircle[fillstyle=solid,fillcolor={[rgb]{0.75 0.75 0.75}}](! 0 \psk@oscmetronomed neg){!radius 1e2 mul}
-\pscircle[fillstyle=solid,linewidth=0.05](0,0){0.15}
-\pscircle*[linecolor=red](0,0){0.05}
-% curseur
-\pspolygon[fillstyle=solid](! -0.25 \psk@oscmetronomex 0.5 sub)(! -0.5 \psk@oscmetronomex 0.5 add)(!-0.075 \psk@oscmetronomex 0.5 add)(!-0.075 \psk@oscmetronomex 0.5 sub)
-\pspolygon[fillstyle=solid](! 0.25 \psk@oscmetronomex 0.5 sub)(! 0.5 \psk@oscmetronomex 0.5 add)(!0.075 \psk@oscmetronomex 0.5 add)(!0.075 \psk@oscmetronomex 0.5 sub)
-\pspolygon[fillstyle=solid,fillcolor=gray](! -0.25 \psk@oscmetronomex 0.5 sub)(! -0.3 \psk@oscmetronomex 0.3 sub)(! -0.075 \psk@oscmetronomex 0.3 sub)(!-0.075 \psk@oscmetronomex 0.3 add)(!0.075 \psk@oscmetronomex 0.3 add)(!0.075 \psk@oscmetronomex 0.3 sub)(!0.3 \psk@oscmetronomex 0.3 sub)(!0.25 \psk@oscmetronomex 0.5 sub)
-\pscircle[fillstyle=solid](!-0.125 \psk@oscmetronomex 0.4 sub){0.08}
-\pscircle[fillstyle=solid](!0.125 \psk@oscmetronomex 0.4 sub){0.08}
-% fin curseur
-{\psset{linecolor=red}
-\psline(!-.1 \psk@oscmetronomex)(!0.1 \psk@oscmetronomex)\psline(!0 \psk@oscmetronomex 0.1 sub)(!0 \psk@oscmetronomex 0.1 add)
-\psline(! -.1 \psk@oscmetronomed neg)(!0.1 \psk@oscmetronomed neg)\psline(! 0 \psk@oscmetronomed neg 0.1 sub)(!0 \psk@oscmetronomed neg 0.1 add)}
-\pnode(!0 \psk@oscmetronomex){C}% curseur
-\pnode(! 0 \psk@oscmetronomed neg){D}% disque
-\pstextpath[c](0,-2ex){\psarcn[linestyle=none](D){1}{180}{0}}{\small\textsf{\textbf{m e t r o n o m e}}}
-\pstextpath[c](0,1ex){\psarc[linestyle=none](D){1}{180}{0}}{\small\textsf{\textbf{P S t r i c k s}}}
-  \end@SpecialObj%
-\endgroup}
-\psmetronome%
-\pstVerb{/tabTempos [40 42 44 46 48 50 52 54 46 58 60 63 66 69 72 76 80 84 88 92 96 100 104 108 112 116 120 126 132 138 144 152 160 168 176 184 192 200 208] def}%
-
-\def\metronomebody{%
-  \pspolygon[fillstyle=solid,linewidth=2\pslinewidth,linearc=0.5,fillcolor=yellow!30](-5,-4.5)(5,-4.5)(1,14)(-1,14)
-  \psline(1.2,4.5)(1.2,12.5)
-  \psline(-1.2,4.5)(-1.2,12.5)
-  \multido{\i=0+2}{20}{%
-     \pstVerb{/BATT tabTempos \i\space get def}
-     \psline[linecolor=red](!1.2 BATT xT)(!0.7 BATT xT)
-     \uput[r](!0.7 BATT xT){\psPrintValue[PSfont=Helvetica,fontscale=6]{BATT}}
-  }%
-  \multido{\i=1+2}{19}{%
-     \pstVerb{/BATT tabTempos \i\space get def}
-     \psline[linecolor=red](!-1.2 BATT xT)(!-0.7 BATT xT)
-     \uput[r](!-1.3 BATT xT){\psPrintValue[PSfont=Helvetica,fontscale=6]{BATT}}}%
-  \rput(!0 40 xT){\textsf{\tiny GRAVE}}%
-  \rput(!0 46 xT){\textsf{\tiny LARGO}}%
-  \rput(!0 52 xT){\textsf{\tiny LENTO}}%
-  \rput(!0 58 xT){\textsf{\tiny ADAGIO}}%
-  \rput(!0 60 xT){\textsf{\tiny LARGETTO}}%
-  \rput(!0 66 xT){\textsf{\tiny ANDANTE}}%
-  \rput(!0 76 xT){\textsf{\tiny ANDANTINO}}%
-  \rput(!0 84 xT){\textsf{\tiny MODERATO}}%
-  \rput(!0 108 xT){\textsf{\tiny ALLEGRETTO}}%
-  \rput(!0 132 xT){\textsf{\tiny ALLEGRO}}%
-  \rput(!0 160 xT){\textsf{\tiny VIVACE}}%
-  \rput(!0 184 xT){\textsf{\tiny PRESTO}}%
-  \rput(!0 200 xT){\textsf{\tiny PRESTISSIMO}}%
-}
-
-\def\pendulum#1{%
-  \pstVerb{/iA #1\space def /date tabTheta iA get def /Theta tabTheta iA 1 add get def}%
-  \rput{!Theta}{\psmetronomeA}%
-}
-\makeatother
diff --git a/Master/texmf-dist/source/latex/animate/files/scarab.mp b/Master/texmf-dist/source/latex/animate/files/scarab.mp
index 9086168c344..7e04c256d28 100644
--- a/Master/texmf-dist/source/latex/animate/files/scarab.mp
+++ b/Master/texmf-dist/source/latex/animate/files/scarab.mp
@@ -1,7 +1,9 @@
 % Maxime Chupin, Alexander Grahn
-% 2017/02/27
+% 2018/11/29
 
-filenametemplate "%j_%c.mps";
+prologues:=3;
+outputtemplate := "%j_%c.mps";
+outputformat := "mps";
 
 verbatimtex
 \documentclass{article}