From a9f406953797fd5a7e968698b4bbec300e44ef03 Mon Sep 17 00:00:00 2001 From: Karl Berry Date: Mon, 18 Sep 2006 13:44:56 +0000 Subject: pst-3d done via MAKEpst, to get pst-3d.tex in runtime (31jan06 et al.) git-svn-id: svn://tug.org/texlive/trunk@2155 c570f23f-e606-0410-a88d-b1316a301751 --- Master/texmf-dist/source/latex/pst-3d/pst-3d.dtx | 1608 ---------------------- Master/texmf-dist/source/latex/pst-3d/pst-3d.ins | 38 - 2 files changed, 1646 deletions(-) delete mode 100644 Master/texmf-dist/source/latex/pst-3d/pst-3d.dtx delete mode 100644 Master/texmf-dist/source/latex/pst-3d/pst-3d.ins (limited to 'Master/texmf-dist/source/latex') diff --git a/Master/texmf-dist/source/latex/pst-3d/pst-3d.dtx b/Master/texmf-dist/source/latex/pst-3d/pst-3d.dtx deleted file mode 100644 index 291524ae593..00000000000 --- a/Master/texmf-dist/source/latex/pst-3d/pst-3d.dtx +++ /dev/null @@ -1,1608 +0,0 @@ -% \iffalse meta-comment, etc. -%% -%% Package `pst-3d.dtx' -%% -%% Timothy Van Zandt (tvz) -%% Herbert Voss (hv) -%% -%% September 03, 2005 -%% -%% This file is under the LaTeX Project Public License -%% See CTAN archives in directory macros/latex/base/lppl.txt. -%% -%% DESCRIPTION: -%% `pst-3d' is a PSTricks package for tilting and other pseudo-3D tricks -%% -% \fi -% \iffalse -%<*driver> -\documentclass{ltxdoc} -\GetFileInfo{pst-3d.dtx} -\usepackage[T1]{fontenc} -\usepackage{textcomp,fancyvrb} -\usepackage{graphics,showexpl} -\usepackage{amsmath,array} -\usepackage{multido} -\usepackage{pstricks,pst-node,pst-plot} -\usepackage{pst-3d} -\AtBeginDocument{ -% \OnlyDescription % comment out for implementation details - \EnableCrossrefs - \RecordChanges - \CodelineIndex} -\AtEndDocument{ - \PrintChanges - \PrintIndex} -\hbadness=7000 % Over and under full box warnings -\hfuzz=3pt -\begin{document} - \DocInput{pst-3d.dtx} -\end{document} -% -% \fi -% -% \changes{v1.00}{2005/09/08}{% -% using the extended pst-xkey instead of the old pst-key package; -% creating a dtx file; -% new \LaTeX\ wrapper file (hv)} -% \changes{v0.90}{2001/02/16}{First public release. (tvz)} -% -% \DoNotIndex{\!,\",\#,\$,\%,\&,\',\(,\+,\*,\,,\-,\.,\/,\:,\;,\<,\=,\>,\?} -% \DoNotIndex{\@,\@B,\@K,\@cTq,\@f,\@fPl,\@ifnextchar,\@nameuse,\@oVk} -% \DoNotIndex{\[,\\,\],\^,\_,\ } -% \DoNotIndex{\^,\\^,\\\^,$\^$,$\\^$,$\\^$} -% \DoNotIndex{\0,\2,\4,\5,\6,\7,\8,} -% \DoNotIndex{\A,\a} -% \DoNotIndex{\B,\b,\Bc,\begin,\Bq,\Bqc} -% \DoNotIndex{\C,\c,\catcode,\cJA,\CodelineIndex,\csname} -% \DoNotIndex{\D,\def,\define@key,\Df,\divide,\DocInput,\documentclass,\pst@addfams} -% \DoNotIndex{\eCN,\edef,\else,\eHd,\eMcj,\EnableCrossrefs,\end,\endcsname} -% \DoNotIndex{\endCenterExample,\endExample,\endinput,\endpsclip} -% \DoNotIndex{\PrintIndex,\PrintChanges,\ProvidesFile} -% \DoNotIndex{\endpspicture,\endSideBySideExample,\Example} -% \DoNotIndex{\F,\f,\FdUrr,\fi,\filedate,\fileversion,\FV@Environment} -% \DoNotIndex{\FV@UseKeyValues,\FV@XRightMargin,\FVB@Example,\fvset} -% \DoNotIndex{\G,\g,\GetFileInfo,\gr,\GradientLoaded,\gsFKrbK@o,\gsj,\gsOX} -% \DoNotIndex{\hbadness,\hfuzz,\HLEmphasize,\HLMacro,\HLMacro@i} -% \DoNotIndex{\HLReverse,\HLReverse@i,\hqcu,\HqY} -% \DoNotIndex{\I,\i,\ifx,\input,\Ir,\IU} -% \DoNotIndex{\j,\jl,\JT,\JVodH} -% \DoNotIndex{\K,\k,\kfSlL} -% \DoNotIndex{\L,\let} -% \DoNotIndex{\message,\mHNa,\mIU} -% \DoNotIndex{\N,\nB,\newcmykcolor,\newdimen,\newif,\nW} -% \DoNotIndex{\O,\oCDJDo,\ocQhVI,\OnlyDescription,\oRKJ} -% \DoNotIndex{\P,\p,\ProvidesPackage,\psframe,\pslinewidth,\psset} -% \DoNotIndex{\PstAtCode,\PSTricksLoaded} -% \DoNotIndex{\q,\Qr,\qssRXq,\qu,\qXjFQp,\qYL} -% \DoNotIndex{\R,\r,\RecordChanges,\relax,\RlaYI,\rN,\Rp,\rp,\RPDXNn,\rput} -% \DoNotIndex{\S,\scalebox,\SgY,\SideBySide@Example,\SideBySideExample} -% \DoNotIndex{\SgY,\sk,\Sp,\space,\sZb} -% \DoNotIndex{\T,\the,\tw@} -% \DoNotIndex{\u,\UiSWGEf@,\uJi,\usepackage,\uVQdMM,\UYj} -% \DoNotIndex{\VerbatimEnvironment,\VerbatimInput,\VrC@} -% \DoNotIndex{\WhZ,\WjKCYb,\WNs} -% \DoNotIndex{\XkN,\XW} -% \DoNotIndex{\Z,\ZCM,\Ze} -% \DoNotIndex{\addtocounter,\advance,\alph,\arabic,\AtBeginDocument,\AtEndDocument} -% \DoNotIndex{\AtEndOfPackage,\begingroup,\bfseries,\bgroup,\box,\csname} -% \DoNotIndex{\else,\endcsname,\endgroup,\endinput,\expandafter,\fi} -% \DoNotIndex{\TeX,\z@,\p@,\@one,\xdef,\thr@@,\string,\sixt@@n,\reset,\or,\multiply,\repeat,\RequirePackage} -% \DoNotIndex{\@cclvi,\@ne,\@ehpa,\@nil,\copy,\dp,\global,\hbox,\hss,\ht,\ifodd,\ifdim,\ifcase,\kern} -% \DoNotIndex{\chardef,\loop,\leavevmode,\ifnum,\lower} -% \setcounter{IndexColumns}{2} -% -% \let\pstIIIDFileVersion\fileversion -% \let\pstIIIDFileDate\filedate -% \newcommand{\PstIIIDPackage}{`\textsf{pst-3d}'} -% \newcommand{\PstIIIDMacro}{\cs{Pst3d}} -% -% ^^A From ltugboat.cls -% -% ^^A Typeset the name of an environment -% \providecommand\env[1]{\textsf{#1}} -% \providecommand\clsname[1]{\textsf{#1}} -% \providecommand\pkgname[1]{\textsf{#1}} -% \providecommand\optname[1]{\textsf{#1}} -% \providecommand\progname[1]{\textsf{#1}} -% -% ^^A A list of options for a package/class -% \newenvironment{optlist}{\begin{description}% -% \renewcommand\makelabel[1]{% -% \descriptionlabel{\mdseries\optname{##1}}}% -% \itemsep0.25\itemsep}% -% {\end{description}} -% -% \makeatletter -% -% ^^A Utility macros -% -% ^^A Example macros - adapted from the `fvrb-ex' package -% ^^A --------------------------------------------------- -% -% ^^A Take care that we use here the four /?_Z characters as escape -% ^^A characters, so we can't use these characters in the examples! -% -% ^^A To highlight some verbatim sequences (comments, macro names, etc.) -% \def\HLEmphasize#1{\textit{#1}} -% \newcommand{\BS}{\texttt{\symbol{`\\}}} -% \def\HLMacro#1{\BS{}def\HLMacro@i#1\@nil} -% \def\HLMacro@i#1def#2\@nil{\HLReverse{#2}} -% \def\HLReverse#1{{\setlength{\fboxsep}{1pt}\HLReverse@i{#1}}} -% \def\HLReverse@i#1{\colorbox{black}{\textcolor{white}{\textbf{#1}}}} -% -% \def\Example{\FV@Environment{}{Example}} -% \def\endExample{% -% \end{VerbatimOut} -% \Below@Example{\input{\jobname.tmp}} -% \endgroup} -% -% \def\CenterExample{\FV@Environment{}{Example}} -% \def\endCenterExample{% -% \end{VerbatimOut} -% \begin{center} -% \Below@Example{\input{\jobname.tmp}} -% \end{center} -% \endgroup} -% -% \def\SideBySideExample{\FV@Environment{}{Example}} -% \def\endSideBySideExample{% -% \end{VerbatimOut} -% \SideBySide@Example{\input{\jobname.tmp}} -% \endgroup} -% -% \def\FVB@Example{% -% \begingroup -% \FV@UseKeyValues -% \parindent=0pt -% \multiply\topsep by 2 -% \VerbatimEnvironment -% \begin{VerbatimOut}[gobble=4,codes={\catcode`\Z=12}]{\jobname.tmp}} -% -% \def\Below@Example#1{% -% \VerbatimInput[gobble=0,commentchar=Z,commandchars=/?_,frame=single, -% numbers=left,numbersep=3pt]{\jobname.tmp} -% \catcode`\%=14\relax -% \catcode`\Z=9\relax -% ^^A We suppress the effect of the highlighting macros -% \catcode`/=0\relax -% \catcode`?=1\relax -% \catcode`_=2\relax -% \def\HLEmphasize##1{##1}% -% \def\HLMacro##1{##1}% -% \def\HLReverse##1{##1}% -% #1 -% \par} -% -% \def\SideBySide@Example#1{% -% \vskip 1mm -% \@tempdimb=\FV@XRightMargin -% \advance\@tempdimb -5mm -% \begin{minipage}[c]{\@tempdimb} -% \fvset{xrightmargin=0pt} -% \catcode`\%=14\relax -% \catcode`\Z=9\relax -% ^^A We suppress the effect of the highlighting macros -% \catcode`/=0\relax -% \catcode`?=1\relax -% \catcode`_=2\relax -% \def\HLEmphasize##1{##1}% -% \def\HLMacro##1{##1}% -% \def\HLReverse##1{##1}% -% #1 -% \end{minipage}% -% \@tempdimb=\textwidth -% \advance\@tempdimb -\FV@XRightMargin -% \advance\@tempdimb 5mm -% \begin{minipage}[c]{\@tempdimb} -% \VerbatimInput[gobble=0,commentchar=Z,commandchars=/?_, -% frame=single,numbers=left,numbersep=3pt, -% xleftmargin=5mm,xrightmargin=0pt]{\jobname.tmp} -% \end{minipage} -% \vskip 1mm} -% -% ^^A End of example macros from `fvrb-ex' -% -% ^^A Customizations of the "Verbatim" environment -% \RecustomVerbatimEnvironment{Verbatim}{Verbatim}% -% {gobble=4,frame=single,numbers=left,numbersep=3pt,commandchars=/?_} -% -% ^^A For the possible index and changes log -% \setlength{\columnseprule}{0.6pt} -% -% -% \def\PiCTeX{PiC\TeX} -% \def\arc{\texttt{arc}} -% \def\sign{\texttt{sign}} -% -% ^^A Beginning of the documentation itself -% -% \title{The \PstIIIDPackage{} package\\Tilting and other pseudo-3D tricks with PSTricks} -% \author{Timothy Van Zandt\\ -% Herbert Vo\ss} -% \date{Version \pstIIIDFileVersion\ \pstIIIDFileDate\ \\ -% {\small Documentation revised \today\ (hv)}} -% -% \maketitle -% -% \begin{abstract} -% \texttt{pst-3d} provides basic macros for shadows, tilting and -% three dimensional representations of text or graphical objects. -% \end{abstract} -% -% \clearpage -% \tableofcontents -% -% \section{introduction} -% -% The base package \texttt{pstricks} already disposes of some macros with which three -% dimensional effects can be obtained. -% There are several packages though which support the creation of three -% dimensional objects or functions. A compilation is shown in -% table~\ref{tab:pst3d:pakete}. Here already several of the packages overlap, for -% parallel developments are nothing unusual in the \TeX{} world. Although -% \verb+pst-3d+ is one of the older packages, it shall be dealt with nevertheless, -% for it also contains the preliminary stage of the 3D representations, that is -% shadow creation and tilting. -% -% \begin{table}[htb] -% \caption{Summary of all 3D packages}\label{tab:pst3d:pakete} -% \centering -% \begin{tabular}{ll} -% \emph{package} & \emph{content}\\\hline -% \texttt{pst-3d} & basic 3D operations\\ -% \texttt{pst-3dplot} & Three dimensional plots\\ -% \texttt{pst-fr3d} & Three dimensional framed Boxes\\ -% \texttt{pst-gr3d} & 3D grids\\ -% \texttt{pst-map3dII}& 3D Geographical Projection\\ -% \texttt{pst-ob3d} & Three dimensional basic objects\\ -% \texttt{pst-vue3d} & Three dimensional views\\ -% \end{tabular} -% \end{table} -% -% -% \section{Shadow}\label{sec:pst3d:schattenwurf} -% \verb+pst-3d+ defines the macro \verb+\psshadow+ with the following syntax: -% \begin{verbatim} -% \psshadow[]{] -% \end{verbatim} -% As parameters the ones given in table~\ref{tab:pst-3d:schattenparameter} are -% available next to all previously defined, if they have a meaning for the -% material to be shadowed. This can be anything text-like, text, rules and -% mathematical expressions in inline mode. -% -% \medskip -% \begin{SideBySideExample}[xrightmargin=.35\linewidth] -% \newgray{gray75}{.75} -% \psset{Tshadowcolor=gray75} -% \psshadow{\huge Shadow}\\[10pt] -% \psshadow{\huge $f(x)=x^2$}\\[15pt] -% \psshadow[Tshadowsize=2.5]{% -% \rule{2cm}{10pt}} -% \end{SideBySideExample} -% -% \subsection{Parameters}\label{subsec:pst3d:schattenparameter} -% Table~\ref{tab:pst-3d:schattenparameter} shows a compilation of the used -% parameters. -% -% -% -% -% \begin{table}[htb] -% \caption{Summary of all \texttt{shadow} parameters}\label{tab:pst-3d:schattenparameter} -% \centering -% \begin{tabular}{>{\ttfamily}l>{\ttfamily}l>{\ttfamily}l} -% \textrm{\emph{name}} & \textrm{\emph{values}} & \textrm{\emph{default}}\\\hline -% Tshadowangle & & 60\\ -% Tshadowcolor & & lightgray\\ -% Tshadowsize & & 1 -% \end{tabular} -% \end{table} -% -% -% \subsubsection{\texttt{Tshadowangle}}\label{subsubsec:pst3d:tshadowangle} -% \verb+Tshadowangle+ denotes the angle of the shadow, -% referring to the perpendicular of the paper plane. The angle of $90$° therewith -% corresponds to the text itself. Negative angles cause the shadow to arise -% from the paper plane. - -% \medskip -% \begin{SideBySideExample}[xrightmargin=.25\linewidth] -% \newgray{gray75}{.75} -% \psset{Tshadowcolor=gray75} -% \psshadow{\huge shadow}\\[5pt] -% \psshadow[Tshadowangle=30]{\huge shadow}\\[5pt] -% \psshadow[Tshadowangle=70]{\huge shadow}\\[5pt] -% \psshadow[Tshadowangle=-30]{\huge shadow} -% \end{SideBySideExample} -% -% \medskip -% \begin{itemize} -% \item Angular values of $0$° and $180$° are not allowed. -% \end{itemize} -% -% -% -% \subsubsection{\texttt{Tshadowcolor}}\label{subsubsec:pst3d:tshadowcolor} -% \verb+Tshadowcolor+ deontes the shadow colour. -% -% \begin{SideBySideExample}[xrightmargin=.25\linewidth] -% \psshadow{\huge shadow}\\[5pt] -% \psshadow[Tshadowcolor=red]{\huge shadow}\\[5pt] -% \psshadow[Tshadowcolor=green]{\huge shadow}\\[5pt] -% \psshadow[Tshadowcolor=blue]{\huge shadow} -% \end{SideBySideExample} -% -% -% \subsubsection{\texttt{Tshadowsize}}\label{subsubsec:pst3d:tshadowsize} -% \verb+Tshadowsize+ determines the size of the -% shadow\index{shadow!size} as a scaling factor\index{scaling factor}. -% -% \begin{SideBySideExample}[xrightmargin=.25\linewidth] -% \psshadow{\Huge shadow}\\[5pt] -% \psshadow[Tshadowsize=0.5]{\Huge shadow}\\[10pt] -% \psshadow[Tshadowsize=1.5]{\Huge shadow}\\[20pt] -% \psshadow[Tshadowsize=2.5]{\Huge shadow} -% \end{SideBySideExample} -% -% -% -% -% -% \section{Tilting}\label{sec:pst3d:kippen} -% With the tilting of objects the -% perspective views of three dimensional objects can be simulated. \verb+pst-3d+ -% defines two macros for this. -% -% \begin{verbatim} -% \pstilt[]{}{} -% \psTilt[]{}{} -% \end{verbatim} -% -% Figure~\ref{fig:pst3d:demo} shows the difference between these two macros. -% Principally everything can be given as argument to those macros and therewith -% tilted. With vertical material, as distinguished formulae, eventually the -% argument has to be put into a \verb+\parbox+ before (see -% example), -% -% \begin{figure}[htb] -% \centering -% \bgroup -% \begin{pspicture}(0,-0.2)(9,3) -% \psline[linestyle=dashed](0,2)(9,2) -% \psline{->}(9,0) -% \def\Bar{\psframe*[linecolor=lightgray](0,0)(0.5,2)} -% \rput(0.5,0){\Bar} -% \psset{arrowscale=2,linewidth=0.1pt,tbarsize=2mm} -% \psline{|<->|}(0.25,0)(0.25,2)\rput*{90}(0.25,1){\small 2cm} -% \rput(2,0){\psTilt{30}{\Bar}} -% \psarc{->}(2.2,0){2}{0}{26}\rput(4.5,0.5){30°} -% \pnode(2,0.3){A}\pnode(5.3,2.25){B} -% \ncline{|<->|}{A}{B}\ncput*[nrot=:U]{\small 4cm} -% \rput(6,0){\pstilt{30}{\Bar}} -% \psarc{->}(6.2,0){2}{0}{26}\rput(8.5,0.5){30°} -% \pnode(6,0.3){A}\pnode(7.65,1.25){B} -% \ncline{|<->|}{A}{B}\ncput*[nrot=:U]{\small 2cm} -% \uput[90](0.5,2.5){\cs{Bar}} -% \uput[90](3.75,2.5){\cs{psTilt\{30\}\{\textbackslash Bar\}}} -% \uput[90](7.25,2.5){\cs{pstilt\{30\}\{\textbackslash Bar\}}} -% \end{pspicture} -% \egroup -% \caption{Demonstration of the difference between \cs{pstilt} and \cs{psTilt}}\label{fig:pst3d:demo} -% \end{figure} -% -% \medskip -% \begin{itemize} -% \item Angular values of $0$\textdegree\ and $180$\textdegree\ are not allowed. -% \end{itemize} -% -% \subsection{\cs{pstilt}}\label{subsec:pst3d:pstilt} -% \verb+\pstilt+ tilts objects that their original height appears -% as new length of the tilted object, wherewith the object becomes smaller. The -% hynotenuse of the triangle from nadir, height and perpendicular now corresponds -% to the old height (see figure~\ref{fig:pst3d:demo}). At this the length is -% calculated from the middle of the base side. -% -% -% \medskip\noindent -% \begin{SideBySideExample}[xrightmargin=.4\linewidth] -% \def\Bar{\psframe(0,0)(0.25,2)} -% \begin{pspicture}(5,2) -% \multido{\nA=15+15}{11}{\rput(2.5,0){% -% \pstilt{\nA}{\Bar}}} -% \end{pspicture} -% \end{SideBySideExample} -% -% -% -% \medskip\noindent -% \begin{SideBySideExample}[xrightmargin=.4\linewidth] -% \pstilt{60}{% -% \begin{pspicture}(-0.5,-0.5)(2,2) -% \psaxes[axesstyle=frame](2,2) -% \end{pspicture}} -% \end{SideBySideExample} -% -% -% \medskip\noindent -% \begin{SideBySideExample}[xrightmargin=.4\linewidth] -% \newpsstyle{TCyan}{% -% fillstyle=vlines,hatchcolor=cyan, -% hatchwidth=0.1\pslinewidth,% -% hatchsep=1.5\pslinewidth} -% \begin{pspicture}(2,4) -% \rput[lb](0,0){\pstilt{45}{% -% \psframe[linestyle=dashed,% -% fillstyle=solid,fillcolor=red](2,4)}} -% \psframe[style=TCyan](0,0)(2,4) -% \end{pspicture} -% \end{SideBySideExample} -% -% -% \medskip -% With the package \verb+rotating+ macros to rotate text are -% provided, to achieve slant table headings for example. It is more difficult when -% they are provided with a frame. With \cs{pstilt} or \cs{psTilt} this is no -% problem. The program listing given below only shows the application of -% \cs{pstilt} for the macro only has to be replaced by \cs{psTilt} to obtain the -% other example. - -% \begin{SideBySideExample}[xrightmargin=.3\linewidth] -% \begin{tabular}{l} -% \pstilt{60}{% -% \begin{tabular}{|p{1em}|p{1em}|p{1em}|}\hline -% \psrotateleft{column 1\ } -% & \psrotateleft{column 2\ } -% & \psrotateleft{column 3\ } -% \end{tabular}}\\ -% \begin{tabular}{|p{1em}|p{1em}|p{1em}|}\hline -% 1 & 2 & 3 \\\hline -% 4 & 5 & 6 \\\hline -% \end{tabular} -% \end{tabular} -% \end{SideBySideExample} -% -% -% \subsection{\cs{psTilt}}\label{subsec:pst3d:psTilt} -% \verb+\psTilt+ tilts objects that their original height is -% preserved, so that the object could become infinitely long in theory (see -% figure~\ref{fig:pst3d:demo}). -% -% -% \medskip\noindent -% \begin{CenterExample} -% \begin{pspicture}(5,2) -% \def\Bar{\psframe(0,0)(0.25,2)} -% \multido{\nA=15+15}{11}{\rput(2.5,0){% -% \psTilt{\nA}{\Bar}}} -% \end{pspicture} -% \end{CenterExample} -% -% -% -% \medskip\noindent -% \begin{SideBySideExample}[xrightmargin=.4\linewidth] -% \psTilt{60}{% -% \begin{pspicture}(-0.5,-0.5)(2,2) -% \psaxes[axesstyle=frame](2,2) -% \end{pspicture}} -% \end{SideBySideExample} -% -% -% \medskip\noindent -% \begin{SideBySideExample}[xrightmargin=.475\linewidth] -% \newpsstyle{TCyan}{% -% fillstyle=vlines,hatchcolor=cyan, -% hatchwidth=0.1\pslinewidth,% -% hatchsep=1.5\pslinewidth} -% \begin{pspicture}(2,4) -% \rput[lb](0,0){\psTilt{45}{% -% \psframe[linestyle=dashed,% -% fillstyle=solid,% -% fillcolor=red](2,4)}} -% \psframe[style=TCyan](0,0)(2,4) -% \end{pspicture} -% \end{SideBySideExample} -% -% -% \section[Three dimensional representations]{% -% Three dimensional representations\protect\footnote{Some of the examples were created by Manuel Luque.}}\label{sec:pst3d:3d} -% -% -% \verb+pst-3d+ only supports parallel projections, so that geometrical objects -% such as spheres or cylinders can only be displayed restricted. Although -% \verb+pst-3d+ principally only defines one single macro for the 3D -% projection, the package is very efficient in its -% application and is also used as a base for other packages.\cite{pst-3dplot}\cite{pst-vue3d} -% -% \subsection{\cs{ThreeDput}}\label{subsec:pst3d:threedput} -% \verb+pst-3d+ only defines this single macro, which can be -% used to arbitrarily display line or area shaped objects in the three dimensional -% space in the end though. -% -% \begin{verbatim} -% \ThreeDput[]{} -% \ThreeDput[](){} -% \end{verbatim} -% -% Without a specification of coordinates, $(0,0,0)$ is taken as origin of -% ordinates as a rule. As ``material''{} anything is understood that can be put -% into a box. If it is vertical material in the \TeX{} sense, it has to be put in -% a \verb+\parbox+ or \verb+minipage+ before. -% -% To simplify the specified source code, the macro \verb+\IIIDKOSystem+ is used in -% the following, which draws the coordinate axes with the grid and is not -% specified in the following anymore. -% -% -% \makeatletter -% \newgray{gray75}{0.75}\newgray{gray80}{0.80}newgray{gray85}{0.85} -% \newgray{gray90}{0.90}\newgray{gray95}{0.95} -% \def\xyPlain#1{% -% \ThreeDput[normal=0 0 1](0,0,0){% -% \psgrid[subgriddiv=0,gridcolor=lightgray](0,0)(#1,#1)% -% \psline{->}(0,0)(0,#1)\psline{->}(0,0)(#1,0)% -% \ifdim\psk@gridlabels pt>\z@ -% \uput[180]{0.2}(0,#1){$y$}\uput[-90]{0.2}(#1,0){$x$}\fi}} -% \def\xzPlain#1{% -% \ThreeDput[normal=0 -1 0](0,0,0){% -% \psgrid[subgriddiv=0,gridcolor=lightgray](0,0)(#1,#1)% -% \psline{->}(0,0)(0,5) \psline{->}(0,0)(#1,0)% -% \ifdim\psk@gridlabels pt>\z@% -% \uput[180]{0.2}(0,#1){$z$}\uput[-90]{0.2}(#1,0){$x$}% -% \fi}} -% \def\yzPlain#1{% -% \ThreeDput[normal=1 0 0](0,0,0){% -% \psgrid[subgriddiv=0,gridcolor=lightgray](0,0)(#1,#1)% -% \psline{->}(0,0)(0,#1) \psline{->}(0,0)(#1,0)% -% \ifdim\psk@gridlabels pt>\z@% -% \uput[180]{0.2}(0,#1){$z$}\uput[-90]{0.2}(#1,0){$y$}% -% \fi}} -% \def\IIIDKOSystem{\@ifnextchar[{\IIIDKOSystem@i}{\IIIDKOSystem@i[]}} -% \def\IIIDKOSystem@i[#1]#2{% -% \psset{#1}% -% \xyPlain{#2}\xzPlain{#2}\yzPlain{#2}} -% \makeatother -% -% \medskip\noindent -% \begin{CenterExample} -% \makeatletter -% \def\xyPlain#1{% -% \ThreeDput[normal=0 0 1](0,0,0){% xy-plane -% \psgrid[subgriddiv=0,gridcolor=lightgray](0,0)(#1,#1) -% \psline{->}(0,0)(0,#1) \psline{->}(0,0)(#1,0) -% \ifdim\psk@gridlabels pt>\z@ -% \uput[180]{0.2}(0,#1){$y$}\uput[-90]{0.2}(#1,0){$x$}\fi }} -% \def\xzPlain#1{% -% \ThreeDput[normal=0 -1 0](0,0,0){% xz-plane -% \psgrid[subgriddiv=0,gridcolor=lightgray](0,0)(#1,#1) -% \psline{->}(0,0)(0,5) \psline{->}(0,0)(#1,0) -% \ifdim\psk@gridlabels pt>\z@ -% \uput[180]{0.2}(0,#1){$z$}\uput[-90]{0.2}(#1,0){$x$}% -% \fi }} -% \def\yzPlain#1{% -% \ThreeDput[normal=1 0 0](0,0,0){% yz-plane -% \psgrid[subgriddiv=0,gridcolor=lightgray](0,0)(#1,#1) -% \psline{->}(0,0)(0,#1) \psline{->}(0,0)(#1,0) -% \ifdim\psk@gridlabels pt>\z@ -% \uput[180]{0.2}(0,#1){$z$}\uput[-90]{0.2}(#1,0){$y$}% -% \fi }} -% \def\IIIDKOSystem{\@ifnextchar[{\IIIDKOSystem@i}{\IIIDKOSystem@i[]}} -% \def\IIIDKOSystem@i[#1]#2{% -% \psset{#1}% -% \xyPlain{#2}\xzPlain{#2}\yzPlain{#2}} -% \makeatother -% \newgray{gray75}{0.75} -% \newgray{gray80}{0.8} -% \newgray{gray85}{0.85} -% \newgray{gray95}{0.95} -% \begin{pspicture}(0,-1.25)(5,6) -% \psset{viewpoint=1 -1 0.75} -% \IIIDKOSystem{5} -% \ThreeDput{\psframe*[linecolor=gray80](3,3)} -% \ThreeDput(1.5,1.5,0){\Huge below} -% \ThreeDput(0,0,1.5){\psframe*[linecolor=gray75](3,3)} -% \ThreeDput(1.5,1.5,1.5){\Huge center} -% \ThreeDput(0,0,3){\psframe*[linecolor=gray85](3,3)} -% \ThreeDput(1.5,1.5,3){\Huge above} -% \xzPlain{5} -% \ThreeDput(4,4,0){\psframe*[linecolor=gray95](-1,-1)(1,1)} -% \ThreeDput(4,4,0){\psdot[dotscale=3]} -% \end{pspicture} -% \end{CenterExample} -% -% -% The coordinates of \verb+ThreeDput+ refer to the centre of the object, which -% does not necessarily need to be the geometrical centre. -% \begin{verbatim} -% \psframe(2,2)% centre bottom left (0,0) -% \psframe(-1,-1(1,1)% centre in the middle (0,0) -% arbitrary text% centre in the middle of the base line -% \end{verbatim} -% -% In the above example the smaller square with its centre $(0,0)$ has been set -% exactly to the coordinated $(4,4,0)$. -% The macro \verb+ThreeDput+ can be manifoldly applied, which is performed -% especially by the package \verb+pst-vue3d+\cite{pst-vue3d}. By -% specifying the normal vector $\vec{n}$ and a point $P(x,y,z)$ of the stright -% line and/or the plane the posture in space can be determined definitely. Areas -% can be provided with different levels of brightness to increase the spatial -% impression. -% -% -% -% \medskip\noindent -% \begin{CenterExample} -% \newgray{gray75}{0.75}\newgray{gray85}{0.85}\newgray{gray95}{0.95} -% \begin{pspicture}(-4.5,-3.5)(3,4.75) -% \psset{viewpoint=1 1.5 1} -% \IIIDKOSystem[gridlabels=0pt,gridcolor=lightgray,subgriddiv=0]{5}% -% \ThreeDput[normal=0 0 1]{% xy-plane -% \psline[linewidth=3pt,linecolor=blue]{->}(4,4)(4,5.5)% -% \uput[90](4,5.5){\color{blue}$\vec{n}-{A}$}}% -% \ThreeDput[normal=0 -1 0]{% xz-plane -% \psline[linewidth=3pt,linecolor=green]{->}(4,0)(5.5,0)% -% \uput[90](5.5,0){\psscalebox{-1 1}{% -% \textcolor{green}{$\vec{n}-B$}}}}% -% \ThreeDput[normal=1 0 0]{% yz-plane -% \psline[linewidth=3pt,linecolor=red]{->}(0,4)(0,5.5)% -% \uput[0](0,5.5){$\vec{n}-{top}$}}% cube and axes -% \ThreeDput[normal=0 0 1](0,0,4){% -% \psframe*[linecolor=gray75](4,4)\rput(2,2){\Huge\textbf{TOP}}}% -% \ThreeDput[normal=0 1 0](4,4,0){% -% \psframe*[linecolor=gray95](4,4)\rput(2,2){\Huge\textbf{side A}}}% -% \ThreeDput[normal=1 0 0](4,0,0){% -% \psframe*[linecolor=gray85](4,4)\rput(2,2){\Huge\textbf{side B}}}% -% \ThreeDput[normal=0 0 1](0,0,4){% -% \psline(4,0)\uput[90](3,0){$X-top$}\psline(0,4)\uput[0](0,3){$Y-top$}}% -% \ThreeDput[normal=0 1 0](4,4,0){% -% \psline(4,0)\uput[90](3,0){$X-A$}\psline(0,4)\uput[0](0,3){$Y-A$}}% -% \ThreeDput[normal=1 0 0](4,0,0){% -% \psline(4,0)\uput[90](3,0){$X-B$}\psline(0,4)\uput[0](0,3){$Y-B$}}% -% \end{pspicture} -% \end{CenterExample} -% -% -% \subsection{3D parameters}\label{subsec:pst3d:3dParameter} -% Table~\ref{tab:pst-3d:3dparameter} shows a compilation of -% the parameters which can be used to influence 3D representations. -% -% \begin{table}[htb] -% \caption{Summary of all 3D parameters}\label{tab:pst-3d:3dparameter} -% \begin{tabular}{>{\ttfamily}l>{\ttfamily}l>{\ttfamily}l} -% \textrm{name} & \textrm{values} & \textrm{default}\\\hline -% viewpoint & & 1 -1 1\\ -% viewangle & & 0\\ -% normal & & 0 0 1\\ -% embedangle & & 0 -% \end{tabular} -% \end{table} -% -% \subsubsection{\texttt{viewpoint}}\label{subsubsec:pst3d:viewpoint} -% The viewing direction to the 3D object influences the -% representation essentially. With \verb+viewpoint+ the $(x,y,z)$ coordinates -% which denote the vector of the viewing direction are specified. Because of the -% parallel projection the length of this vector is unimportant, so that -% \verb+(10.5 1.5)+ and \verb+(2 1 3)+ yield the same representations. -% Figure~\ref{fig:pst3d:viewpoint} shows who somebody would regard this -% representation, whereat the representation itself is of course regarded from -% another point in this case, otherwise one had to look directly onto the vector. -% -% -% \SpecialCoor -% \def\oeil{% -% \pscurve(1;160)(0.8;180)(1;200) -% \pscustom{\gsave\psarc(0,0){1}{165}{195} -% \pscurve(1;195)(0.85;180)(1;165) -% \fill[fillstyle=solid,fillcolor=blue]\grestore} -% \pscurve[linewidth=.4pt](1;195)(0.85;180)(1;165) -% {\psset{linewidth=2pt} -% \psarc(0,1){1}{180}{270} -% \psarc(0,-1){1}{90}{180}} -% \psarc(0,0){1}{150}{210} -% \psset{linewidth=4pt,linecolor=gray} -% \pscurve(-.5,3.5)(-1,3)(-1.2,2.5)(-1.3,2)(-1.4,1)(-1.35,0.5)(-1.2,-.2)(-1.35,-.5) -% (-1.4,-1)(-1.5,-1.5)(-1.8,-2)(-1.8,-2.3)(-1.65,-2.5)(-1.35,-2.55)(-.95,-2.8) -% (-.95,-3.35)(-1,-3.65)(-.8,-4)(-.4,-4.1) -% \pscurve(-.8,-4)(-.8,-4.2)(-.5,-4.5)(-.4,-5)(-.25,-5.5)(0,-5.8)(.5,-6)} -% -% -% \begin{figure}[htb] -% \centering -% \begin{pspicture}(-5,-1)(5,6) -% \psset{viewpoint=3 5 2} -% \psset{unit=2} -% \ThreeDput[normal=0 0 1](0,0,0){% -% \psline{->}(0,0)(2,0) -% \uput[90](2,0){$x$} -% \qdisk(1,0.5){2pt} -% \psline(1,0)(1,0.5)\psline(1,0.5)(0,0.5) -% \psline[linestyle=dotted](0,0)(1,0.5) -% \psset{fillstyle=solid,fillcolor=lightgray,linestyle=none} -% \psframe(1,0)(1.15,.15) -% \psframe(0,.5)(.15,.65)} -% \ThreeDput[normal=1 0 0](0,0,0){% -% \psline{->}(0,0)(2,0) -% \uput[90](2,0){$y$} -% \psline{->}(0,0)(0,2) -% \uput[180](0,2){$z$} -% \uput[90](0.5,0){0.5} -% \uput[180](0,1.5){1.5} -% \uput[135](0,0){0} -% \rput(1.2,1.5){\large 3D representations}} -% \ThreeDput[normal=0 1 0](0,0,0){% -% \uput[90](-2,0){$x$} -% \uput[90](-1,0){1} -% \rput(-1.5,1){\texttt{pst-3d}}} -% \ThreeDput[normal=.5 -1 0](0,0,0){% -% \psframe[linestyle=none,fillstyle=hlines,hatchwidth=0.1pt, -% hatchsep=2pt,hatchcolor=gray90](0,0)(1.118,1.5) -% \psline[linewidth=3pt,linecolor=red,arrowinset=0]{->}(0,0)(1.118,1.5) -% \psline[linestyle=dashed](0,0)(2.236,3) -% \psline(1.118,0)(1.118,1.5) -% \psline(1.118,1.5)(0,1.5) -% \rput{53.3}(2.5348,3.4009){\psscalebox{0.2}{\oeil}}} -% \end{pspicture} -% \caption{Definition of the \texttt{viewpoints}}\label{fig:pst3d:viewpoint} -% \end{figure} -% -% -% For figure~\ref{fig:pst3d:viewpoint} a viewpoint of \verb+viewpoint=3 5 2+ was -% defined. If one desires to regard it for instance from the $y$ axis from a -% larger height, \verb+viewpoint=0 1 3+ could be chosen. The viewer has moved one -% unit in $y$ direction and four units in $z$ direction from the centre (origin) -% and regards everything from there. -% -% -% \medskip -% \begin{itemize} -% \item The \verb+viewpoint+ principally \textbf{has} to be defined with -% values not equal to zero, for this would lead to a division by zero. -% Specifications of $0.001$ for a coordinate are already sufficing to -% escape the division by zero and blind out the coordinate. -% \end{itemize} -% -% A good value for the viewpoint would be \verb+viewpoint=1 1 0.5+ for instance, -% which corresponds to a horizontal rotation by 45° and a vertical by ca. 20°. -% Another meaningful point is also \verb+viewpoint=1.5 1 0.5+, which now -% corresponds to a horizontal rotation by 33° and the same vertical rotation. Both -% can be seen in the examples below. -% -% \medskip -% \begin{CenterExample} -% \begin{pspicture}(-3,-2.5)(-3,4) -% \psset{unit=0.75} -% \psset{viewpoint=1 1 0.5} -% \IIIDKOSystem{5} -% \end{pspicture}\hfill -% \begin{pspicture}(-3,-2.5)(2.2,4) -% \psset{unit=0.75} -% \psset{viewpoint=1 1.5 0.5} -% \psset{gridlabels=6pt} -% \IIIDKOSystem{5} -% \end{pspicture} -% \end{CenterExample} -% -% -% \subsubsection{\texttt{viewangle}}\label{subsubsec:pst3d:viewangle} -% Additional to the \verb+viewpoint+ option one can rotate the object by another -% option called \verb+viewangle+. This could also be done by the macro \verb+\rotatebox+, -% but \verb+viewangle+ has some advantages . -% -% -% \bigskip\noindent -% \begin{CenterExample} -% \begin{pspicture}(-1,-2.5)(4,4) -% \psset{unit=0.7,viewpoint=1 1 0.5,viewangle=20} -% \IIIDKOSystem{5} -% \ThreeDput(0,0,0){\psframe*[linecolor=gray80](4,4)} -% \ThreeDput(2,2,0){\Huge Unten} -% \end{pspicture} -% \begin{pspicture}(-3,-2.5)(1,4) -% \psset{unit=0.7,viewpoint=1 1.5 0.5,viewangle=-30} -% \IIIDKOSystem{5} -% \ThreeDput(0,0,0){\psframe*[linecolor=gray80](4,4)} -% \ThreeDput(2,2,0){\Huge Unten} -% \end{pspicture} -% \end{CenterExample} -% -% -% \subsubsection{\texttt{normal}}\label{subsubsec:pst3d:normal} -% \verb+normal+ denotes the direction of the normal -% vector which is perpendicular to a corresponding area. -% Therewith the posture of an object in three dimensional space is definitely -% determined by the normal vector. -% -% \medskip\noindent -% \begin{CenterExample} -% \newgray{gray75}{0.75}\newgray{gray85}{0.85}\newgray{gray95}{0.95} -% \begin{pspicture}(-3.5,-2.5)(-3,5) -% \psset{viewpoint=1 1.5 0.5} -% \IIIDKOSystem{5} -% \ThreeDput(0,0,0){\psframe*[linecolor=gray80](4,4)} -% \ThreeDput(2,2,0){\huge\psrotatedown{xy-plane}} -% \ThreeDput[normal=0 -1 0](0,0,0){\psframe*[linecolor=gray85](4,4)} -% \ThreeDput[normal=0 1 0](2,0,2){\huge xz-plane} -% \ThreeDput[normal=1 0 0](0,0,0){\psframe*[linecolor=gray90](4,4)} -% \ThreeDput[normal=1 0 0](0,2,2){\huge yz-plane} -% \ThreeDput[normal=0 0 1](0,0,0){% xy-plane -% \psline{->}(0,0)(0,5)\psline{->}(0,0)(5,0)} -% \ThreeDput[normal=0 1 0](0,0,0){\psline{->}(0,0)(0,5)} -% \end{pspicture} -% \end{CenterExample} -% -% -% Without a assignment through the normal vector the above example could not have -% been created that easily. Let us step through the code for a better -% understanding. -% -% \begin{description} -% \item[\cs{psset\{viewpoint=1 1.5 0.5\}}:] the -% \verb+viewpoint+ is set to the point $P(1,1.5,0.5)$. -% \item[\cs{IIIDKOSystem\{5\}}:] first the coordinate system with the grid is -% drawn, so that axes and grid remain visible on the areas, which makes a -% better optical allocation possible. -% \item[\cs{ThreeDput(0,0,0)\{\textbackslash psframe*[linecolor=gray80](4,4)\}}:] -% puts a square with a side length of four into the origin of ordinates with -% the lower left edge. Since no normal vector is specified here, the default -% value $\vec{n}=(0,0,1)$ is taken, wherewith the area is positioned in the -% first quadrant of the $xy$ plane. -% \item[\cs{ThreeDput(2,2,0)\{\textbackslash huge\textbackslash psrotatedown\{xy-plane\}\}}:] -% puts the text rotated by $180$° centric to the point $(2,2,0)$ in the -% \verb+xy-plane+. -% \item[\cs{ThreeDput[normal=0 -1 0](0,0,0)\{\textbackslash psframe*[linecolor=gray85](4,4)\}}:] -% puts a square with a side length of four in the origin of ordinates with the -% lower left edge. Since the normal vector is the ``negative''{} $y$ axis, the -% square is positioned in the first quadrant of the $xz$ plane. With -% \verb+normal=0 1 0+ it would have been the second quadrant. -% \item[\cs{ThreeDput[normal=0 1 0](2,0,2)\{\textbackslash huge xz-plane\}}:] -% puts the text in the \verb+xy-plane+ centric to the point $(2,0,2)$. Because -% the $xz$ plane is regarded from the back from the viewpoint, the normal -% vector of the area has to be reversed, otherwise the text would be read from -% the ``back''{}. -% \item[\cs{ThreeDput[normal=1 0 0](0,0,0)\{\textbackslash psframe*[linecolor=gray90](4,4)\}}:] -% puts a square with a side length of four in the origin of ordinates with the -% lower left edge. The unit vector is the ``positive''{} $x$ axis, therefore -% the square is positioned in the first quadrant of the $yz$ plane. -% \item[\cs{ThreeDput[normal=1 0 0](0,2,2)\{\textbackslash huge yz-plane\}}:] -% puts the text in the \verb+yz-plane+ centric to the point $(0,2,2)$. Since -% the text is written at the ``positive''{} side of the area, the normal -% vector stays the same. -% \item[\cs{ThreeDput[normal=0 0 1](0,0,0)}:] the coordinate axes have been -% overwritten by the three areas and are redrawn now, first the $xy$ axes. -% \item[\cs{ThreeDput[normal=0 1 0](0,0,0)}:] and now the $z$ axis is drawn. -% \end{description} -% -% \subsubsection{\texttt{embedangle}}\label{subsubsec:pst3d:embedangle} -% With \verb+viewangle+ a rotation perpendicular to the plane -% of the viewer could be made. With \verb+embedangle+ a rotation perpendicular to -% the normal vector can be made. The counting of the angles is made in the -% mathematical sense, counterclockwise. -% -% \medskip -% \begin{CenterExample} -% \newgray{gray75}{0.75}\newgray{gray85}{0.85}\newgray{gray95}{0.95} -% \def\tBlack#1#2{% -% \psframe[style=#2](2,2) -% \rput(1,1){\textcolor{#1}{\textbf{PSTricks}}}} -% \newpsstyle{SolidYellow}{fillstyle=solid,fillcolor=yellow} -% \newpsstyle{TransparencyRed}{fillstyle=vlines,hatchcolor=red, -% hatchwidth=0.1\pslinewidth,hatchsep=1\pslinewidth} -% \newpsstyle{TransparencyBlue}{fillstyle=vlines,hatchcolor=gray75,% -% hatchwidth=0.1\pslinewidth,hatchsep=1\pslinewidth} -% \begin{pspicture}(-1.2,-1.75)(4.8,3.7) -% \ThreeDput{\psgrid[subgriddiv=0](-2,0)(4,3)} -% \ThreeDput(-1,0,0){\tBlack{black}{SolidYellow}} -% \ThreeDput(2,0,0){\tBlack{black}{SolidYellow}} -% \ThreeDput[embedangle=50](-1,0,0){\tBlack{gray}{TransparencyRed}} -% \ThreeDput[embedangle=50](2,0,0){\tBlack{gray}{TransparencyBlue}} -% \ThreeDput[normal=0 1 0](-1,0,0){\psline[linewidth=0.1,linecolor=red](0,4)} -% \ThreeDput[normal=0 1 0](2,0,0){\psline[linewidth=0.1,linecolor=blue](0,4)} -% \end{pspicture} -% \psset{viewpoint=1 1 100} -% \begin{pspicture}(-2.5,-4.5)(2.8,1.7) -% \ThreeDput{\psgrid[subgriddiv=0](-2,0)(4,3)} -% \ThreeDput(-1,0,0){\tBlack{black}{SolidYellow}} -% \ThreeDput(2,0,0){\tBlack{black}{SolidYellow}} -% \ThreeDput[embedangle=50](-1,0,0){\tBlack{gray}{TransparencyRed}} -% \ThreeDput[embedangle=50](2,0,0){\tBlack{gray}{TransparencyBlue}} -% \ThreeDput[normal=0 1 0](-1,0,0){\psline[linewidth=0.1,linecolor=red](0,4)} -% \ThreeDput[normal=0 1 0](2,0,0){\psline[linewidth=0.1,linecolor=blue](0,4)} -% \end{pspicture} -% \end{CenterExample} -% -% -% \StopEventually{} -% -% ^^A .................... End of the documentation part .................... -% -% \section{Driver file} -% -% The next bit of code contains the documentation driver file for \TeX{}, -% i.e., the file that will produce the documentation you are currently -% reading. It will be extracted from this file by the \texttt{docstrip} -% program. -% -% -% \section{\PstIIIDPackage{} \LaTeX{} wrapper} -% -% \begin{macrocode} -%<*latex-wrapper> -%% -\RequirePackage{pstricks} -\ProvidesPackage{pst-3d}[2005/09/02 package wrapper for - pst-3d.tex (hv)] -\input{pst-3d.tex} -\ProvidesFile{pst-3d.tex} - [\filedate\space v\fileversion\space `PST-3d' (tvz)] -% -% \end{macrocode} -% -% \section{\PstIIIDPackage{} code} -% -%<*pst-3d> -% -% \verb+pst-3d+ Require the basic \verb+pstricks+ package and for the key value -% operations the \verb+pst-xkey+ package. -% -% \begin{macrocode} -\ifx\PSTricksLoaded\endinput\else\input pstricks.tex\fi -\ifx\PSTXKeyLoaded\endinput\else\input pst-xkey \fi % (hv 2005-09-03) -% \end{macrocode} -% -% Catcodes changes. -% -% \begin{macrocode} -\edef\PstAtCode{\the\catcode`\@} -\catcode`\@=11\relax -% \end{macrocode} -% -% Add the key-family name to the xkeyval package -% -% \begin{macrocode} -\pst@addfams{pst-3d} -% \end{macrocode} -% -\def\fileversion{1.00} -\def\filedate{2005/09/03} -\message{`PST-3d' v\fileversion, \filedate\space (tvz)} -% -% Mark the package as loaded -% -% \begin{macrocode} -\csname PSTthreeDLoaded\endcsname -\let\PSTthreeDLoaded\endinput -% \end{macrocode} -% -% \subsection{Basic 3D transformations} -% -% \begin{macro}{\tx@SetMatrixThreeD} -% Viewpoint for 3D coordinates is given by three angles: $\alpha$, $\beta$ and -% $\gamma$. $\alpha$ and $\beta$ determine the direction from which one is -% looking. $\gamma$ then determines the orientation of the observing. -% When $\alpha$, $\beta$ and $\gamma$ are all zero, the observer is looking -% from the negative part of the $y$-axis, and sees the $xz$-plane the way in -% 2D one sees the $xy$ plan. Hence, to convert the 3D coordinates to their 2D -% project, $\langle x, y, z\rangle$ map to $\langle x, z\rangle$. -% When the orientation is different, we rotate the coordinates, and then -% perform the same projection. -% We move up to latitude $\beta$, over to longitude $\alpha$, and then rotate -% by $\gamma$. This means that we first rotate around $y$-axis by $\gamma$, -% then around $x$-axis by $\beta$, and the around $z$-axis by $\alpha$. -% -% Here are the matrices: -% \begin{eqnarray*} -% R_z(\alpha) & = & \left[ -% \begin{array}{ccc} -% \cos \alpha & -\sin \alpha & 0 \\ -% \sin \alpha & cos \alpha & 0 \\ -% 0 & 0 & 1 -% \end{array} \right] \\ -% R_x(\beta) & = & \left[ -% \begin{array}{ccc} -% 1 & 0 & 0 \\ -% 0 & \cos \beta & \sin \beta \\ -% 0 & -\sin \beta & \cos \beta -% \end{array} \right] \\ -% R_y(\gamma) & = & \left[ -% \begin{array}{ccc} -% \cos \gamma & 0 & -\sin \gamma \\ -% 0 & 1 & 0 \\ -% \sin \gamma & 0 & \cos \gamma -% \end{array} \right] -% \end{eqnarray*} -% -% The rotation of a coordinate is then performed by the matrix $R_z(\alpha) -% R_x(\beta) R_y(\gamma)$. The first and third columns of the matrix are the -% basis vectors of the plan upon which the 3D coordinates are project (the old -% basis vectors were $\langle 1, 0, 0\rangle$ and $\langle 0, 0, 1\rangle$; rotating these -% gives the first and third columns of the matrix). -% -% These new base vectors are: -% \begin{eqnarray*} -% \tilde{x} & = & \left[ -% \begin{array}{c} -% \cos\alpha \cos\gamma - \sin\beta \sin\alpha \sin\gamma \\ -% \sin\alpha \cos\gamma + \sin\beta \cos\alpha \sin\gamma \\ -% \cos\beta \sin\gamma -% \end{array} \right] \\ -% \tilde{z} & = & \left[ -% \begin{array}{c} -% -\cos\alpha \sin\gamma - \sin\beta \sin\alpha \cos\gamma \\ -% -\sin\alpha \sin\gamma + \sin\beta \cos\alpha \cos\gamma \\ -% \cos\beta \cos\gamma -% \end{array} \right] -% \end{eqnarray*} -% -% Rather than specifying the angles $\alpha$ and $\beta$, the user gives a -% vector indicating where the viewpoint is. This new viewpoint is the rotation -% o the old viewpoint. The old viewpoint is $\langle 0, -1, 0\rangle$, and so the new -% viewpoint is -% \[ -% R_z(\alpha) R_x(\beta) \left[ \begin{array}{c} 0\\-1\\0 \end{array} \right] -% \, = \, -% \left[ \begin{array}{c} -% \cos\beta \sin\alpha \\ -% -\cos\beta \cos\alpha \\ -% \sin\beta -% \end{array} \right] -% \, = \, -% \left[ \begin{array}{c} v_1 \\ v_2 \\ v_3 \end{array} \right] -% \] -% Therefore, -% \begin{eqnarray*} -% \alpha & = & \arc\tan (v_1 / -v_2) \\ -% \beta & = & \arc\tan (v_3 \sin\alpha / v_1) -% \end{eqnarray*} -% Unless $p_1=p_2=0$, in which case $\alpha=0$ and $\beta=\sign(p_3)90$, or -% $p_1=p_3=0$, in which case $\beta=0$. -% -% The syntax of \verb+SetMatrixThreeD+ is -% \[ -% v_1\ v_2\ v_3\ \gamma\ \mathrm{SetMatrixThreeD} -% \] -% \verb+SetMatrixThreeD+ first computes -% \[ -% \begin{array}{ll} -% a=\sin\alpha & b=\cos\alpha\\ -% c=\sin\beta & d=\cos\beta\\ -% e=\sin\gamma & f=\cos\gamma -% \end{array} -% \] -% and then sets \verb+Matrix3D+ to \verb+[+$\tilde{x}$ $\tilde{z}$\verb+]+. -% -% \begin{macrocode} -\pst@def{SetMatrixThreeD}<% - dup sin /e ED cos /f ED - /p3 ED /p2 ED /p1 ED - p1 0 eq - { /a 0 def /b p2 0 le { 1 } { -1 } ifelse def - p3 p2 abs - } - { p2 0 eq - { /a p1 0 lt { -1 } { 1 } ifelse def /b 0 def - p3 p1 abs - } - { p1 dup mul p2 dup mul add sqrt dup - p1 exch div /a ED - p2 exch div neg /b ED - p3 p1 a div - } - ifelse - } - ifelse - atan dup sin /c ED cos /d ED - /Matrix3D - [ - b f mul c a mul e mul sub - a f mul c b mul e mul add - d e mul - b e mul neg c a mul f mul sub - a e mul neg c b mul f mul add - d f mul - ] def> -% \end{macrocode} -% \end{macro} -% -% \begin{macro}{\tx@ProjThreeD} -% The syntax of the macro \verb+tx@ProjThreeD+ is -% \[ -% x\ y\ z\ \mathrm{ProjThreeD}\ x'\ y' -% \] -% where $x'=\langle x, y, z\rangle \cdot \tilde{x}$ and $y'=\langle x, y, z\rangle \cdot -% \tilde{z}$. -% -% \begin{macrocode} -\pst@def{ProjThreeD}<% - /z ED /y ED /x ED - Matrix3D aload pop - z mul exch y mul add exch x mul add - 4 1 roll - z mul exch y mul add exch x mul add - exch> -% \end{macrocode} -% -% To embed 2D $\langle x, y\rangle$ coordinates in 3D, the user specifies the normal -% vector and an angle. If we decompose this normal vector into an angle, as -% when converting 3D coordinates to 2D coordinates, and let $\hat\alpha$, -% $\hat\beta$ and $\hat\gamma$ be the three angles, then when these angles are -% all zero the coordinate $\langle x, y\rangle$ gets mapped to $\langle x, 0, y\rangle$, and -% otherwise $\langle x, y\rangle$ gets mapped to -% \[ -% R_z(\hat\alpha) R_x(\hat\beta) R_y(\hat\gamma) -% \left[ \begin{array}{c} x \\ 0 \\ y \end{array} \right] -% \, = \, -% \left[ \begin{array}{c} -% \hat{x}_1 x + \hat{z}_1 y\\ -% \hat{x}_2 x + \hat{z}_2 y\\ -% \hat{x}_3 x + \hat{z}_3 y -% \end{array} \right] -% \] -% where $\hat{x}$ and $\hat{z}$ are the first and third columns of $R_z(\hat\alpha) R_x(\hat\beta) R_y(\hat\gamma)$. -% -% Now add on a 3D-origin: -% \[ -% \left[ \begin{array}{c} -% \hat{x}_1 x + \hat{z}_1 y + x_0\\ -% \hat{x}_2 x + \hat{z}_2 y + y_0\\ -% \hat{x}_3 x + \hat{z}_3 y + z_0 -% \end{array} \right] -% \] -% -% Now when we project back onto 2D coordinates, we get -% \begin{align*} -% x' & = \tilde{x}_1(\hat{x}_1 x + \hat{z}_1 y + x_0) + -% \tilde{x}_2(\hat{x}_2 x + \hat{z}_2 y + y_0) + -% \tilde{x}_3(\hat{x}_3 x + \hat{z}_3 y + z_0)\\ -% & = -% (\tilde{x}_1\hat{x}_1 + \tilde{x}_2\hat{x}_2 + \tilde{x}_3\hat{x}_3) x -% + (\tilde{x}_1\hat{z}_1 + \tilde{x}_2\hat{z}_2 + \tilde{x}_3\hat{z}_3) y -% + \tilde{x}_1 x_0 + \tilde{x}_2 y_0 + \tilde{z}_3 z_0\\ -% y' & = \tilde{z}_1(\hat{x}_1 x + \hat{z}_1 y + x_0) + -% \tilde{z}_2(\hat{x}_2 x + \hat{z}_2 y + y_0) + -% \tilde{z}_3(\hat{x}_3 x + \hat{z}_3 y + z_0)\\ -% & = -% (\tilde{z}_1\hat{x}_1 + \tilde{z}_2\hat{x}_2 + \tilde{z}_3\hat{x}_3) x -% + (\tilde{z}_1\hat{z}_1 + \tilde{z}_2\hat{z}_2 + \tilde{z}_3\hat{z}_3) y -% + \tilde{z}_1 x_0 + \tilde{z}_2 y_0 + \tilde{z}_3 z_0 -% \end{align*} -% Hence, the transformation matrix is: -% \[ -% \left[ \begin{array}{c} -% \tilde{x}_1\hat{x}_1 + \tilde{x}_2\hat{x}_2 + \tilde{x}_3\hat{x}_3) \\ -% \tilde{z}_1\hat{x}_1 + \tilde{z}_2\hat{x}_2 + \tilde{z}_3\hat{x}_3) \\ -% \tilde{x}_1\hat{z}_1 + \tilde{x}_2\hat{z}_2 + \tilde{x}_3\hat{z}_3) \\ -% \tilde{z}_1\hat{z}_1 + \tilde{z}_2\hat{z}_2 + \tilde{z}_3\hat{z}_3) \\ -% \tilde{x}_1 x_0 + \tilde{x}_2 y_0 + \tilde{z}_3 z_0 \\ -% \tilde{z}_1 x_0 + \tilde{z}_2 y_0 + \tilde{z}_3 z_0 -% \end{array} \right] -% \] -% \end{macro} -% \begin{macro}{\tx@SetMatrixEmbed} -% The syntax of \verb+SetMatrixEmbed+ is -% \begin{align*} -% x_0\ y_0\ z_0\ \hat{v_1}\ \hat{v_2}\ \hat{v_3}\ \hat{\gamma}\\ -% v_1\ v_2\ v_3\ \gamma\ \mathrm{setMatrixEmbed} -% \end{align*} -% \verb+SetMatrixEmbed+ first sets \verb++ to the basis vectors for -% the viewpoint projection (the tilde stuff above). Then it sets \verb+Matrix3D+ to -% the basis vectors for the embedded plane. Finally, it sets the -% transformation matrix to the matrix given above. -% -% \begin{macrocode} -\pst@def{SetMatrixEmbed}<% - \tx@SetMatrixThreeD - Matrix3D aload pop - /z3 ED /z2 ED /z1 ED /x3 ED /x2 ED /x1 ED - \tx@SetMatrixThreeD - [ - Matrix3D aload pop - z3 mul exch z2 mul add exch z1 mul add 4 1 roll - z3 mul exch z2 mul add exch z1 mul add - Matrix3D aload pop - x3 mul exch x2 mul add exch x1 mul add 4 1 roll - x3 mul exch x2 mul add exch x1 mul add - 3 -1 roll 3 -1 roll 4 -1 roll 8 -3 roll 3 copy - x3 mul exch x2 mul add exch x1 mul add 4 1 roll - z3 mul exch z2 mul add exch z1 mul add - ] - concat> -% \end{macrocode} -% \end{macro} -% -% \subsection{Parameter} -% -% \begin{macro}{\psk@viewpoint} -% First we need a macro \verb+\pssetzlength+ for the third coordinate. It is adopted from -% the definition of the y-axes: -% \begin{macrocode} -\let\pssetzlength\pssetylength -% \end{macrocode} -% The viewpoint is set by its three coordinates $(x\ y\ z)$. It is preset -% to $x=1$, $y=-1$ and $z=1$. -% \begin{macrocode} -\define@key[psset]{pst-3d}{viewpoint}{% - \pst@expandafter\psset@@viewpoint#1 {} {} {} \@nil - \let\psk@viewpoint\pst@tempg} -\def\psset@@viewpoint#1 #2 #3 #4\@nil{% - \begingroup - \pssetxlength\pst@dima{#1}% - \pssetylength\pst@dimb{#2}% - \pssetzlength\pst@dimc{#3}% - \xdef\pst@tempg{% - \pst@number\pst@dima \pst@number\pst@dimb \pst@number\pst@dimc}% - \endgroup} -\psset[pst-3d]{viewpoint=1 -1 1} -% \end{macrocode} -% \end{macro} -% -% \begin{macro}{\psk@viewangle} -% \begin{macrocode} -\define@key[psset]{pst-3d}{viewangle}{% - \pst@getangle{#1}\psk@viewangle} -\psset[pst-3d]{viewangle=0} -% \end{macrocode} -% \end{macro} -% -% \begin{macro}{\psk@normal} -% \begin{macrocode} -\define@key[psset]{pst-3d}{normal}{% - \pst@expandafter\psset@@viewpoint#1 {} {} {} \@nil - \let\psk@normal\pst@tempg} -\psset[pst-3d]{normal=0 0 1} -% \end{macrocode} -% \end{macro} -% -% \begin{macro}{\psk@embedangle} -% \begin{macrocode} -\define@key[psset]{pst-3d}{embedangle}{% - \pst@getangle{#1}\psk@embedangle} -\psset[pst-3d]{embedangle=0} -% \end{macrocode} -% \end{macro} -% -% \begin{macro}{\psTshadowsize} -% \begin{macrocode} -\define@key[psset]{pst-3d}{Tshadowsize}{% - \pst@checknum{#1}\psTshadowsize} -\psset[pst-3d]{Tshadowsize=1} -% \end{macrocode} -% \end{macro} -% -% \begin{macro}{\psk@Tshadowangle} -% \begin{macrocode} -\define@key[psset]{pst-3d}{Tshadowangle}{% - \pst@getangle{#1}\psk@Tshadowangle} -\psset[pst-3d]{Tshadowangle=60} -% \end{macrocode} -% \end{macro} -% -% \begin{macro}{\psTshadowcolor} -% \begin{macrocode} -\define@key[psset]{pst-3d}{Tshadowcolor}{% - \pst@getcolor{#1}\psTshadowcolor} -\psset[pst-3d]{Tshadowcolor=lightgray} -% \end{macrocode} -% \end{macro} -% - -% \subsection{\texttt{PostScript} code} -% -% \begin{macro}{\tx@TMSave} -% \begin{macrocode} -\pst@def{TMSave}<% - tx@Dict /TMatrix known not { /TMatrix { } def /RAngle { 0 } def } if - /TMatrix [ TMatrix CM ] cvx def> -% \end{macrocode} -% \end{macro} -% \begin{macro}{\tx@TMRestore} -% \begin{macrocode} -\pst@def{TMRestore}<% - CP /TMatrix [ TMatrix setmatrix ] cvx def moveto> -% -% \end{macrocode} -% \end{macro} -% -% \begin{macro}{\tx@TMChange} -% The syntax: -% \begin{verbatim} -% {} TMChange -% \end{verbatim} -% \begin{macrocode} -\pst@def{TMChange}<% - \tx@TMSave - /cp [ currentpoint ] cvx def % ??? Check this later. - CM -% \end{macrocode} -% -% Set ''standard`` coordinate system , with \verb+pt+ units and origin at currentpoint. -% This let's us rotate, or whatever, around \TeX's current point, without -% having to worry about strange coordinate systems that the dvi-to-ps -% driver might be using. -% \begin{macrocode} - CP T \tx@STV -% \end{macrocode} -% Let M = old matrix (on stack), and M' equal current matrix. Then -% go from M' to M by applying M Inv(M'). -% \begin{macrocode} - CM matrix invertmatrix % Inv(M') - matrix concatmatrix % M Inv(M') -% \end{macrocode} -% Now modify transformation matrix: -% \begin{macrocode} - exch exec -% \end{macrocode} -% Now apply M Inv(M') -% \begin{macrocode} - concat cp moveto> -% \end{macrocode} -% \end{macro} -% -% \subsection{Three dimensional operations} -% -% There is only one macro which collects all the basic operations for three dimansional representation -% of a text or graphic object. -% -% \begin{macro}{\ThreeDput} -% \begin{macrocode} -\def\ThreeDput{\def\pst@par{}\pst@object{ThreeDput}} -\def\ThreeDput@i{\@ifnextchar({\ThreeDput@ii}{\ThreeDput@ii(\z@,\z@,\z@)}} -\def\ThreeDput@ii(#1,#2,#3){% - \pst@killglue\pst@makebox{\ThreeDput@iii(#1,#2,#3)}} -\def\ThreeDput@iii(#1,#2,#3){% - \begingroup - \use@par - \if@star\pst@starbox\fi - \pst@makesmall\pst@hbox - \pssetxlength\pst@dima{#1}% - \pssetylength\pst@dimb{#2}% - \pssetzlength\pst@dimc{#3}% - \leavevmode - \hbox{% - \pst@Verb{% - { \pst@number\pst@dima - \pst@number\pst@dimb - \pst@number\pst@dimc - \psk@normal - \psk@embedangle - \psk@viewpoint - \psk@viewangle - \tx@SetMatrixEmbed - } \tx@TMChange}% - \box\pst@hbox - \pst@Verb{\tx@TMRestore}}% - \endgroup - \ignorespaces} -% \end{macrocode} -% \end{macro} -% -% -% \subsection{Arithmetic\label{Arithmetic}} -% -% \begin{macro}{\pst@sinandcos} -% Syntax: -% \begin{LVerbatim} -% \pst@sinandcos{}{} -% \end{LVerbatim} -% , in "sp" units, should equal 100,000 times the angle, in degrees -% between 0 and 90. should equal the angle's quadrant (0, 1, 2 or 3). -% \verb+\pst@dimg+ is set to $\sin(\theta)$ and \verb+\pst@dimh+ is set to -% $\cos(\theta)$ (in pt's). -% -% The algorithms uses the usual McLaurin expansion. -% \begin{macrocode} -\def\pst@sinandcos#1{% - \begingroup - \pst@dima=#1\relax - \pst@dima=.366022\pst@dima %Now 1pt=1/32rad - \pst@dimb=\pst@dima % dimb->32sin(angle) in pts - \pst@dimc=32\p@ % dimc->32cos(angle) in pts - \pst@dimtonum\pst@dima\pst@tempa - \pst@cntb=\tw@ - \pst@cntc=-\@ne - \pst@cntg=32 - \loop - \ifnum\pst@dima>\@cclvi % 256 - \pst@dima=\pst@tempa\pst@dima - \divide\pst@dima\pst@cntg - \divide\pst@dima\pst@cntb - \ifodd\pst@cntb - \advance\pst@dimb \pst@cntc\pst@dima - \pst@cntc=-\pst@cntc - \else - \advance\pst@dimc by \pst@cntc\pst@dima - \fi - \advance\pst@cntb\@ne - \repeat - \divide\pst@dimb\pst@cntg - \divide\pst@dimc\pst@cntg - \global\pst@dimg\pst@dimb - \global\pst@dimh\pst@dimc - \endgroup} -% \end{macrocode} -% \end{macro} -% -% \begin{macro}{\pst@getsinandcos} -% \verb+\pst@getsinandcos+ normalizes the angle to be in the first quadrant, sets -% \verb+\pst@quadrant+ to 0 for the first quadrant, 1 for the second, 2 for the -% third, and 3 for the fourth, invokes \verb+\pst@sinandcos+, and sets \verb+\pst@sin+ -% to the sine and \verb+\pst@cos+ to the cosine. -% \begin{macrocode} -\def\pst@getsinandcos#1{% - \pst@dimg=100000sp - \pst@dimg=#1\pst@dimg - \pst@dimh=36000000sp - \pst@cntg=0 - \loop - \ifnum\pst@dimg<\z@ - \advance\pst@dimg\pst@dimh - \repeat - \loop - \ifnum\pst@dimg>\pst@dimh - \advance\pst@dimg-\pst@dimh - \repeat - \pst@dimh=9000000sp - \def\pst@tempg{% - \ifnum\pst@dimg<\pst@dimh\else - \advance\pst@dimg-\pst@dimh - \advance\pst@cntg\@ne - \ifnum\pst@cntg>\thr@@ \advance\pst@cntg-4 \fi - \expandafter\pst@tempg - \fi}% - \pst@tempg - \chardef\pst@quadrant\pst@cntg - \ifdim\pst@dimg=\z@ - \def\pst@sin{0}% - \def\pst@cos{1}% - \else - \pst@sinandcos\pst@dimg - \pst@dimtonum\pst@dimg\pst@sin - \pst@dimtonum\pst@dimh\pst@cos - \fi% -} -% \end{macrocode} -% \end{macro} -% -% \subsection{Tilting} -% -% \begin{macro}{\pstilt} -% \begin{macrocode} -\def\pstilt#1{\pst@makebox{\pstilt@{#1}}} -\def\pstilt@#1{% - \begingroup - \leavevmode - \pst@getsinandcos{#1}% - \hbox{% - \ifcase\pst@quadrant - \kern\pst@cos\dp\pst@hbox - \pst@dima=\pst@cos\ht\pst@hbox - \ht\pst@hbox=\pst@sin\ht\pst@hbox - \dp\pst@hbox=\pst@sin\dp\pst@hbox - \or - \kern\pst@sin\ht\pst@hbox - \pst@dima=\pst@sin\dp\pst@hbox - \ht\pst@hbox=\pst@cos\ht\pst@hbox - \dp\pst@hbox=\pst@cos\dp\pst@hbox - \or - \kern\pst@cos\ht\pst@hbox - \pst@dima=\pst@sin\dp\pst@hbox - \pst@dimg=\pst@sin\ht\pst@hbox - \ht\pst@hbox=\pst@sin\dp\pst@hbox - \dp\pst@hbox=\pst@dimg - \or - \kern\pst@sin\dp\pst@hbox - \pst@dima=\pst@sin\ht\pst@hbox - \pst@dimg=\pst@cos\ht\pst@hbox - \ht\pst@hbox=\pst@cos\dp\pst@hbox - \dp\pst@hbox=\pst@dimg - \fi - \pst@Verb{% - { [ 1 0 - \pst@cos\space \ifnum\pst@quadrant>\@ne neg \fi - \pst@sin\space - \ifnum\pst@quadrant>\z@\ifnum\pst@quadrant<\thr@@ neg \fi\fi - \ifodd\pst@quadrant exch \fi - 0 0 - ] concat - } \tx@TMChange}% - \box\pst@hbox - \pst@Verb{\tx@TMRestore}% - \kern\pst@dima}% - \endgroup} -% \end{macrocode} -% \end{macro} -% -% \begin{macro}{\psTilt} -% \begin{macrocode} -\def\psTilt#1{\pst@makebox{\psTilt@{#1}}} -\def\psTilt@#1{% - \begingroup - \leavevmode - \pst@getsinandcos{#1}% - \hbox{% - \ifodd\pst@quadrant - \pst@@divide{\dp\pst@hbox}{\pst@cos\p@}% - \ifnum\pst@quadrant=\thr@@\kern\else\pst@dima=\fi\pst@sin\pst@dimg - \pst@@divide{\ht\pst@hbox}{\pst@cos\p@}% - \ifnum\pst@quadrant=\@ne\kern\else\pst@dima=\fi\pst@sin\pst@dimg - \else - \ifdim\pst@sin\p@=\z@ - \@pstrickserr{\string\psTilt\space angle cannot be 0 or 180}\@ehpa - \def\pst@sin{.7071}% - \def\pst@cos{.7071}% - \fi - \pst@@divide{\dp\pst@hbox}{\pst@sin\p@}% - \ifnum\pst@quadrant=\z@\kern\else\pst@dima=\fi\pst@cos\pst@dimg - \pst@@divide{\ht\pst@hbox}{\pst@sin\p@}% - \ifnum\pst@quadrant=\tw@\kern\else\pst@dima=\fi\pst@cos\pst@dimg - \fi - \ifnum\pst@quadrant>\@ne - \pst@dimg=\ht\pst@hbox - \ht\pst@hbox=\dp\pst@hbox - \dp\pst@hbox=\pst@dimg - \fi - \pst@Verb{% - { [ 1 0 - \pst@cos\space \pst@sin\space - \ifodd\pst@quadrant exch \fi - \tx@Div - \ifnum\pst@quadrant>\z@\ifnum\pst@quadrant<\thr@@ neg \fi\fi - \ifnum\pst@quadrant>\@ne -1 \else 1 \fi - 0 0 - ] concat - } \tx@TMChange}% - \box\pst@hbox - \pst@Verb{\tx@TMRestore}% - \kern\pst@dima}% - \endgroup} -% \end{macrocode} -% \end{macro} -% -% -% \subsection{Shadow} -% -% \begin{macro}{\psshadow} -% \begin{macrocode} -\def\psshadow{\pst@object{psshadow}} -\def\psshadow@i{\pst@makebox{\psshadow@ii}} -\def\psshadow@ii{% - \begingroup - \use@par - \leavevmode - \pst@getsinandcos{\psk@Tshadowangle}% - \hbox{% - \lower\dp\pst@hbox\hbox{% - \pst@Verb{% - { [ 1 0 - \pst@cos\space \psTshadowsize mul - \ifnum\pst@quadrant>\@ne neg \fi - \pst@sin\space \psTshadowsize mul - \ifnum\pst@quadrant>\z@\ifnum\pst@quadrant<\thr@@ neg \fi\fi - \ifodd\pst@quadrant exch \fi - 0 0 - ] concat - } \tx@TMChange}}% - \hbox to\z@{% patch 2 (hv), to get it run with xcolor _and_ TeX - \pst@Verb{ gsave \pst@usecolor\psTshadowcolor}% - \copy\pst@hbox - \pst@Verb{ grestore}\hss}% -% \hbox to\z@{{\@nameuse{\psTshadowcolor}\copy\pst@hbox\hss}}% - \pst@Verb{\tx@TMRestore}% - \box\pst@hbox}% - \endgroup} -% \end{macrocode} -% \end{macro} -% -% \subsection{Closing} -% -% Catcodes restoration. -% -% \begin{macrocode} -\catcode`\@=\PstAtCode\relax -% \end{macrocode} -% -% -% -\endinput -%% -%% END pst-3d.tex diff --git a/Master/texmf-dist/source/latex/pst-3d/pst-3d.ins b/Master/texmf-dist/source/latex/pst-3d/pst-3d.ins deleted file mode 100644 index deba1b20071..00000000000 --- a/Master/texmf-dist/source/latex/pst-3d/pst-3d.ins +++ /dev/null @@ -1,38 +0,0 @@ -%% `pst-lens.ins' -%% -%% Docstrip installation instruction file for docstyle `pst-lens' -%% -%% Timothy Van Zandt (tvz) -%% Herbert Voss (hv) -%% -%% September 03, 2005 - -\def\batchfile{pst-3d.ins} -\input docstrip.tex -\keepsilent -\Msg{*** Generating the `pst-3d' package ***} -\askforoverwritefalse -\generate{\file{pst-3d.tex}{\from{pst-3d.dtx}{pst-3d}}} -\generate{\file{pst-3d.sty}{\from{pst-3d.dtx}{latex-wrapper}}} -% -\ifToplevel{% -\Msg{***********************************************************} -\Msg{*} -\Msg{* To finish the installation you have to move the files} -\Msg{* pst-3d.sty and pst-3d.tex in a directory/folder searched by TeX.} -\Msg{*} -\Msg{* To produce the documentation, run the file `pst-3d.dtx'} -\Msg{* through LaTeX.} -\Msg{*} -\Msg{* If you require the commented code, desactivating the} -\Msg{* OnlyDescription macro, you must recompile, execute:} -\Msg{* `makeindex -s gind.ist pst-3d'} -\Msg{* `makeindex -s gglo.ist -o pst-3d.gls pst-3d.glo'} -\Msg{* and recompile.} -\Msg{*} -\Msg{***********************************************************} -} - -\endinput -%% -%% End of file `pst-3d.ins' -- cgit v1.2.3