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Diffstat (limited to 'info/examples/Math/11-03-1.lualtx')
-rw-r--r-- | info/examples/Math/11-03-1.lualtx | 135 |
1 files changed, 72 insertions, 63 deletions
diff --git a/info/examples/Math/11-03-1.lualtx b/info/examples/Math/11-03-1.lualtx index f82b4e635b..cf05f9e3be 100644 --- a/info/examples/Math/11-03-1.lualtx +++ b/info/examples/Math/11-03-1.lualtx @@ -1,83 +1,92 @@ %% %% Ein Beispiel der DANTE-Edition %% Mathematiksatz mit LaTeX -%% 2. Auflage -%% -%% Beispiel 11-03-1 auf Seite 316. -%% -%% Copyright (C) 2012 Herbert Voss +%% 3. Auflage +%% Beispiel 11-03-1 auf Seite 242. +%% Copyright (C) 2018 Herbert Voss %% %% It may be distributed and/or modified under the conditions %% of the LaTeX Project Public License, either version 1.3 %% of this license or (at your option) any later version. -%% %% See http://www.latex-project.org/lppl.txt for details. %% -%% %% ==== % Show page(s) 1 %% %% -\documentclass[]{exaarticle2} +\documentclass[10pt]{exaartplain} \pagestyle{empty} \setlength\textwidth{352.81416pt} \setlength\parindent{0pt} -\StartShownPreambleCommands -\usepackage{amsmath,fontspec,unicode-math,rotating,array,booktabs} -\setmathfont[version=Cambria,math-style=TeX]{Cambria Math} -\setmathfont[version=Asana,math-style=TeX]{Asana Math} -\setmathfont[version=XITS,math-style=TeX]{XITS Math} -\setmathfont[version=LM,math-style=TeX]{Latin Modern Math} -\setmathfont[version=Lucida,math-style=TeX]{Lucida Math} -\setmathfont[version=Euler,math-style=upright]{Neo Euler} -\def\rb#1{\rlap{\rotatebox{40}{#1}}} -\StopShownPreambleCommands +%StartShownPreambleCommands +\usepackage{unicode-math,rotating,array,booktabs} +\newcommand\defmathfont[2]{\setmathfont[version=#1]{#2}} +\defmathfont{LM}{latinmodern-math.otf}%{CC6666} +\defmathfont{XITS}{xits-math.otf}%{CCCC66} +%\defmathfont{STIX}{STIXMath-Regular.otf}%{AA66CC} +\defmathfont{Cambria}{Cambria Math}%{66CCCC} +\defmathfont{Asana}{Asana-Math.otf}%{6666CC} +\defmathfont{Pagella}{texgyrepagella-math.otf}%{AA6666} +\defmathfont{DejaVu}{texgyredejavu-math.otf}%{AACC66} +\defmathfont{Minion}{Minion Math}%{AACC66} +%\defmathfont[math-style=upright]{Euler}{euler.otf}%{CC66CC} +%% +\defmathfont{Bonum}{texgyrebonum-math.otf}%{AACC66} +\defmathfont{Schola}{texgyreschola-math.otf}%{AACC66} +\defmathfont{Termes}{texgyretermes-math.otf}%{AACC66} +\defmathfont{STIXII}{STIX2Math.otf}%{AA66CC} +\defmathfont{Libertinus}{libertinusmath-regular.otf}%{AACC66} +\defmathfont{Hellenic}{GFSNeohellenicMath.otf}%{AACC66} +\defmathfont{Lucida}{LucidaBrightMathOT.otf}%{AACC66} +\defmathfont{Fira}{FiraMath-Regular.otf}%{AACC66} +\def\rb#1{\rlap{\rotatebox{45}{#1}}} +%StopShownPreambleCommands \begin{document} -\begin{tabular}{*6c} +\tabcolsep=2pt +\begin{tabular}{*8c}\toprule %\rb{Computer Modern} & -\rb{Neo Euler} & \rb{Asana Math} & \rb{XITS Math} & \rb{Cambria Math} & \rb{Lucida Math} & \rb{LM Math}\\\toprule -%$\sqrt[a]{b}$ & -\mathversion{Euler}%\setmathfont[range=\mathit/{greek,Greek}]{XITS Math} - $\displaystyle\sqrt[a]{b}$ - & \mathversion{Asana}$\displaystyle\sqrt[a]{b}$ - & \mathversion{XITS}$\displaystyle\sqrt[a]{b}$ - & \mathversion{Cambria}$\displaystyle\sqrt[a]{b}$ - & \mathversion{Lucida}$\displaystyle\sqrt[a]{b}$ - & \mathversion{LM}$\displaystyle\sqrt[a]{b}$\\ - -%$\sqrt[\uproot{10}a]{b}$ & -\mathversion{Euler}%\setmathfont[range=\mathit/{greek,Greek}]{XITS Math} -$\sqrt[\uproot{10}a]{b}$ - & \mathversion{Asana}$\displaystyle\sqrt[\uproot{10}a]{b}$ - & \mathversion{XITS}$\displaystyle\sqrt[\uproot{10}a]{b}$ - & \mathversion{Cambria}$\displaystyle\sqrt[\uproot{10}a]{b}$ - & \mathversion{Lucida}$\displaystyle\sqrt[\uproot{10}a]{b}$ - & \mathversion{LM}$\displaystyle\sqrt[\uproot{10}a]{b}$\\ - -%$\sqrt[\leftroot{10}a]{b}$ & -\mathversion{Euler}%\setmathfont[range=\mathit/{greek,Greek}]{XITS Math} -$\sqrt[\leftroot{10}a]{b}$ - & \mathversion{Asana}$\displaystyle\sqrt[\leftroot{10}a]{b}$ - & \mathversion{XITS}$\displaystyle\sqrt[\leftroot{10}a]{b}$ - & \mathversion{Cambria}$\displaystyle\sqrt[\leftroot{10}a]{b}$ - & \mathversion{Lucida}$\displaystyle\sqrt[\leftroot{10}a]{b}$ - & \mathversion{LM}$\displaystyle\sqrt[\leftroot{10}a]{b}$\\ - -%$\sqrt[\leftroot{10}\uproot{10}a]{b}$ & -\mathversion{Euler}%\setmathfont[range=\mathit/{greek,Greek}]{XITS Math} -$\sqrt[\leftroot{10}\uproot{10}a]{b}$ - & \mathversion{Asana}$\displaystyle\sqrt[\leftroot{10}\uproot{10}a]{b}$ - & \mathversion{XITS}$\displaystyle\sqrt[\leftroot{10}\uproot{10}a]{b}$ - & \mathversion{Cambria}$\displaystyle\sqrt[\leftroot{10}\uproot{10}a]{b}$ - & \mathversion{Lucida}$\displaystyle\sqrt[\leftroot{10}\uproot{10}a]{b}$ - & \mathversion{LM}$\displaystyle\sqrt[\leftroot{10}\uproot{10}a]{b}$ \\ - -%$\displaystyle\int\limits_1^\infty\frac1{\alpha^2}\mathrm d\alpha$ & - \mathversion{Euler}$\displaystyle\int\limits_1^\infty\frac1{\alpha^2}\mathrm d\alpha$ - & \mathversion{Asana}$\displaystyle\int\limits_1^\infty\frac1{\alpha^2}\mathrm d\alpha$ - & \mathversion{XITS}$\displaystyle\int\limits_1^\infty\frac1{\alpha^2}\mathrm d\alpha$ - & \mathversion{Cambria}$\displaystyle\int\limits_1^\infty\frac1{\alpha^2}\mathrm d\alpha$ - & \mathversion{Lucida}$\displaystyle\int\limits_1^\infty\frac1{\alpha^2}\mathrm d\alpha$ - & \mathversion{LM}$\displaystyle\int\limits_1^\infty\frac1{\alpha^2}\mathrm d\alpha$ \\\bottomrule +\rb{Euler} & \rb{Asana} & \rb{XITS} % & \rb{STIX} + & \rb{STIX2} & \rb{Cambria} & \rb{Lucida} & \rb{LM} & \rb{Minion}\\\toprule +\setmathfont[math-style=upright]{Neo Euler}$\displaystyle\sqrt[a]{b}$ + & \mathversion{Asana}$\displaystyle\sqrt[a]{b}$ + & \mathversion{XITS}$\displaystyle\sqrt[a]{b}$ + % & \mathversion{STIX}$\displaystyle\sqrt[a]{b}$ + & \mathversion{STIXII}$\displaystyle\sqrt[a]{b}$ + & \mathversion{Cambria}$\displaystyle\sqrt[a]{b}$ + & \mathversion{Lucida}$\displaystyle\sqrt[a]{b}$ + & \mathversion{LM}$\displaystyle\sqrt[a]{b}$ + & \mathversion{Minion}$\displaystyle\sqrt[a]{b}$ +\\ +\setmathfont[math-style=upright]{Neo Euler}$\displaystyle\int\limits_1^{\infty}\frac1{x^2}\symup dx$ + & \mathversion{Asana}$\displaystyle\int\limits_1^{\infty}\frac1{x^2}\symup dx$ + & \mathversion{XITS}$\displaystyle\int\limits_1^{\infty}\frac1{x^2}\symup dx$ +% & \mathversion{STIX}$\displaystyle\int\limits_1^{\infty}\frac1{x^2}\symup dx$ + & \mathversion{STIXII}$\displaystyle\int\limits_1^{\infty}\frac1{x^2}\symup dx$ + & \mathversion{Cambria}$\displaystyle\int\limits_1^{\infty}\frac1{x^2}\symup dx$ + & \mathversion{Lucida}$\displaystyle\int\limits_1^{\infty}\frac1{x^2}\symup dx$ + & \mathversion{LM}$\displaystyle\int\limits_1^{\infty}\frac1{x^2}\symup dx$ + & \mathversion{Minion}$\displaystyle\int\limits_1^{\infty}\frac1{x^2}\symup dx$ +\\\midrule +\rb{Pagella} & \rb{DejaVu} & \rb{Bonum} & \rb{Schola} & \rb{Termes} & \rb{Libertinus} + & \rb{Hellenic} & \rb{Fira}\\\midrule + \mathversion{Pagella}$\displaystyle\sqrt[a]{b}$ + & \mathversion{DejaVu}$\displaystyle\sqrt[a]{b}$ + & \mathversion{Bonum}$\displaystyle\sqrt[a]{b}$ + & \mathversion{Schola}$\displaystyle\sqrt[a]{b}$ + & \mathversion{Termes}$\displaystyle\sqrt[a]{b}$ + & \mathversion{Libertinus}$\displaystyle\sqrt[a]{b}$ + & \mathversion{Hellenic}$\displaystyle\sqrt[a]{b}$ + & \mathversion{Fira}$\displaystyle\sqrt[a]{b}$ +\\ + \mathversion{Pagella}$\displaystyle\int\limits_1^{\infty}\frac1{x^2}\symup dx$ + & \mathversion{DejaVu}$\displaystyle\int\limits_1^{\infty}\frac1{x^2}\symup dx$ + & \mathversion{Bonum}$\displaystyle\int\limits_1^{\infty}\frac1{x^2}\symup dx$ + & \mathversion{Schola}$\displaystyle\int\limits_1^{\infty}\frac1{x^2}\symup dx$ + & \mathversion{Termes}$\displaystyle\int\limits_1^{\infty}\frac1{x^2}\symup dx$ + & \mathversion{Libertinus}$\displaystyle\int\limits_1^{\infty}\frac1{x^2}\symup dx$ + & \mathversion{Hellenic}$\displaystyle\int\limits_1^{\infty}\frac1{x^2}\symup dx$ + & \mathversion{Fira}$\displaystyle\int\limits_1^{\infty}\frac1{x^2}\symup dx$ +\\ +\bottomrule \end{tabular} \end{document} |