다음 TikZ 그림의 캡션 정렬과 일반적인 미학을 어떻게 개선할 수 있습니까?
\documentclass[border=3pt,tikz]{report}
\usepackage{tikz}
\usepackage{float}
\usepackage{caption}
\usetikzlibrary{arrows.meta} % for arrow size
\tikzset{>=latex}
\begin{figure}[H]
\begin{minipage}{0.16\linewidth}
% BLOCK - NORMAL (Unloaded)
\begin{tikzpicture}[x={(0.72cm,-0.08cm)},y={(0.40cm,0.30cm)},z={(0,1cm)}]
\colorlet{metalcol}{blue!25!black!20!white}
\tikzstyle{metal}=[draw=metalcol!30!black,rounded corners=0.1,top color=metalcol,bottom color=metalcol!80!black,shading angle=10]
\tikzstyle{force}=[->,red!65!black]
\def\W{0.7} % side width
\def\H{1.6} % total height
\def\F{0.28*\H} % force magnitude
\draw[metal]
(0,0,0) --++ (\W,0,0) --++ (0,0,\H) --++ (-\W,0,0) -- cycle
(\W,0,0) --++ (0,\W,0) --++ (0,0,\H) --++ (0,-\W,0) -- cycle
(0,0,\H) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\end{tikzpicture}
\caption*{Unloaded}
\end{minipage}%
\hfill% not: "\hspace{0.5cm}"
\begin{minipage}{0.16\linewidth}
% BLOCK - TENSION
\begin{tikzpicture}[x={(0.72cm,-0.08cm)},y={(0.40cm,0.30cm)},z={(0,1cm)}]
\colorlet{metalcol}{blue!25!black!20!white}
\tikzstyle{metal}=[draw=metalcol!30!black,rounded corners=0.1,top color=metalcol,bottom color=metalcol!80!black,shading angle=10]
\tikzstyle{force}=[->,red!65!black]
\def\W{0.7} % side width
\def\H{1.6} % total height
\def\F{0.28*\H} % force magnitude
\def\h{1.12*\H}
\draw[force] (\W/2,\W/2,0) --++ (0,0,-\F);
\node[below=0pt,left=0pt] at (-3.3,7.5) {$\vec{\sigma}$};
\node[below=0pt,left=0pt] at (1.6,-1.4) {$\vec{\sigma}$};
\draw[metal,top color=metalcol!80!blue,bottom color=metalcol!80!blue!80!black]
(0,0,0) --++ (\W,0,0) to[out=92,in=-92]++ (0,0,\h) --++ (-\W,0,0) to[out=-84,in=84] cycle
(\W,0,0) --++ (0,\W,0) to[out=96,in=-96]++ (0,0,\h) --++ (0,-\W,0) to[out=-92,in=92] cycle
(0,0,\h) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (\W/2,\W/2,\h) --++ (0,0,\F);
\end{tikzpicture}
\caption*{Tension}
\end{minipage}%
\hfill% not: "\hspace{0.5cm}"
\begin{minipage}{0.16\linewidth}
% BLOCK - COMPRESSION
\begin{tikzpicture}[x={(0.72cm,-0.08cm)},y={(0.40cm,0.30cm)},z={(0,1cm)}]
\colorlet{metalcol}{blue!25!black!20!white}
\tikzstyle{metal}=[draw=metalcol!30!black,rounded corners=0.1,top color=metalcol,bottom color=metalcol!80!black,shading angle=10]
\tikzstyle{force}=[->,red!65!black]
\def\W{0.7} % side width
\def\H{1.6} % total height
\def\F{0.28*\H} % force magnitude
\def\h{0.88*\H}
\draw[force] (\W/2,\W/2,-\F) --++ (0,0,\F);
\node[below=0pt,left=0pt] at (-2.7,6.4) {$\vec{\sigma}$};
\node[below=0pt,left=0pt] at (1.6,-1.4) {$\vec{\sigma}$};
\draw[metal,top color=metalcol!78!red,bottom color=metalcol!78!red!80!black]
(0,0,0) --++ (\W,0,0) to[out=85,in=-85]++ (0,0,\h) --++ (-\W,0,0) to[out=-99,in=99] cycle
(\W,0,0) --++ (0,\W,0) to[out=81,in=-81]++ (0,0,\h) --++ (0,-\W,0) to[out=-85,in=85] cycle
(0,0,\h) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (\W/2,\W/2,\h+\F) --++ (0,0,-\F);
\end{tikzpicture}
\caption*{Compression}
\end{minipage}
\hfill% not: "\hspace{0.5cm}"
\begin{minipage}{0.16\linewidth}
% BLOCK - BENDING (flexion)
\begin{tikzpicture}[x={(0.72cm,-0.08cm)},y={(0.40cm,0.30cm)},z={(0,1cm)}]
\colorlet{metalcol}{blue!25!black!20!white}
\tikzstyle{metal}=[draw=metalcol!30!black,rounded corners=0.1,top color=metalcol,bottom color=metalcol!80!black,shading angle=10]
\tikzstyle{force}=[->,red!65!black]
\def\W{0.7} % side width
\def\H{1.6} % total height
\def\F{0.28*\H} % force magnitude
\def\F{0.38*\H} % force magnitude
\def\dh{0.02*\H}
\draw[force] (0,0.3*\W,0.85*\H) --++ (-\F,0,-0.25*\F);
\node[below=0pt,left=0pt] at (-2.7,4.8) {$\vec{M}$};
\draw[force] (0,0.4*\W,0.13*\H) --++ (-\F,0, 0.10*\F);
\node[below=0pt,left=0pt] at (-0.2,0.3) {$\vec{M}$};
\draw[metal,top color=metalcol!70!orange,bottom color=metalcol!70!orange!80!black]
(0,0,\dh) -- (\W,0,-\dh) to[out=80,in=-80] (\W,0,\H+\dh) -- (0,0,\H-\dh) to[out=-80,in=80] cycle
(\W,0,-\dh) -- (\W,\W,-\dh) to[out=80,in=-80] (\W,\W,\H+\dh) -- (\W,0,\H+\dh) to[out=-80,in=80] cycle
(0,0,\H-\dh) -- (\W,0,\H+\dh) -- (\W,\W,\H+\dh) -- (0,\W,\H-\dh) -- cycle;
\end{tikzpicture}
\caption*{Bending}
\end{minipage}
\hfill% not: "\hspace{0.5cm}"
\begin{minipage}{0.16\linewidth}
% BLOCK - TORSION
\begin{tikzpicture}[x={(0.72cm,-0.08cm)},y={(0.40cm,0.30cm)},z={(0,1cm)}]
\colorlet{metalcol}{blue!25!black!20!white}
\tikzstyle{metal}=[draw=metalcol!30!black,rounded corners=0.1,top color=metalcol,bottom color=metalcol!80!black,shading angle=10]
\tikzstyle{force}=[->,red!65!black]
\def\W{0.7} % side width
\def\H{1.6} % total height
\def\F{0.28*\H} % force magnitude
\def\F{0.41*\H} % force magnitude
\draw[force] (0,0.04*\W,0.02*\H) --++ (-\F, 0.2*\F,0);
\node[below=0pt,left=0pt] at (-0.6,0.4) {$\vec{\tau}$};
\draw[force] (0,0.96*\W,0.98*\H) --++ (-\F,-0.2*\F,0);
\node[below=0pt,left=0pt] at (-3,4.8) {$\vec{\tau}$};
\draw[metal,top color=metalcol!80!green,bottom color=metalcol!80!green!80!black]
(\W,0,0) --++ (0,\W,0) to[out=92,in=-92]++ (-\W,0,\H) -- cycle;
\draw[metal,top color=metalcol!80!green,bottom color=metalcol!80!green!80!black]
(0,\W,0) to[out=92,in=-92]++ (0,-\W,\H) --++ (\W,0,0) to[out=-92,in=90] cycle;
\draw[metal,top color=metalcol!80!green,bottom color=metalcol!80!green!80!black]
(0,0,0) --++ (\W,0,0) to[out=92,in=-92]++ (0,\W,\H) --++ (0,-\W,0) to[out=-92,in=92] cycle
(0,0,\H) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (1.02*\W,0.10*\W,0.98*\H) --++ (\F, 0.2*\F,0);
\node[below=0pt,left=0pt] at (-0.6,4.8) {$\vec{\tau}$};
\draw[force] (1.02*\W,0.90*\W,0.02*\H) --++ (\F,-0.2*\F,0);
\node[below=0pt,left=0pt] at (1.61,1) {$\vec{\tau}$};
\end{tikzpicture}
\caption*{Torsion}
\end{minipage}
\hfill% not: "\hspace{0.5cm}"
\begin{minipage}{0.16\linewidth}
% BLOCK - SHEAR
\begin{tikzpicture}[x={(0.72cm,-0.08cm)},y={(0.40cm,0.30cm)},z={(0,1cm)}]
\colorlet{metalcol}{blue!25!black!20!white}
\tikzstyle{metal}=[draw=metalcol!30!black,rounded corners=0.1,top color=metalcol,bottom color=metalcol!80!black,shading angle=10]
\tikzstyle{force}=[->,red!65!black]
\def\W{0.7} % side width
\def\H{1.6} % total height
\def\F{0.28*\H} % force magnitude
\def\dw{\W}
\def\F{0.38*\H} % force magnitude
\draw[force] (0,\W/2,0.01*\H) --++ (-\F,0,0);
\node[below=0pt,left=0pt] at (-0.2,5.3) {$\vec{\tau}$};
\draw[metal,top color=metalcol!78!purple,bottom color=metalcol!78!purple!80!black]
(0,0,0) --++ (\W,0,0) --++ (\dw,0,\H) --++ (-\W,0,0) -- cycle
(\W,0,0) --++ (0,\W,0) --++ (\dw,0,\H) --++ (0,-\W,0) -- cycle
(\dw,0,\H) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (\W+\dw,\W/2,0.98*\H) --++ (\F,0,0);
\node[below=0pt,left=0pt] at (-0.6,0.4) {$\vec{\tau}$};
\end{tikzpicture}
\caption*{Shear}
\end{minipage}
\vspace*{3mm}
\caption{Most common types of material deformations}
\end{figure}
\end{document}
이 코드는 실제로 다음과 같은 추악한 결과를 초래합니다.
답변1
나는 egreg의 솔루션이 매우 훌륭하다고 생각하지만 이미 솔루션을 완료했기 때문에 그냥 게시합니다. 하나의 TikZ 환경만 사용하지만 각 블록을 범위에 넣기 때문에 많은 좌표를 조정할 필요가 없었습니다. 게다가 범위를 1/6만큼 이동하여 너비를 추측했습니다 \textwidth
. 주어진 MWE를 사용하면 (tikzpicture의 크기를 조정하지 않고) hbox가 너무 가득 차게 되지만 MWE 자체에 hbox가 너무 가득 차 있기 때문에 실제로 textwidth
는 이것이 크기 조정 없이 작동할 수 있다고 추측합니다 .
\documentclass[border=3pt,tikz]{report}
\usepackage{tikz}
\usepackage{float}
\usepackage{caption}
\usetikzlibrary{arrows.meta} % for arrow size
\tikzset{>=latex}
\begin{document}
\begin{figure}[H]
\colorlet{metalcol}{blue!25!black!20!white}
\tikzstyle{metal}=[draw=metalcol!30!black,rounded corners=0.1,top color=metalcol,bottom color=metalcol!80!black,shading angle=10]
\tikzstyle{force}=[->,red!65!black]
\def\W{0.7} % side width
\def\H{1.6} % total height
\def\F{0.28*\H} % force magnitude
\begin{tikzpicture}[scale=0.96,x={(0.72cm,-0.08cm)},y={(0.40cm,0.30cm)},z={(0,1cm)}]
% BLOCK - NORMAL (Unloaded)
\draw[metal]
(0,0,0) --++ (\W,0,0) --++ (0,0,\H) --++ (-\W,0,0) -- cycle
(\W,0,0) --++ (0,\W,0) --++ (0,0,\H) --++ (0,-\W,0) -- cycle
(0,0,\H) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\node[anchor=center] at (\W/2,\W/2,-1.2){Unloaded\vphantom{p}};
% BLOCK - TENSION
\begin{scope}[xshift=1/6*\textwidth]
\def\h{1.12*\H}
\draw[force] (\W/2,\W/2,0) --++ (0,0,-\F);
\node[below=0pt,left=0pt] at (-3.3,7.5) {$\vec{\sigma}$};
\node[below=0pt,left=0pt] at (1.6,-1.4) {$\vec{\sigma}$};
\draw[metal,top color=metalcol!80!blue,bottom color=metalcol!80!blue!80!black]
(0,0,0) --++ (\W,0,0) to[out=92,in=-92]++ (0,0,\h) --++ (-\W,0,0) to[out=-84,in=84] cycle
(\W,0,0) --++ (0,\W,0) to[out=96,in=-96]++ (0,0,\h) --++ (0,-\W,0) to[out=-92,in=92] cycle
(0,0,\h) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (\W/2,\W/2,\h) --++ (0,0,\F);
\node[anchor=center] at (\W/2,\W/2,-1.2){Tension\vphantom{p}};
\end{scope}
% BLOCK - COMPRESSION
\begin{scope}[xshift=2/6*\textwidth]
\def\h{0.88*\H}
\draw[force] (\W/2,\W/2,-\F) --++ (0,0,\F);
\node[below=0pt,left=0pt] at (-2.7,6.4) {$\vec{\sigma}$};
\node[below=0pt,left=0pt] at (1.6,-1.4) {$\vec{\sigma}$};
\draw[metal,top color=metalcol!78!red,bottom color=metalcol!78!red!80!black]
(0,0,0) --++ (\W,0,0) to[out=85,in=-85]++ (0,0,\h) --++ (-\W,0,0) to[out=-99,in=99] cycle
(\W,0,0) --++ (0,\W,0) to[out=81,in=-81]++ (0,0,\h) --++ (0,-\W,0) to[out=-85,in=85] cycle
(0,0,\h) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (\W/2,\W/2,\h+\F) --++ (0,0,-\F);
\node[anchor=center] at (\W/2,\W/2,-1.2){Compression};
\end{scope}
% BLOCK - BENDING (flexion)
\begin{scope}[xshift=3/6*\textwidth]
\def\F{0.38*\H} % force magnitude
\def\dh{0.02*\H}
\draw[force] (0,0.3*\W,0.85*\H) --++ (-\F,0,-0.25*\F);
\node[below=0pt,left=0pt] at (-2.7,4.8) {$\vec{M}$};
\draw[force] (0,0.4*\W,0.13*\H) --++ (-\F,0, 0.10*\F);
\node[below=0pt,left=0pt] at (-0.2,0.3) {$\vec{M}$};
\draw[metal,top color=metalcol!70!orange,bottom color=metalcol!70!orange!80!black]
(0,0,\dh) -- (\W,0,-\dh) to[out=80,in=-80] (\W,0,\H+\dh) -- (0,0,\H-\dh) to[out=-80,in=80] cycle
(\W,0,-\dh) -- (\W,\W,-\dh) to[out=80,in=-80] (\W,\W,\H+\dh) -- (\W,0,\H+\dh) to[out=-80,in=80] cycle
(0,0,\H-\dh) -- (\W,0,\H+\dh) -- (\W,\W,\H+\dh) -- (0,\W,\H-\dh) -- cycle;
\node[anchor=center] at (\W/2,\W/2,-1.2){Bending};
\end{scope}
% BLOCK - TORSION
\begin{scope}[xshift=4/6*\textwidth]
\def\F{0.41*\H} % force magnitude
\draw[force] (0,0.04*\W,0.02*\H) --++ (-\F, 0.2*\F,0);
\node[below=0pt,left=0pt] at (-0.6,0.4) {$\vec{\tau}$};
\draw[force] (0,0.96*\W,0.98*\H) --++ (-\F,-0.2*\F,0);
\node[below=0pt,left=0pt] at (-3,4.8) {$\vec{\tau}$};
\draw[metal,top color=metalcol!80!green,bottom color=metalcol!80!green!80!black]
(\W,0,0) --++ (0,\W,0) to[out=92,in=-92]++ (-\W,0,\H) -- cycle;
\draw[metal,top color=metalcol!80!green,bottom color=metalcol!80!green!80!black]
(0,\W,0) to[out=92,in=-92]++ (0,-\W,\H) --++ (\W,0,0) to[out=-92,in=90] cycle;
\draw[metal,top color=metalcol!80!green,bottom color=metalcol!80!green!80!black]
(0,0,0) --++ (\W,0,0) to[out=92,in=-92]++ (0,\W,\H) --++ (0,-\W,0) to[out=-92,in=92] cycle
(0,0,\H) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (1.02*\W,0.10*\W,0.98*\H) --++ (\F, 0.2*\F,0);
\node[below=0pt,left=0pt] at (-0.6,4.8) {$\vec{\tau}$};
\draw[force] (1.02*\W,0.90*\W,0.02*\H) --++ (\F,-0.2*\F,0);
\node[below=0pt,left=0pt] at (1.61,1) {$\vec{\tau}$};
\node[anchor=center] at (\W/2,\W/2,-1.2){Torsion\vphantom{p}};
\end{scope}
% BLOCK - SHEAR
\begin{scope}[xshift=5/6*\textwidth]
\def\dw{\W}
\def\F{0.38*\H} % force magnitude
\draw[force] (0,\W/2,0.01*\H) --++ (-\F,0,0);
\node[below=0pt,left=0pt] at (-0.2,5.3) {$\vec{\tau}$};
\draw[metal,top color=metalcol!78!purple,bottom color=metalcol!78!purple!80!black]
(0,0,0) --++ (\W,0,0) --++ (\dw,0,\H) --++ (-\W,0,0) -- cycle
(\W,0,0) --++ (0,\W,0) --++ (\dw,0,\H) --++ (0,-\W,0) -- cycle
(\dw,0,\H) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (\W+\dw,\W/2,0.98*\H) --++ (\F,0,0);
\node[below=0pt,left=0pt] at (-0.6,0.4) {$\vec{\tau}$};
\node[anchor=center] at (\W/2+\dw/2,\W/2,-1.2){Shear\vphantom{p}};
\end{scope}
\end{tikzpicture}
\caption{Most common types of material deformations}
\end{figure}
\end{document}
이 솔루션은 아마도 훨씬 덜 우아할 수 있지만 선호할 경우를 대비하여 빔 사이의 공간을 고르게 퍼뜨리는 대신 등거리로 빔을 퍼뜨립니다.
답변2
tabular*
너비를 추측할 필요가 없도록 외부 를 사용하는 것이 좋습니다 . 각 사진은 고유한 tabular
환경에 있으므로 수직으로 정렬됩니다.
나는 \footnotesize
텍스트 너비를 넘지 않도록 사용했습니다. 문서의 실제 텍스트 너비에 따라 사용하지 \small
않거나 전혀 사용하지 않을 수도 있습니다.
몇 년 전에 더 이상 사용되지 않습니다 \tikzstyle
.
\documentclass{report}
\usepackage{tikz}
\usetikzlibrary{arrows.meta} % for arrow size
\tikzset{
>=latex,
metal/.style={
draw=metalcol!30!black,
rounded corners=0.1,
top color=metalcol,
bottom color=metalcol!80!black,
shading angle=10,
},
force/.style={->,red!65!black}
}
\begin{document}
\begin{figure}[htp]
\centering\footnotesize
\setlength{\tabcolsep}{0pt}
\begin{tabular*}{\textwidth}{@{\extracolsep{\fill}}cccccc@{}}
\begin{tabular}{@{}c@{}}
% BLOCK - NORMAL (Unloaded)
\begin{tikzpicture}[x={(0.72cm,-0.08cm)},y={(0.40cm,0.30cm)},z={(0,1cm)}]
\colorlet{metalcol}{blue!25!black!20!white}
\def\W{0.7} % side width
\def\H{1.6} % total height
\def\F{0.28*\H} % force magnitude
\draw[metal]
(0,0,0) --++ (\W,0,0) --++ (0,0,\H) --++ (-\W,0,0) -- cycle
(\W,0,0) --++ (0,\W,0) --++ (0,0,\H) --++ (0,-\W,0) -- cycle
(0,0,\H) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\end{tikzpicture}
\end{tabular}
&
% BLOCK - TENSION
\begin{tabular}{@{}c@{}}
\begin{tikzpicture}[x={(0.72cm,-0.08cm)},y={(0.40cm,0.30cm)},z={(0,1cm)}]
\colorlet{metalcol}{blue!25!black!20!white}
\def\W{0.7} % side width
\def\H{1.6} % total height
\def\F{0.28*\H} % force magnitude
\def\h{1.12*\H}
\draw[force] (\W/2,\W/2,0) --++ (0,0,-\F);
\node[below=0pt,left=0pt] at (-3.3,7.5) {$\vec{\sigma}$};
\node[below=0pt,left=0pt] at (1.6,-1.4) {$\vec{\sigma}$};
\draw[metal,top color=metalcol!80!blue,bottom color=metalcol!80!blue!80!black]
(0,0,0) --++ (\W,0,0) to[out=92,in=-92]++ (0,0,\h) --++ (-\W,0,0) to[out=-84,in=84] cycle
(\W,0,0) --++ (0,\W,0) to[out=96,in=-96]++ (0,0,\h) --++ (0,-\W,0) to[out=-92,in=92] cycle
(0,0,\h) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (\W/2,\W/2,\h) --++ (0,0,\F);
\end{tikzpicture}
\end{tabular}
&
% BLOCK - COMPRESSION
\begin{tabular}{@{}c@{}}
\begin{tikzpicture}[x={(0.72cm,-0.08cm)},y={(0.40cm,0.30cm)},z={(0,1cm)}]
\colorlet{metalcol}{blue!25!black!20!white}
\def\W{0.7} % side width
\def\H{1.6} % total height
\def\F{0.28*\H} % force magnitude
\def\h{0.88*\H}
\draw[force] (\W/2,\W/2,-\F) --++ (0,0,\F);
\node[below=0pt,left=0pt] at (-2.7,6.4) {$\vec{\sigma}$};
\node[below=0pt,left=0pt] at (1.6,-1.4) {$\vec{\sigma}$};
\draw[metal,top color=metalcol!78!red,bottom color=metalcol!78!red!80!black]
(0,0,0) --++ (\W,0,0) to[out=85,in=-85]++ (0,0,\h) --++ (-\W,0,0) to[out=-99,in=99] cycle
(\W,0,0) --++ (0,\W,0) to[out=81,in=-81]++ (0,0,\h) --++ (0,-\W,0) to[out=-85,in=85] cycle
(0,0,\h) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (\W/2,\W/2,\h+\F) --++ (0,0,-\F);
\end{tikzpicture}
\end{tabular}
&
\begin{tabular}{@{}c@{}}
% BLOCK - BENDING (flexion)
\begin{tikzpicture}[x={(0.72cm,-0.08cm)},y={(0.40cm,0.30cm)},z={(0,1cm)}]
\colorlet{metalcol}{blue!25!black!20!white}
\def\W{0.7} % side width
\def\H{1.6} % total height
\def\F{0.38*\H} % force magnitude
\def\dh{0.02*\H}
\draw[force] (0,0.3*\W,0.85*\H) --++ (-\F,0,-0.25*\F);
\node[below=0pt,left=0pt] at (-2.7,4.8) {$\vec{M}$};
\draw[force] (0,0.4*\W,0.13*\H) --++ (-\F,0, 0.10*\F);
\node[below=0pt,left=0pt] at (-0.2,0.3) {$\vec{M}$};
\draw[metal,top color=metalcol!70!orange,bottom color=metalcol!70!orange!80!black]
(0,0,\dh) -- (\W,0,-\dh) to[out=80,in=-80] (\W,0,\H+\dh) -- (0,0,\H-\dh) to[out=-80,in=80] cycle
(\W,0,-\dh) -- (\W,\W,-\dh) to[out=80,in=-80] (\W,\W,\H+\dh) -- (\W,0,\H+\dh) to[out=-80,in=80] cycle
(0,0,\H-\dh) -- (\W,0,\H+\dh) -- (\W,\W,\H+\dh) -- (0,\W,\H-\dh) -- cycle;
\end{tikzpicture}
\end{tabular}
&
\begin{tabular}{@{}c@{}}
% BLOCK - TORSION
\begin{tikzpicture}[x={(0.72cm,-0.08cm)},y={(0.40cm,0.30cm)},z={(0,1cm)}]
\colorlet{metalcol}{blue!25!black!20!white}
\def\W{0.7} % side width
\def\H{1.6} % total height
\def\F{0.41*\H} % force magnitude
\draw[force] (0,0.04*\W,0.02*\H) --++ (-\F, 0.2*\F,0);
\node[below=0pt,left=0pt] at (-0.6,0.4) {$\vec{\tau}$};
\draw[force] (0,0.96*\W,0.98*\H) --++ (-\F,-0.2*\F,0);
\node[below=0pt,left=0pt] at (-3,4.8) {$\vec{\tau}$};
\draw[metal,top color=metalcol!80!green,bottom color=metalcol!80!green!80!black]
(\W,0,0) --++ (0,\W,0) to[out=92,in=-92]++ (-\W,0,\H) -- cycle;
\draw[metal,top color=metalcol!80!green,bottom color=metalcol!80!green!80!black]
(0,\W,0) to[out=92,in=-92]++ (0,-\W,\H) --++ (\W,0,0) to[out=-92,in=90] cycle;
\draw[metal,top color=metalcol!80!green,bottom color=metalcol!80!green!80!black]
(0,0,0) --++ (\W,0,0) to[out=92,in=-92]++ (0,\W,\H) --++ (0,-\W,0) to[out=-92,in=92] cycle
(0,0,\H) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (1.02*\W,0.10*\W,0.98*\H) --++ (\F, 0.2*\F,0);
\node[below=0pt,left=0pt] at (-0.6,4.8) {$\vec{\tau}$};
\draw[force] (1.02*\W,0.90*\W,0.02*\H) --++ (\F,-0.2*\F,0);
\node[below=0pt,left=0pt] at (1.61,1) {$\vec{\tau}$};
\end{tikzpicture}
\end{tabular}
&
\begin{tabular}{@{}c@{}}
% BLOCK - SHEAR
\begin{tikzpicture}[x={(0.72cm,-0.08cm)},y={(0.40cm,0.30cm)},z={(0,1cm)}]
\colorlet{metalcol}{blue!25!black!20!white}
\def\W{0.7} % side width
\def\H{1.6} % total height
\def\dw{\W}
\def\F{0.38*\H} % force magnitude
\draw[force] (0,\W/2,0.01*\H) --++ (-\F,0,0);
\node[below=0pt,left=0pt] at (-0.2,5.3) {$\vec{\tau}$};
\draw[metal,top color=metalcol!78!purple,bottom color=metalcol!78!purple!80!black]
(0,0,0) --++ (\W,0,0) --++ (\dw,0,\H) --++ (-\W,0,0) -- cycle
(\W,0,0) --++ (0,\W,0) --++ (\dw,0,\H) --++ (0,-\W,0) -- cycle
(\dw,0,\H) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (\W+\dw,\W/2,0.98*\H) --++ (\F,0,0);
\node[below=0pt,left=0pt] at (-0.6,0.4) {$\vec{\tau}$};
\end{tikzpicture}
\end{tabular}
\\
Unloaded & Tension & Compression & Bending & Torsion & Shear
\end{tabular*}
\caption{Most common types of material deformations}
\end{figure}
\end{document}
답변3
첫 번째 단계subfigure
: od subcaption
패키지를 사용하여 그림 코드를 훨씬 짧게 만들고 하위 캡션을 수직으로 정렬합니다 .
\documentclass{report}
\usepackage{subcaption}
\usepackage{tikz}
\usetikzlibrary{arrows.meta} % for arrow size
\colorlet{metalcol}{blue!25!black!20!white}
\begin{document}
\begin{figure}[ht]
\tikzset{
>=Straight Barb,
x={(0.72cm,-0.08cm)},y={(0.40cm,0.30cm)},z={(0,1cm)},
metal/.style args = {#1/#2}{draw=metalcol!30!black, rounded corners=0.1,
top color=metalcol!#1, bottom color=metalcol!#2,
shading angle=10},
force/.style = {->,red!65!black}
}
\def\W{0.7} % side width
\def\H{1.6} % total height
\def\F{0.28*\H} % force magnitude
\begin{subfigure}[b]{0.16\linewidth}
\begin{tikzpicture}
%
\draw[metal=1/80!black] %top color=metalcol,bottom color=metalcol!80!black
(0,0,0) --++ (\W,0,0) --++ (0,0,\H) --++ (-\W,0,0) -- cycle
(\W,0,0) --++ (0,\W,0) --++ (0,0,\H) --++ (0,-\W,0) -- cycle
(0,0,\H) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\end{tikzpicture}
\caption*{Unloaded}
\end{subfigure}%
\hfill
\begin{subfigure}[b]{0.16\linewidth}
\begin{tikzpicture}
\def\h{1.12*\H}
\draw[force] (\W/2,\W/2,0) --++ (0,0,-\F);
\node[below,left] at (-3.3,7.5) {$\vec{\sigma}$};
\node[below,left] at (1.6,-1.4) {$\vec{\sigma}$};
\draw[metal=80!blue/80!blue!80!black]
(0,0,0) --++ (\W,0,0) to[out=92,in=-92]++ (0,0,\h) --++ (-\W,0,0) to[out=-84,in=84] cycle
(\W,0,0) --++ (0,\W,0) to[out=96,in=-96]++ (0,0,\h) --++ (0,-\W,0) to[out=-92,in=92] cycle
(0,0,\h) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (\W/2,\W/2,\h) --++ (0,0,\F);
\end{tikzpicture}
\caption*{Tension}
\end{subfigure}%
\hfill
\begin{subfigure}[b]{0.16\linewidth}
\begin{tikzpicture}
\def\h{0.88*\H}
\draw[force] (\W/2,\W/2,-\F) --++ (0,0,\F);
\node[below,left] at (-2.7,6.4) {$\vec{\sigma}$};
\node[below,left] at (1.6,-1.4) {$\vec{\sigma}$};
\draw[metal=78!red/78!red!80!black]
(0,0,0) --++ (\W,0,0) to[out=85,in=-85]++ (0,0,\h) --++ (-\W,0,0) to[out=-99,in=99] cycle
(\W,0,0) --++ (0,\W,0) to[out=81,in=-81]++ (0,0,\h) --++ (0,-\W,0) to[out=-85,in=85] cycle
(0,0,\h) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (\W/2,\W/2,\h+\F) --++ (0,0,-\F);
\end{tikzpicture}
\caption*{Compression}
\end{subfigure}
\hfill
\begin{subfigure}[b]{0.16\linewidth}
% BLOCK - BENDING (flexion)
\begin{tikzpicture}
\def\dh{0.02*\H}
\draw[force] (0,0.3*\W,0.85*\H) --++ (-\F,0,-0.25*\F);
\node[below,left] at (-2.7,4.8) {$\vec{M}$};
\draw[force] (0,0.4*\W,0.13*\H) --++ (-\F,0, 0.10*\F);
\node[below,left] at (-0.2,0.3) {$\vec{M}$};
\draw[metal=70!orange/70!orange!80!black]%top color=metalcol!70!orange,bottom color=metalcol!70!orange!80!black]
(0,0,\dh) -- (\W,0,-\dh) to[out=80,in=-80] (\W,0,\H+\dh) -- (0,0,\H-\dh) to[out=-80,in=80] cycle
(\W,0,-\dh) -- (\W,\W,-\dh) to[out=80,in=-80] (\W,\W,\H+\dh) -- (\W,0,\H+\dh) to[out=-80,in=80] cycle
(0,0,\H-\dh) -- (\W,0,\H+\dh) -- (\W,\W,\H+\dh) -- (0,\W,\H-\dh) -- cycle;
\end{tikzpicture}
\caption*{Bending}
\end{subfigure}
\hfill
\begin{subfigure}[b]{0.16\linewidth}
% BLOCK - TORSION
\begin{tikzpicture}
\def\F{0.41*\H} % force magnitude
\draw[force] (0,0.04*\W,0.02*\H) --++ (-\F, 0.2*\F,0);
\node[below,left] at (-0.6,0.4) {$\vec{\tau}$};
\draw[force] (0,0.96*\W,0.98*\H) --++ (-\F,-0.2*\F,0);
\node[below,left] at (-3,4.8) {$\vec{\tau}$};
\draw[metal=80!green/80!green!80!black]
(\W,0,0) --++ (0,\W,0) to[out=92,in=-92]++ (-\W,0,\H) -- cycle;
\draw[metal=80!green/80!green!80!black]
(0,\W,0) to[out=92,in=-92]++ (0,-\W,\H) --++ (\W,0,0) to[out=-92,in=90] cycle;
\draw[metal=80!green/80!green!80!black]%top
(0,0,0) --++ (\W,0,0) to[out=92,in=-92]++ (0,\W,\H) --++ (0,-\W,0) to[out=-92,in=92] cycle
(0,0,\H) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (1.02*\W,0.10*\W,0.98*\H) --++ (\F, 0.2*\F,0);
\node[below,left] at (-0.6,4.8) {$\vec{\tau}$};
\draw[force] (1.02*\W,0.90*\W,0.02*\H) --++ (\F,-0.2*\F,0);
\node[below,left] at (1.61,1) {$\vec{\tau}$};
\end{tikzpicture}
\caption*{Torsion}
\end{subfigure}
\hfill
\begin{subfigure}{0.16\linewidth}
% BLOCK - SHEAR
\begin{tikzpicture}
\def\dw{\W}
\def\F{0.38*\H} % force magnitude
\draw[force] (0,\W/2,0.01*\H) --++ (-\F,0,0);
\node[below,left] at (-0.2,5.3) {$\vec{\tau}$};
\draw[metal=78!purple/78!purple!80!black]%,top color=metalcol!78!purple,bottom color=metalcol!78!purple!80!black
(0,0,0) --++ (\W,0,0) --++ (\dw,0,\H) --++ (-\W,0,0) -- cycle
(\W,0,0) --++ (0,\W,0) --++ (\dw,0,\H) --++ (0,-\W,0) -- cycle
(\dw,0,\H) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (\W+\dw,\W/2,0.98*\H) --++ (\F,0,0);
\node[below,left] at (-0.6,0.4) {$\vec{\tau}$};
\end{tikzpicture}
\caption*{Shear}
\end{subfigure}
\caption{Most common types of material deformations}
\end{figure}
\end{document}
두번째 단계: 용도에 따라 이미지를 수직으로 정렬 baseline=(current bounding box.center)
하고 s를 테이블 tikzpicture
에 삽입합니다. tvlr
이 그림을 사용하면 코드가 더욱 단축됩니다. 아마도 당신이 원하는 것은:
\documentclass{report}
\usepackage{tabularray}
\usepackage{tikz}
\usetikzlibrary{arrows.meta} % for arrow size
\colorlet{metalcol}{blue!25!black!20!white}
\begin{document}
\begin{figure}[ht]
\tikzset{
>=Straight Barb,
x={(0.72cm,-0.08cm)},y={(0.40cm,0.30cm)},z={(0,1cm)},
metal/.style args = {#1/#2}{draw=metalcol!30!black, rounded corners=0.1,
top color=metalcol!#1, bottom color=metalcol!#2,
shading angle=10},
force/.style = {->,red!65!black},
baseline=(current bounding box.center)
}
\def\W{0.7} % side width
\def\H{1.6} % total height
\def\F{0.28*\H} % force magnitude
\begin{tblr}{colspec = {@{} *{6}{X[c]} @{}}}
\begin{tikzpicture}
\draw[metal=1/80!black]
(0,0,0) --++ (\W,0,0) --++ (0,0,\H) --++ (-\W,0,0) -- cycle
(\W,0,0) --++ (0,\W,0) --++ (0,0,\H) --++ (0,-\W,0) -- cycle
(0,0,\H) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\end{tikzpicture}
&
\begin{tikzpicture}
\def\h{1.12*\H}
\draw[force] (\W/2,\W/2,0) --++ (0,0,-\F);
\node[below,left] at (-3.3,7.5) {$\vec{\sigma}$};
\node[below,left] at (1.6,-1.4) {$\vec{\sigma}$};
\draw[metal=80!blue/80!blue!80!black]
(0,0,0) --++ (\W,0,0) to[out=92,in=-92]++ (0,0,\h) --++ (-\W,0,0) to[out=-84,in=84] cycle
(\W,0,0) --++ (0,\W,0) to[out=96,in=-96]++ (0,0,\h) --++ (0,-\W,0) to[out=-92,in=92] cycle
(0,0,\h) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (\W/2,\W/2,\h) --++ (0,0,\F);
\end{tikzpicture}
&
\begin{tikzpicture}
\def\h{0.88*\H}
\draw[force] (\W/2,\W/2,-\F) --++ (0,0,\F);
\node[below,left] at (-2.7,6.4) {$\vec{\sigma}$};
\node[below,left] at (1.6,-1.4) {$\vec{\sigma}$};
\draw[metal=78!red/78!red!80!black]
(0,0,0) --++ (\W,0,0) to[out=85,in=-85]++ (0,0,\h) --++ (-\W,0,0) to[out=-99,in=99] cycle
(\W,0,0) --++ (0,\W,0) to[out=81,in=-81]++ (0,0,\h) --++ (0,-\W,0) to[out=-85,in=85] cycle
(0,0,\h) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (\W/2,\W/2,\h+\F) --++ (0,0,-\F);
\end{tikzpicture}
&
\begin{tikzpicture}
\def\dh{0.02*\H}
\draw[force] (0,0.3*\W,0.85*\H) --++ (-\F,0,-0.25*\F);
\node[below,left] at (-2.7,4.8) {$\vec{M}$};
\draw[force] (0,0.4*\W,0.13*\H) --++ (-\F,0, 0.10*\F);
\node[below,left] at (-0.2,0.3) {$\vec{M}$};
\draw[metal=70!orange/70!orange!80!black]%top color=metalcol!70!orange,bottom color=metalcol!70!orange!80!black]
(0,0,\dh) -- (\W,0,-\dh) to[out=80,in=-80] (\W,0,\H+\dh) -- (0,0,\H-\dh) to[out=-80,in=80] cycle
(\W,0,-\dh) -- (\W,\W,-\dh) to[out=80,in=-80] (\W,\W,\H+\dh) -- (\W,0,\H+\dh) to[out=-80,in=80] cycle
(0,0,\H-\dh) -- (\W,0,\H+\dh) -- (\W,\W,\H+\dh) -- (0,\W,\H-\dh) -- cycle;
\end{tikzpicture}
&
\begin{tikzpicture}
\def\F{0.41*\H} % force magnitude
\draw[force] (0,0.04*\W,0.02*\H) --++ (-\F, 0.2*\F,0);
\node[below,left] at (-0.6,0.4) {$\vec{\tau}$};
\draw[force] (0,0.96*\W,0.98*\H) --++ (-\F,-0.2*\F,0);
\node[below,left] at (-3,4.8) {$\vec{\tau}$};
\draw[metal=80!green/80!green!80!black]
(\W,0,0) --++ (0,\W,0) to[out=92,in=-92]++ (-\W,0,\H) -- cycle;
\draw[metal=80!green/80!green!80!black]
(0,\W,0) to[out=92,in=-92]++ (0,-\W,\H) --++ (\W,0,0) to[out=-92,in=90] cycle;
\draw[metal=80!green/80!green!80!black]%top
(0,0,0) --++ (\W,0,0) to[out=92,in=-92]++ (0,\W,\H) --++ (0,-\W,0) to[out=-92,in=92] cycle
(0,0,\H) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (1.02*\W,0.10*\W,0.98*\H) --++ (\F, 0.2*\F,0);
\node[below,left] at (-0.6,4.8) {$\vec{\tau}$};
\draw[force] (1.02*\W,0.90*\W,0.02*\H) --++ (\F,-0.2*\F,0);
\node[below,left] at (1.61,1) {$\vec{\tau}$};
\end{tikzpicture}
&
\begin{tikzpicture}
\def\dw{\W}
\def\F{0.38*\H} % force magnitude
\draw[force] (0,\W/2,0.01*\H) --++ (-\F,0,0);
\node[below,left] at (-0.2,5.3) {$\vec{\tau}$};
\draw[metal=78!purple/78!purple!80!black]%,top color=metalcol!78!purple,bottom color=metalcol!78!purple!80!black
(0,0,0) --++ (\W,0,0) --++ (\dw,0,\H) --++ (-\W,0,0) -- cycle
(\W,0,0) --++ (0,\W,0) --++ (\dw,0,\H) --++ (0,-\W,0) -- cycle
(\dw,0,\H) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (\W+\dw,\W/2,0.98*\H) --++ (\F,0,0);
\node[below=0pt,left=0pt] at (-0.6,0.4) {$\vec{\tau}$};
\end{tikzpicture} \\
Unloaded & Tension & Compression & Bending & Torsion & Shear
\end{tblr}
\caption{Most common types of material deformations}
\end{figure}
\end{document}
답변4
TikZ 매트릭스:
between origins
변형된 블록을 너비 전체에 균등하게 분배합니다. (물론 이는 너비가 거의 같은 경우에만 효과적입니다.)왼쪽(시각적 중앙을 중심으로)을 오른쪽(시각적 중앙)만큼 넓게 만드는 트리밍입니다.전단비교했을 때 다이어그램은 오른쪽으로 훨씬 돌출되어 있습니다.)
이로 인해 Shear 다이어그램의 노드는 다른 노드보다 더 안쪽에 배치됩니다.
column sep = 2\tabcolsep
환경 의 수평 간격을 시뮬레이션하는 것과 같은 것을 사용할 수 있습니다tabular
.그런 다음 두 번째 행의 노드에 sep가 없어 열에 단단히 고정되는 것이 중요합니다.
내가 동일한
force
경로를 어떻게 사용했는지 주목하세요.압축에 관해서는긴장하지만 화살표 끝을 거꾸로 뒤집은 것뿐입니다.패키지
geometry
는 텍스트 영역을 표시하는 데 사용됩니다.
암호
\documentclass{report}
\usepackage{tikz}
\usepackage{float}
\usetikzlibrary{arrows.meta, calc} % for arrow size
\tikzset{
tight matrix/.style={
matrix, every outer matrix/.append style={
inner sep=+0pt, outer sep=+0pt, shape=rectangle, path only}},
material deformations diagrams/.style={
/utils/exec=%
\colorlet{metalcol}{blue!25!black!20!white}%
\def\W{0.7}% side width
\def\H{1.6}% total height
\def\F{0.28*\H},%force magnitude
metal/.style={
rounded corners=0.1, draw=metalcol!30!black, shading angle=10,
top color=metalcol!##1, bottom color=metalcol!##1!80!black},
metal/.default=80!black,
force/.style={>=Latex, ->, draw=red!65!black},
x={(0.72cm,-0.08cm)}, y={(0.40cm,0.30cm)}, z={(0,1cm)}}}
\usepackage[showframe]{geometry}
\begin{document}
\begin{figure}[H]
\centering
\begin{tikzpicture}[material deformations diagrams,
% to make the left side as wide as the right side
% centered around the middle of subfigures
trim left=($(current bounding box.east)!2!($(n3)!.5!(n4)$)$),
% this does the same visually but doesn't warn about overfull hboxes:
% trim left=(n1), trim right=(n6)
]
\matrix[
tight matrix, row sep=+.7em,
%
% I'd suggest between origins for distributing the figures equally
% for this, we name the nodes and use them
% to trim the picture so that it is centered
% we actually subtract a bit from the available width
% because the Shear picture extrudes very much to the right
column sep={\linewidth/6,between origins},
%
% The middle of the defomred blocks are roughly centered above the text:
row 1/.append code=\tikzset{shift={(-\W/2,-\W/2)}},
%
% anchor = base: for vertical alignment of nodes
% no seps: for as tight as possible (when not *between origins*)
% node names: for trimming
row 2/.append style={inner sep=+0pt, outer sep=+0pt, anchor=base,
nodes={name=n\the\pgfmatrixcurrentcolumn}}]{
\draw[metal, top color=metalcol]
(0,0,0) --++ (\W,0,0) --++ (0,0,\H) --++ (-\W,0,0) -- cycle
(\W,0,0) --++ (0,\W,0) --++ (0,0,\H) --++ (0,-\W,0) -- cycle
(0,0,\H) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
&
\def\h{1.12*\H}
\draw[force] (\W/2,\W/2,0) --++ (0,0,-\F) node[below]{$\vec{\sigma}$};
\draw[metal=80!blue]
(0,0,0) --++ (\W,0,0) to[out=92,in=-92]++ (0,0,\h) --++ (-\W,0,0) to[out=-84,in=84] cycle
(\W,0,0) --++ (0,\W,0) to[out=96,in=-96]++ (0,0,\h) --++ (0,-\W,0) to[out=-92,in=92] cycle
(0,0,\h) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (\W/2,\W/2,\h) --++ (0,0,\F) node[above]{$\vec{\sigma}$};
&
\def\h{0.88*\H}
\draw[force, <-] (\W/2,\W/2,0) --++ (0,0,-\F) node[below]{$\vec{\sigma}$};
\draw[metal=78!red]
(0,0,0) --++ (\W,0,0) to[out=85,in=-85]++ (0,0,\h) --++ (-\W,0,0) to[out=-99,in=99] cycle
(\W,0,0) --++ (0,\W,0) to[out=81,in=-81]++ (0,0,\h) --++ (0,-\W,0) to[out=-85,in=85] cycle
(0,0,\h) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force, <-] (\W/2,\W/2,\h) --++ (0,0,\F) node[above]{$\vec{\sigma}$};
&
\def\F{0.38*\H} % force magnitude
\def\dh{0.02*\H}
\draw[force] (0,0.3*\W,0.85*\H) --++ (-\F,0,-0.25*\F) node[left]{$\vec{M}$};
\draw[force] (0,0.4*\W,0.13*\H) --++ (-\F,0, 0.10*\F) node[left]{$\vec{M}$};
\draw[metal=70!orange]
(0,0,\dh) -- (\W,0,-\dh) to[out=80,in=-80] (\W,0,\H+\dh) -- (0,0,\H-\dh) to[out=-80,in=80] cycle
(\W,0,-\dh) -- (\W,\W,-\dh) to[out=80,in=-80] (\W,\W,\H+\dh) -- (\W,0,\H+\dh) to[out=-80,in=80] cycle
(0,0,\H-\dh) -- (\W,0,\H+\dh) -- (\W,\W,\H+\dh) -- (0,\W,\H-\dh) -- cycle;
&
\def\F{0.41*\H} % force magnitude
\draw[force] (0,0.04*\W,0.02*\H) --++ (-\F, 0.2*\F,0) node[left]{$\vec{\tau}$};
\draw[force] (0,0.96*\W,0.98*\H) --++ (-\F,-0.2*\F,0) node[left]{$\vec{\tau}$};
\draw[metal=80!green]
(\W,0,0) --++ (0,\W,0) to[out=92,in=-92]++ (-\W,0,\H) -- cycle;
\draw[metal=80!green]
(0,\W,0) to[out=92,in=-92]++ (0,-\W,\H) --++ (\W,0,0) to[out=-92,in=90] cycle;
\draw[metal=80!green]
(0,0,0) --++ (\W,0,0) to[out=92,in=-92]++ (0,\W,\H) --++ (0,-\W,0) to[out=-92,in=92] cycle
(0,0,\H) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (1.02*\W,0.10*\W,0.98*\H) --++ (\F, 0.2*\F,0) node[right]{$\vec{\tau}$};
\draw[force] (1.02*\W,0.90*\W,0.02*\H) --++ (\F,-0.2*\F,0) node[right]{$\vec{\tau}$};
&
\def\dw{\W}
\def\F{0.38*\H} % force magnitude
\draw[force] (0,\W/2,0.01*\H) --++ (-\F,0,0) node[above right]{$\vec{\tau}$};
\draw[metal=78!purple]
(0,0,0) --++ (\W,0,0) --++ (\dw,0,\H) --++ (-\W,0,0) -- cycle
(\W,0,0) --++ (0,\W,0) --++ (\dw,0,\H) --++ (0,-\W,0) -- cycle
(\dw,0,\H) --++ (\W,0,0) --++ (0,\W,0) --++ (-\W,0,0) -- cycle;
\draw[force] (\W+\dw,\W/2,0.98*\H) --++ (\F,0,0) node[below left]{$\vec{\tau}$};
\\
\node{Unloaded}; & \node{Tension}; & \node{Compression}; & \node{Bending}; & \node{Torsion}; & \node{Shear};
\\};
\end{tikzpicture}
\caption{Most common types of material deformations}
\end{figure}
\end{document}