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h-m figures workbook.tex
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\documentclass[]{thesis}
\usepackage[siunitx, RPvoltages]{circuitikz}
\usepackage{tikz}
\usetikzlibrary{math} %needs tikz library
\begin{document}
This document was used for generating figures in an isolated document. The code can be freely copy-pasted into your main text, for use in your work. If you make modifications to these figures, I wish that you make them available e.g. by branching and requesting a merge, so that everyone can have easy access to high-quality figures related to the Hendrikse-Metrikine (TU Delft 2018) ice-model for simulating dynamic ice-structure interaction on vertically sided structures.
\begin{figure}[h]
\centering
\tikzmath{\u = 0.66; }
\begin{circuitikz}[line width=0.6pt] \draw
(0,0) to[damper=$C_2*$] (2,0) -- (2,\u) to[L=$K_1$] (4,\u) -- (4,0) to[L=$K_2*$] (6,0)
(2,0) -- (2,-\u) to[damper=$C_1$] (4,-\u) -- (4,0)
(0,-1) -- (0,1+\u) to[short=$p_{i,ice}$] (\u,1+\u) node[currarrow]{}
(2,0) -- (2,1+\u) to[short=$u_{i,3}$] (2+\u,1+\u) node[currarrow]{}
(4,0) -- (4,1+\u) to[short=$u_{i,2}$] (4+\u,1+\u) node[currarrow]{}
(6,-1) -- (6,1+\u) to[short=$u_{i,1}$] (6+\u,1+\u) node[currarrow]{}
(7+\u,0) to[short=$F_{ice}$] (6+\u,0) node[currarrow,xscale=-1]{}
;
\end{circuitikz}
\label{}
\caption{This figure represents something.}
\end{figure}
\begin{figure}[h]
\centering
\tikzmath{\u = 0.66; \h = 0.66/3; \hh = 2 - \h; }
\begin{circuitikz}[line width=0.6pt]
\foreach \y in {0,\h,...,\hh}
\tikzmath{\r = rand/5; }
\draw
(\u,\y) -- (\r + 1.1,\y) -- (\r + 1.1,\y+\h)-- (\u,\y+\h);
\draw
(1.33 + \u,0) rectangle (3.33 + \u,2)
(3.33 + \u,1-\u) to[damper=$C_{struc}$] (5.33 + \u,1-\u)
(3.33 + \u,1+\u) to[L=$K_{struc}$] (5.33 + \u,1+\u)
(5.33 + \u,0) -- (5.33 + \u,2)
(-1 ,0.4) to[short=$v_{ice}$] (-1+\u,0.4) node[currarrow]{};
\draw [|-|] (0.9,-2*\h) -- node[below] {$r_{max}$} (1.3,-2*\h);
\node[align=center] at (2.33 + \u,1) {$M_{struc}$}
node[] at (- 1+0.5*\u,1.5) {$N$ elements}
node[anchor=mid] at (3.33 + 0.5*\u, 2 + \u) {Structure}
node[anchor=mid] at (0 + 0.0*\u, 2 + \u) {Ice edge};
\end{circuitikz}
\label{}
\caption{This figure represents something.}
\end{figure}
\begin{figure}[h]
\centering
\tikzmath{\u = 0.66; }
\begin{circuitikz}[line width=0.6pt] \draw
(0.1,-1) node[currarrow,xscale=-1]{} to[short=$l_{initial} - F/K_1-F/K_2-F/K_{struc}$] (5.9,-1) node[currarrow,xscale=1]{}
(4,0) -- (4,1)
(0,-\u) -- (0,1)
(-\u,1) node[currarrow,xscale=-1]{} to[short=$v_{creep flow}$] (0,1)
(6,-\u) -- (6,1)
(0,0) to[L=$K_1$] (2,0) to[L=$K_2*$] (4,0) to [L=$K_{struc}$] (6,0);
\node[anchor=south] at (4,1) {Ice edge}
;
\end{circuitikz}
\label{}
\caption{This figure represents something.}
\end{figure}
\begin{figure}[h]
\centering
\tikzmath{\u = 0.66; }
\begin{circuitikz}[line width=0.6pt] \draw
(0.1,-1) node[currarrow,xscale=-1]{} to[short=$l_{initial} - F/K_1-F/K_2-F/K_{struc}$] (5.9,-1) node[currarrow,xscale=1]{}
(4,0) -- (4,1)
(0,-\u) -- (0,1)
(-2,-\u) -- (-2,\u)
(-\u,1) node[currarrow,xscale=-1]{} to[short=$v_{creep flow}$] (0,1)
(6,-\u) -- (6,\u)
(-2,0) to [damper=$C_2*$](0,0) to[L=$K_1$] (2,0) to[L=$K_2$] (4,0) to [L=$K_{struc}*$] (6,0);
\node[anchor=south] at (4,1) {Ice edge}
;
\end{circuitikz}
\label{}
\caption{This figure represents something.}
\end{figure}
\begin{figure}[h]
\centering
\tikzmath{\u = 0.66; }
\tikzset{>=stealth}
\begin{circuitikz}[line width=0.6pt]
%%Axis
\draw [->](0,0) -- (0,3.5);
\draw [->](0,0) -- (6,0);
%Labels
\node [anchor=east] at (0,3.6/2){$F_{ice}$};
\node [anchor=north] at (6/2,0){$v_{ice}$};
\node[anchor=north east] at (0,0) {$0$};
%Above graph
\draw [|-|] (0,4) -- (1,4);
\node [anchor=south] at (0.5,4){Creep};
\draw [|->] (1,4) -- (6,4);
\node [anchor=south] at (3,4){Crushing};
%Transition speed & Force
\filldraw (1,3) circle (1pt) node[anchor=south]{$F_t$};
\draw[dashed] (1,3) -- (1,0) node[anchor=north]{$v_{t}$};
\filldraw (6,1) circle (1pt) node[anchor=west]{${F(v_{ice}\rightarrow\infty)} = \frac{{N{K_2}{\delta _{crit}}}}{{{r_{max }} + 2{\delta _{crit}}}}$};
\filldraw (6,1.3+2/6^3) circle (1pt) node[anchor=south west]{$F(v_{ice}\rightarrow\infty)+\sigma(v_{ice}\rightarrow\infty)$};
\draw[<-] (1.5,1+2/1.5^4) -- (2.5,2+2/1.5^4);
\filldraw (2.5,2+2/1.5^4) circle (1pt) node[anchor=south west]{$F(v_{ice})=F(N,K_1,K_2,C_1,C_2,r_{max},\delta_{crit})$};
%Functions
\draw[scale=1, domain=0:1, smooth,samples=200, variable=\x, black] plot ({\x}, {3*\x^0.333});
\draw[scale=1, domain=1:6, smooth,samples=200, variable=\x, black] plot ({\x}, {1+2/(\x^4)});
\draw[scale=1, dotted, domain=2:6, smooth,samples=200, variable=\x, black] plot ({\x}, {0.7+1.7/(\x^4)});
\draw[scale=1, dotted, domain=2:6, smooth,samples=200, variable=\x, black] plot ({\x}, {1.3+2.3/(\x^4)});
%Legend
\draw[] (6.7,0.22) -- (7.7,0.22) node[anchor=west]{Mean};
\draw[dotted] (6.7,-0.22) -- (7.7,-0.22) node[anchor=west]{Mean $\pm$ st. dev.};
\end{circuitikz}
\label{fig:f-v-tikz}
\caption{This figure represents something.}
\end{figure}
\begin{figure}[h]
\centering
\tikzmath{\u = 0.66; }
\tikzset{>=stealth}
\begin{circuitikz}[line width=0.6pt]
%%Axis
\draw [->](0,0) -- (0,3.5);
\draw [->](0,0) -- (6,0);
%Labels
\node [anchor=east] at (0,3.6/2){$F_{ice}$};
\node [anchor=north] at (6/2,0){$v_{ice}$};
\node[anchor=north east] at (0,0) {$0$};
%Above graph
\draw [|-|] (0,4) -- (1,4);
\node [anchor=south] at (0.5,4){Creep};
\draw [|->] (1,4) -- (6,4);
\node [anchor=south] at (3,4){Crushing};
%Transition speed & Force
\filldraw (1,3) circle (1pt) node[anchor=south]{$F_t$};
\draw[dashed] (1,3) -- (1,0) node[anchor=north]{$v_{t}$};
%\filldraw (6,1) circle (1pt) node[anchor=west]{${F(v_{ice}\rightarrow\infty)} = %\frac{{N{K_2}{\delta _{crit}}}}{{{r_{max }} + 2{\delta _{crit}}}}$};
%\filldraw (6,1.3+2/6^3) circle (1pt) node[anchor=south west]{$F(v_{ice}\rightarrow\infty)+\sigma(v_{ice}\rightarrow\infty)$};
%\draw[<-] (1.5,1+2/1.5^4) -- (2.5,2+2/1.5^4);
%\filldraw (2.5,2+2/1.5^4) circle (1pt) node[anchor=south west]{$F(v_{ice})=F(N,K_1,K_2,C_1,C_2,r_{max},\delta_{crit})$};
%Functions
\draw[scale=1, domain=0:1, smooth,samples=200, variable=\x, black] plot ({\x}, {3*\x^0.333});
\draw[scale=1, domain=1:6, smooth,samples=200, variable=\x, black] plot ({\x}, {1+2/(\x^4)});
\draw[scale=1, dotted, domain=2:6, smooth,samples=200, variable=\x, black] plot ({\x}, {0.7+1.7/(\x^4)});
\draw[scale=1, dotted, domain=2:6, smooth,samples=200, variable=\x, black] plot ({\x}, {1.3+2.3/(\x^4)});
%Legend
\draw[] (6.7,1+0.22) -- (7.7,1+0.22) node[anchor=west]{Mean};
\draw[dotted] (6.7,1-0.22) -- (7.7,1-0.22) node[anchor=west]{Mean $\pm$ st. dev.};
\end{circuitikz}
\label{fig:f-v-tikz}
\caption{This figure represents something.}
\end{figure}
\begin{figure}[h]
\centering
\tikzset{>=stealth}
\tikzmath{\u = 0.66; }
\begin{circuitikz}[line width=0.6pt, scale=0.8, every node/.style={scale=0.8}]
\draw(0,0) rectangle (6,-1);
\draw[->] (3,-1) to (3,-2);
\draw(0,-2) rectangle (6,-3.5);
\draw[->] (3,-3.5) to (3,-4.5);
\draw(0,-4.5) rectangle (6,-5.5);
\draw[->] (3,-5.5) to (3,-6.5);
\draw(0,-6.5) rectangle (6,-7.5);
\draw[->] (3,-7.5) to (3,-8.5);
\draw(0,-8.5) rectangle (6,-10);
\draw[->] (3,-10) to (3,-11.5);
\draw[->] (6,-9) to (7,-9) to (7,-5) to (6,-5);
\node[anchor=mid] at (3,-0.5) {Acquire $\delta_{crit}$ from literature};
\node[anchor=mid,align=center] at (3,-3) {Solve $N$, $r_{max}$, $K_2$ based on $F_t$,\\ $F(v_{ice}\rightarrow\infty)$, and their ratio.};
\node[anchor=mid,align=center] at (3,-5) {Guess $C_1$, $K_1$};
\node[anchor=mid,align=center] at (3,-7) {Calculate $C_2$};
\node[anchor=mid,align=center] at (3,-9.5) {Run simulation;\\ are results acceptable?};
\node[anchor=west,align=center] at (3,-10.75) {if yes};
\node[anchor=west,align=center] at (7,-7) {if no};
\node[anchor=mid,align=center] at (3,-12) {Done};
\end{circuitikz}
\label{fig:2-DOF}
\caption{This figure represents something.}
\end{figure}
\end{document}