\documentclass[border=3pt]{standalone} % Circuits \usepackage[european,s traightvoltages, RPvoltages, americanresistor, americaninductors]{circuitikz} \tikzset{every picture/.style={line width=0.2mm}} % Notation \usepackage{amsmath} % Tikz Library \usetikzlibrary{calc} % Bipoles Specifications \ctikzset{bipoles/thickness=1.2, label distance=1mm, voltage shift = 1} % Arrows Above Compenents % Source: https://tex.stackexchange.com/questions/574576/circuitikz-straight-voltage-arrows-with-fixed-length \newcommand{\fixedvlen}[3][0.4cm]{% [semilength]{node}{label} % get the center of the standard arrow \coordinate (#2-Vcenter) at ($(#2-Vfrom)!0.5!(#2-Vto)$); % draw an arrow of a fixed size around that center and on the same line \draw[-{Triangle[round,open]}] ($(#2-Vcenter)!#1!(#2-Vfrom)$) -- ($(#2-Vcenter)!#1!(#2-Vto)$); % position the label as it where if standard voltages were used \node[ anchor=\ctikzgetanchor{#2}{Vlab}] at (#2-Vlab) {#3}; } \newcommand{\fixedvlendashed}[3][0.75cm]{% [semilength]{node}{label} % get the center of the standard arrow \coordinate (#2-Vcenter) at ($(#2-Vfrom)!0.5!(#2-Vto)$); % draw an arrow of a fixed size around that center and on the same line \draw[dashed,-{Triangle[round,open]}] ($(#2-Vcenter)!#1!(#2-Vfrom)$) -- ($(#2-Vcenter)!#1!(#2-Vto)$); % position the label as it where if standard voltages were used \node[ anchor=\ctikzgetanchor{#2}{Vlab}] at (#2-Vlab) {#3}; } % Kink Crossing \tikzset{ declare function={% in case of CVS which switches the arguments of atan2 atan3(\a,\b)=ifthenelse(atan2(0,1)==90, atan2(\a,\b), atan2(\b,\a)); }, kinky cross radius/.initial=+.15cm, @kinky cross/.initial=+, kinky crosses/.is choice, kinky crosses/left/.style={@kinky cross=-}, kinky crosses/right/.style={@kinky cross=+}, kinky cross/.style args={(#1)--(#2)}{ to path={ let \p{@kc@}=($(\tikztotarget)-(\tikztostart)$), \n{@kc@}={atan3(\p{@kc@})+180} in -- ($(intersection of \tikztostart--{\tikztotarget} and #1--#2)!% \pgfkeysvalueof{/tikz/kinky cross radius}!(\tikztostart)$) arc [ radius =\pgfkeysvalueof{/tikz/kinky cross radius}, start angle=\n{@kc@}, delta angle=\pgfkeysvalueof{/tikz/@kinky cross}180 ] -- (\tikztotarget) } } } \begin{document} \begin{circuitikz} % %Grid % \def\length{6} % \draw[thin, dotted] (-\length,-\length) grid (\length,\length); % \foreach \i in {1,...,\length} % { % \node at (\i,-2ex) {\i}; % \node at (-\i,-2ex) {-\i}; % } % \foreach \i in {1,...,\length} % { % \node at (-2ex,\i) {\i}; % \node at (-2ex,-\i) {-\i}; % } % \node at (-2ex,-2ex) {0}; %Circuit \coordinate (A) at (0,0); \def\x{6} \ctikzset{quadpoles/transformer core/height=2.7} \ctikzset{transformer L1/.style={inductors/coils=4, inductors/width=1.5}} \ctikzset{transformer L2/.style={inductors/coils=6, inductors/width=2.2}} \draw (0,0) node[transformer core] (T) {} (T.A1) -- ++(-0.8,0) coordinate (P') to[sV, v_<, name=v_in] (P' |- T.A2) -- (T.A2); \draw (T.B1) to[full diode, l=$D_1$, v<, name=d1, i=$i_{d_1}$] ++(0.7*\x,0) coordinate (D1) to[short, i=$i_{r}$] ++(0.3*\x,0) coordinate (P) to[R, l=$R$] ( P |- A) node[ground] (ground) {} to[short,*-] (T-L2.midtap) (T.B2) to[full diode, l_=$D_2$, v^<, name=d2, i=$i_{d_2}$] ++(0.7*\x,0) coordinate (D2) (D2) to[kinky cross=(ground)--(T-L2.midtap), kinky crosses=left] (D1); %Voltages \fixedvlen[0.4cm]{d1}{$V_{D_1}$} \fixedvlendashed[0.4cm]{d2}{$V_{D_2}$} \fixedvlen[0.4cm]{v_in}{$v_\text{in}$} \draw[-{Triangle[round,open]}] ($(T.B2)+(0,+0.3)$) -- ++(0,1.3); \draw[dashed, {Triangle[round,open]}-] ($(T.B2)+(0.4,+0.3)$) -- ++(0,1.3); \draw[{Triangle[round,open]}-] ($(T.B1)+(0,-0.3)$) -- ++(0,-1.3); \draw[dashed, -{Triangle[round,open]}] ($(T.B1)+(0.4,-0.3)$) -- ++(0,-1.3); \end{circuitikz} \end{document}