Export all figures in docs as PNG

docs/src/man/charge_drift.md

@@ -275,16 +275,20 @@ Electron and hole clouds can be easily constructed using [`NBodyChargeCloud`](@r
 
 One way of defining an [`NBodyChargeCloud`](@ref) is having a center point charge surrounded by shells with point charges on the vertices of platonic solids. For now, all shells will have the same number of charges and be oriented the same way.
 
-````@example NBodyChargeCloud
+````@setup NBodyChargeCloud
 using SolidStateDetectors #hide
 using Unitful #hide
 using Plots #hide
+gr(fmt = :png) #hide
 T = Float64 #hide
+````
+
+````@example NBodyChargeCloud
 center = CartesianPoint{T}([0,0,0])
 energy = 1460u"keV"
 nbcc = NBodyChargeCloud(center, energy)
 plot(nbcc)
-plot(nbcc, color = :red, size = (500,500), xlims = (-0.0012, 0.0012), ylims = (-0.0012,0.0012), zlims = (-0.0012,0.0012)) #hide
+plot(nbcc, color = :red, size = (500,500), xlims = (-0.0012, 0.0012), ylims = (-0.0012,0.0012), zlims = (-0.0012,0.0012), fmt = :png) #hide
 ````
 
 #### Equally Distributed on a Regular Sphere
@@ -296,7 +300,7 @@ center = CartesianPoint{T}([0,0,0])
 energy = 1460u"keV"
 nbcc = NBodyChargeCloud(center, energy, 100)
 plot(nbcc)
-plot(nbcc, color = :red, size = (500,500), xlims = (-0.0012, 0.0012), ylims = (-0.0012,0.0012), zlims = (-0.0012,0.0012)) #hide
+plot(nbcc, color = :red, size = (500,500), xlims = (-0.0012, 0.0012), ylims = (-0.0012,0.0012), zlims = (-0.0012,0.0012), fmt = :png) #hide
 ````
 
 

docs/src/man/csg.md

@@ -13,6 +13,7 @@ can be specified in the configuration files.
 using SolidStateDetectors
 import SolidStateDetectors.ConstructiveSolidGeometry as CSG
 using Plots
+gr(fmt = :png) #hide
 T = Float64;
 nothing #hide
 ````

docs/src/man/plotting.md

@@ -7,7 +7,7 @@ First, we have to calculate something in order to demonstrate the plotting tools
 using Plots
 using SolidStateDetectors
 using Unitful
-gr(fmt = :png) #hide
+gr(fmt = :png)
 
 T = Float32
 sim = Simulation{T}(SSD_examples[:InvertedCoax]);

docs/src/tutorials/complete_simulation_chain_IVC_lit.jl

@@ -9,9 +9,8 @@ sim = Simulation{T}(SSD_examples[:InvertedCoax])
 
 plot(sim.detector, xunit = u"mm", yunit = u"mm", zunit = u"mm", size = (700, 700))
 #jl savefig("tutorial_det.pdf") # hide
-#md savefig("tutorial_det.pdf") # hide
-#md savefig("tutorial_det.svg"); nothing # hide
-#md # [![tutorial_det](tutorial_det.svg)](tutorial_det.pdf)
+#md savefig("tutorial_det.png"); nothing # hide
+#md # [![tutorial_det](tutorial_det.png)](tutorial_det.png)
 
 # By default only the contacts and passives are shown in detector plots. One can also take a look at the semiconductor. The following plots show the semiconductor and slices in the y and z direction. 
 
@@ -22,9 +21,8 @@ plot(
     layout = (1,3), size = (1500,500), legend = false
     )
 #jl savefig("tutorial_semiconductor.pdf") # hide
-#md savefig("tutorial_semiconductor.pdf") # hide
-#md savefig("tutorial_semiconductor.svg"); nothing # hide
-#md # [![tutorial_semiconductor](tutorial_semiconductor.svg)](tutorial_semiconductor.pdf)
+#md savefig("tutorial_semiconductor.png"); nothing # hide
+#md # [![tutorial_semiconductor](tutorial_semiconductor.png)](tutorial_semiconductor.png)
 
 # One can also have a look at how the initial conditions look like on the grid (its starts with a very coarse grid):
 
@@ -37,9 +35,8 @@ plot(
     layout = (1, 4), size = (1600, 500)
 )
 #jl savefig("tutorial_initial_condition.pdf") # hide
-#md savefig("tutorial_initial_condition.pdf") # hide
-#md savefig("tutorial_initial_condition.svg"); nothing # hide
-#md # [![tutorial_initial_condition](tutorial_initial_condition.svg)](tutorial_initial_condition.pdf)
+#md savefig("tutorial_initial_condition.png"); nothing # hide
+#md # [![tutorial_initial_condition](tutorial_initial_condition.png)](tutorial_initial_condition.png)
 
 
 # Next, calculate the electric potential:
@@ -55,9 +52,8 @@ plot(
     layout = (1, 4), size = (1600, 500)
 )
 #jl savefig("tutorial_calculated_potential.pdf") # hide
-#md savefig("tutorial_calculated_potential.pdf") # hide
-#md savefig("tutorial_calculated_potential.svg"); nothing # hide
-#md # [![tutorial_calculated_potential](tutorial_calculated_potential.svg)](tutorial_calculated_potential.pdf)
+#md savefig("tutorial_calculated_potential.png"); nothing # hide
+#md # [![tutorial_calculated_potential](tutorial_calculated_potential.png)](tutorial_calculated_potential.png)
 
 # SolidStateDetectors.jl supports active (i.e. depleted) volume calculation:
 
@@ -90,9 +86,8 @@ plot(
     layout = (1, 3), size = (1200, 600)
 )
 #jl savefig("tutorial_calculated_potential_undep.pdf") # hide
-#md savefig("tutorial_calculated_potential_undep.pdf") # hide
-#md savefig("tutorial_calculated_potential_undep.svg"); nothing # hide
-#md # [![tutorial_calculated_potential_undep](tutorial_calculated_potential_undep.svg)](tutorial_calculated_potential_undep.pdf)
+#md savefig("tutorial_calculated_potential_undep.png"); nothing # hide
+#md # [![tutorial_calculated_potential_undep](tutorial_calculated_potential_undep.png)](tutorial_calculated_potential_undep.png)
 
 # 
 
@@ -119,9 +114,8 @@ plot(sim.electric_field, full_det = true, φ = 0.0, size = (700, 700),
     xunit = u"mm", yunit = u"mm", zunit = u"V/mm", clims = (0,800).*u"V/mm")
 plot_electric_fieldlines!(sim, full_det = true, φ = 0.0)
 #jl savefig("tutorial_electric_field.pdf") # hide
-#md savefig("tutorial_electric_field.pdf") # hide
-#md savefig("tutorial_electric_field.svg"); nothing # hide
-#md # [![tutorial_electric_field](tutorial_electric_field.svg)](tutorial_electric_field.pdf)
+#md savefig("tutorial_electric_field.png"); nothing # hide
+#md # [![tutorial_electric_field](tutorial_electric_field.png)](tutorial_electric_field.png)
 
 
 # ## Simulation of charge drifts
@@ -150,9 +144,8 @@ drift_charges!(evt, sim, Δt = time_step)
 plot(sim.detector, xunit = u"mm", yunit = u"mm", zunit = u"mm", size = (700, 700))
 plot!(evt.drift_paths)
 #jl savefig("tutorial_drift_paths.pdf") # hide
-#md savefig("tutorial_drift_paths.pdf") # hide
-#md savefig("tutorial_drift_paths.svg"); nothing # hide
-#md # [![tutorial_drift_paths](tutorial_drift_paths.svg)](tutorial_drift_paths.pdf)
+#md savefig("tutorial_drift_paths.png"); nothing # hide
+#md # [![tutorial_drift_paths](tutorial_drift_paths.png)](tutorial_drift_paths.png)
 
 
 # ## Weighting potential calculation
@@ -172,9 +165,8 @@ plot(
     size = (900, 700)
 )
 #jl savefig("tutorial_weighting_potentials.pdf") # hide
-#md savefig("tutorial_weighting_potentials.pdf") # hide
-#md savefig("tutorial_weighting_potentials.svg"); nothing # hide
-#md # [![tutorial_weighting_potentials](tutorial_weighting_potentials.svg)](tutorial_weighting_potentials.pdf)
+#md savefig("tutorial_weighting_potentials.png"); nothing # hide
+#md # [![tutorial_weighting_potentials](tutorial_weighting_potentials.png)](tutorial_weighting_potentials.png)
 
 # ## Detector Capacitance Matrix
 
@@ -193,16 +185,14 @@ simulate!(evt, sim) # drift_charges + signal generation of all channels
 p_pc_signal = plot( evt.waveforms[1], lw = 1.5, xlims = (0, 1100), xlabel = "Time", unitformat = :slash,
                     legend = false, tickfontsize = 12, ylabel = "Charge", guidefontsize = 14)
 #jl savefig("tutorial_waveforms.pdf") # hide
-#md savefig("tutorial_waveforms.pdf") # hide
-#md savefig("tutorial_waveforms.svg"); nothing # hide
-#md # [![tutorial_waveforms](tutorial_waveforms.svg)](tutorial_waveforms.pdf)
+#md savefig("tutorial_waveforms.png"); nothing # hide
+#md # [![tutorial_waveforms](tutorial_waveforms.png)](tutorial_waveforms.png)
 
 # SolidStateDetectors.jl also allows to separate the observed charge signal into the charge induced by the electrons and the charge induced by the holes.
 
 contact_id = 1
 plot_electron_and_hole_contribution(evt, sim, contact_id, xlims = (0, 1100), xlabel = "Time",
                     legend = :topleft, tickfontsize = 12, ylabel = "Charge", guidefontsize = 14)
 #jl savefig("tutorial_waveform_contributions.pdf") # hide
-#md savefig("tutorial_waveform_contributions.pdf") # hide
-#md savefig("tutorial_waveform_contributions.svg"); nothing # hide
-#md # [![tutorial_waveform_contributions](tutorial_waveform_contributions.svg)](tutorial_waveform_contributions.pdf)
+#md savefig("tutorial_waveform_contributions.png"); nothing # hide
+#md # [![tutorial_waveform_contributions](tutorial_waveform_contributions.png)](tutorial_waveform_contributions.png)

docs/src/tutorials/custom_impurity_density_pn_junction_lit.jl

@@ -20,6 +20,7 @@
 using Plots
 using SolidStateDetectors
 using Unitful
+#md gr(fmt = :png); nothing # hide
 
 sim = Simulation{Float32}(SSD_examples[:InfiniteParallelPlateCapacitor])
 plot( sim.detector.semiconductor, fillalpha = 0.4)