def panel4x4(fn0, fn1, fn2, fn3, fn_out):
single_size = plot_config.single_figure_size
sc.Figure(
str(single_size[0] * 150) + "px",
str(single_size[1] * 150) + "px",
sc.Panel(sc.SVG(fn0).scale(1.0).move(0, 0)),
sc.Text("A", 5, 25, size=plot_config.fontsize_xhuge, weight='bold'),
sc.Panel(sc.SVG(fn1).scale(1.0).move(single_size[0] * 150 / 2., 0)),
sc.Text("B",
single_size[0] * 150 / 2 + 5.,
25,
size=plot_config.fontsize_xhuge,
weight='bold'),
sc.Panel(sc.SVG(fn2).scale(1.0).move(0, single_size[1] * 150 / 2.)),
sc.Text("C",
5,
single_size[1] * 150 / 2. + 25,
size=plot_config.fontsize_xhuge,
weight='bold'),
sc.Panel(
sc.SVG(fn3).scale(1.0).move(single_size[0] * 150 / 2.,
single_size[1] * 150 / 2.)),
sc.Text("D",
single_size[0] * 150 / 2. + 5,
single_size[1] * 150 / 2. + 25,
size=plot_config.fontsize_xhuge,
weight='bold'),
).save(fn_out)
def plot(self, gr1=None, gr2=None):
"""
Parameters
----------
gr1 : {str, GenomeRange}
First genome range
gr2 : {str, GenomeRange}, optional
Second genome range
"""
frame2grange = self.frame_granges(gr1, gr2)
gr1, gr2 = self.current_range
sub_frames = self.properties['sub_frames']
frame_svgs = self.plot_frames(frame2grange)
center_svg = self.plot_center(gr1, gr2)
center_offsets = self.__get_center_offsets(sub_frames)
center_svg.move(*self.cm2px(center_offsets))
self.__transform_sub_svgs(frame_svgs, sub_frames, center_offsets)
figsize = self.cm2px(self.__get_figsize(sub_frames))
fig = sc.Figure(f"{figsize[0]}px", f"{figsize[1]}px",
sc.Panel(center_svg),
*[sc.Panel(svg) for svg in frame_svgs.values()])
return fig
def plot_analysis(self, display=True):
figdir = set_figdir(verbose=False)
figure_name = f"{figdir}/{timestamp()}-analysis.svg"
fig_handles = [
self.plot_singular_vals(savefig=True, verbose=False,
display=False)[-1],
self.plot_eigs(savefig=True, verbose=False, display=False)[-1],
self.plot_power_spectrum(savefig=True,
verbose=False,
display=False)[-1]
]
svgs = []
for fig in fig_handles:
svgs.append(sc.SVG(fig + '.svg', fix_mpl=True))
os.remove(f"{fig}.svg")
sc.Figure(
sum(svg.width for svg in svgs), max([svg.height for svg in svgs]),
sc.Panel(svgs[0], sc.Text("(a)", 6, 16, size=11)).move(0, 0),
sc.Panel(svgs[1], sc.Text("(b)", 6, 16,
size=11)).move(svgs[0].width, 0),
sc.Panel(svgs[2],
sc.Text("(c)", 6, 16,
size=11)).move(svgs[0].width + svgs[1].width,
0)).save(figure_name)
if display:
IPython.display.display(IPython.display.SVG(figure_name))
def layout(codes, filename):
"""export pdf A4 pages filled with these barcodes, so that they
can be printed as stickers
filename will prefix temporary files produced and removed during
the process, it shouldn't have any extension
TODO: I guess it's possible achieving this without creating so
many intermediate files. Try to get rid of them ;)
"""
# A4
sheet_size = WH(210., 297.) * XY.mm
sticker_size = EAN13Data.full_size
# so how many codes fit on one sheet?
n_stickers = sheet_size / sticker_size
n_stickers = np.floor(n_stickers).astype(int)
stickers_per_sheet = n_stickers.w * n_stickers.h
# so how many sheets do we need?
n_sheets = ceil(len(codes) / stickers_per_sheet)
sheets = [] # store produced .pdf sheets filenames here
# iterate until they are all consumed
stickers = iter(codes)
for n in range(n_sheets):
panels = [] # according to sc logic
try:
for i in range(n_stickers.w):
for j in range(n_stickers.h):
# export this code as svg temp file
code = next(stickers)
tpfile = code.id + '.svg'
code.draw(tpfile)
panels.append(
sc.Panel(
sc.SVG(tpfile).scale(1.).move(
i * sticker_size.w, j * sticker_size.h)))
# cleanup
os.remove(tpfile)
except StopIteration:
pass # no more stickers to print
sheetname = filename + ('-' + str(n + 1) if n_sheets > 1 else '')
ssvg = sheetname + '.svg'
spdf = sheetname + '.pdf'
sc.Figure(sheet_size.w, sheet_size.h, *panels).save(ssvg)
# convert to .pdf
renderPDF.drawToFile(svg2rlg(ssvg), spdf)
# remove .svg file
os.remove(ssvg)
# remember this other temp file
sheets.append(spdf)
# bring all sheets together into pdf pages
if n_sheets > 1:
final = PdfFileWriter()
for sheet in sheets:
append_pdf(PdfFileReader(sheet), final)
final.write(open(filename + '.pdf', 'wb'))
# so we can now supress them
while sheets:
os.remove(sheets.pop())
def panel2x2(fn0, fn1, fn_out, single_size=plot_config.single_figure_size):
sc.Figure(
str(single_size[0] * 150) + "px",
str(single_size[1] * 80) + "px",
sc.Panel(sc.SVG(fn0).scale(1.0).move(0, 15)),
sc.Text("A",
4,
12,
size=plot_config.fontsize_large,
weight='bold',
font='serif'),
sc.Panel(sc.SVG(fn1).scale(1.0).move(single_size[0] * 150 / 2., 15)),
sc.Text("B",
single_size[0] * 150 / 2 + 4.,
12,
size=plot_config.fontsize_large,
weight='bold',
font='serif')).save(fn_out)
def compose_svg(svg_board, svg_plot, svg_combined):
"""
Create a combined SVG in which the board image is put in the background of
the axes area of the plot image.
:param svg_board: filename of existing board image
:type svg_board: str
:param svg_plot: filename of existing plot image
:type svg_plot: str
:param svg_combined: filename of combined image, to be written
:type svg_combined: str
"""
scale = TOP_RIGHT_MARGIN - LEFT_BOTTOM_MARGIN
xdel = LEFT_BOTTOM_MARGIN * SIZE
ydel = (1.0 - TOP_RIGHT_MARGIN) * SIZE
compose.Figure(
SIZE, SIZE,
compose.Panel(compose.SVG(svg_board).scale(scale).move(xdel, ydel)),
compose.Panel(compose.SVG(svg_plot))).save(svg_combined)
def draw_plot(data, output):
"""Draws piecharts from given data on lab012 background
Args:
data - list of lists of three points with experiment results
output - name of generated svg file
"""
positions = [[1.6, 1], [1.6, 3], [1.6, 5], [5, 1], [5, 3], [5, 5],
[8.7, 1], [8.7, 3], [8.7, 5], [12, 1], [12, 3], [12, 5]]
# prepare background
fig, ax = plt.subplots()
ax.imshow([[[0, 0, 0, 0]], [[0, 0, 0, 0]]], extent=[-1, 13.25, -1, 7.3])
ax.patch.set_alpha(0.0)
ax.axis('off')
# robot blob
draw_single_pie([1.3, 5.7],
0.3, [1, 1, 1],
ax, ('k', 'k', 'k'),
plot_labels=False)
ax.text(1.6, 5.9, "Mikrofon")
# draw points
for i, d in enumerate(zip(positions, data)):
draw_single_pie(d[0], 0.5, d[1], ax, ('blue', 'orange', 'green'),
str(i + 1))
# save
fig.tight_layout()
fig.savefig("out.svg", dpi=200, transparent=True)
# merge with proper background
sc.Figure("247.59521mm", "129.31232mm",
sc.Panel(sc.SVG("./assets/012-base.svg").scale(0.352)),
sc.Panel(sc.SVG("out.svg").scale(0.6).move(-25,
-40))).save(output)
os.remove("./out.svg")
def make_multipanel_fig(FIGS, CAP_SIZE=14,\
fig_name="fig.svg",\
transparent=True, correc_factor=70., DPI=100.):
""" take a list of figures and make a multi panel plot"""
label = list(string.ascii_uppercase)[:len(FIGS)]
SIZE = []
for fig in FIGS:
SIZE.append(fig.get_size_inches())
width = np.max([s[0] for s in SIZE])
height = np.max([s[1] for s in SIZE])
LABELS, XCOORD, YCOORD, SCALE = [], [], [], []
for i in range(len(FIGS)):
ff = 'f.svg'
FIGS[i].savefig('/tmp/' + str(i) + '.svg',
format='svg',
transparent=transparent)
if translate_to_bitmap_if_too_big(FIGS[i], '/tmp/' + str(i) + '.svg'):
SCALE.append(.7)
else:
SCALE.append(1.)
LABELS.append(label[i])
XCOORD.append((i % 3) * width * correc_factor)
YCOORD.append(int(i / 3) * height * correc_factor)
PANELS = []
for i in range(len(FIGS)):
PANELS.append(sg.Panel(\
sg.SVG('/tmp/'+str(i)+'.svg').move(XCOORD[i],YCOORD[i]).scale(SCALE[i]),\
sg.Text(LABELS[i], 25, 20, size=22, weight='bold').move(\
XCOORD[i]-15,YCOORD[i]))\
)
sg.Figure(str((min(len(FIGS)%3,3))*inch_to_cm(width))+"cm",\
str(inch_to_cm(height)*(int(len(FIGS)/3.01)+1))+"cm",\
*PANELS).save(fig_name)
def put_list_of_figs_to_svg_fig(
FIGS,
fig_name="fig.svg",
initial_guess=True,
visualize=False,
export_as_png=False,
Props=None,
figsize=None,
fontsize=9,
SCALING_FACTOR=1.34, # needed to get the right cm size ...
with_top_left_letter=False,
transparent=True):
""" take a list of figures and make a multi panel plot"""
label = list(string.ascii_uppercase)[:len(FIGS)]
SIZE = []
for fig in FIGS:
if type(fig) == str:
SIZE.append([1., 1.])
else:
SIZE.append(fig.get_size_inches())
width = np.max([s[0] for s in SIZE])
height = np.max([s[1] for s in SIZE])
if Props is None:
LABELS, XCOORD, YCOORD = [], [], []
# saving as svg
for i in range(len(FIGS)):
LABELS.append(label[i])
XCOORD.append((i % 3) * width * 100)
YCOORD.append(int(i / 3) * height * 100)
XCOORD_LABELS,\
YCOORD_LABELS = XCOORD, YCOORD
else:
XCOORD, YCOORD = Props['XCOORD'],\
Props['YCOORD'],
if 'LABELS' in Props:
LABELS = Props['LABELS']
else:
LABELS = ['' for x in XCOORD]
if 'XCOORD_LABELS' in Props:
XCOORD_LABELS,\
YCOORD_LABELS = Props['XCOORD_LABELS'],\
Props['YCOORD_LABELS']
else:
XCOORD_LABELS,\
YCOORD_LABELS = XCOORD, YCOORD
LOCATIONS = []
for i in range(len(FIGS)):
if type(FIGS[i]) is str:
LOCATIONS.append(FIGS[i])
else:
LOCATIONS.append(os.path.join(gettempdir(), str(i) + '.svg'))
FIGS[i].savefig(LOCATIONS[-1],
format='svg',
transparent=transparent)
PANELS = []
for i in range(len(FIGS)):
PANELS.append(sg.Panel(\
sg.SVG(LOCATIONS[i]).move(XCOORD[i],YCOORD[i])))
for i in range(len(LABELS)):
PANELS.append(sg.Panel(\
sg.Text(LABELS[i], 15, 10,
size=fontsize, weight='bold').move(\
XCOORD_LABELS[i],YCOORD_LABELS[i]))\
)
sg.Figure("21cm", "29.7cm", *PANELS).scale(SCALING_FACTOR).save(fig_name)
# if figsize is None:
# sg.Figure("21cm", "29.7cm", *PANELS).save(fig_name)
# else:
# sg.Figure(str(inch2cm(figsize[0]*A0_format['width'])[0])+"cm",\
# str(inch2cm(figsize[1]*A0_format['height'])[0])+"cm",\
# *PANELS).scale(SCALING_FACTOR).save(fig_name)
if visualize:
os.system('open ' + fig_name) # works well with 'Gapplin' on OS-X
def main(self):
settings = self.settings
SMILESSTRING = settings['SMILESSTRING']
resulting_plots = []
pRList = []
mol_svg, d2d, dm = self.draw_smiles()
replace_index = []
for scope_plot in self.plots:
# for each scope plot, make a vals list containing empty first items for the wedge with alpha=0
if type(scope_plot) != dict:
continue
sizes = [
360 - scope_plot['coverangle_wedges']
] + [scope_plot['coverangle_wedges'] / scope_plot['no_wedges']
] * scope_plot['no_wedges']
label_inner_circle, label_outer_circle = [
''
] + [''] * scope_plot['no_wedges'], [
''
] + [''] * scope_plot['no_wedges']
if (len(scope_plot['value_inner_circle']) !=
scope_plot['no_wedges']
or len(scope_plot['value_outer_circle']) !=
scope_plot['no_wedges']):
print('not equal')
value_inner_circle, value_outer_circle = scope_plot[
'value_inner_circle'], scope_plot['value_outer_circle']
rounding_boundary = scope_plot['rounding_boundary']
value_groups = scope_plot['value_groups']
for i in range(scope_plot['no_wedges']):
if scope_plot['rounding']:
if value_inner_circle[i] >= rounding_boundary:
label_inner_circle[i + 1] = ">" + str(
value_inner_circle[i])
else:
label_inner_circle[i + 1] = str(value_inner_circle[i])
if value_outer_circle[i] >= rounding_boundary:
label_outer_circle[i + 1] = ">" + str(
value_outer_circle[i])
else:
label_outer_circle[i + 1] = str(value_outer_circle[i])
else:
label_inner_circle[i + 1] = str(value_inner_circle[i])
label_outer_circle[i + 1] = str(value_outer_circle[i])
j = 0
for i, item in enumerate(value_groups):
if item[0] == '~':
replace_index.append(('~' + str(j), item[1:]))
value_groups[i] = '~' + str(j)
j = j + 1
vals = [
sizes, # size of the wedges, the first wedge is transparent and will not be shown
[0] +
value_inner_circle, # colormap values for the inner circle, maximum value determines intensity, first is for the transparent wedge and should stay 0
[0] +
value_outer_circle, # colormap values for the outer circle, maximum value determines intensity, first is for the transparent wedge and should stay 0
label_inner_circle, #labels for the inner circle
label_outer_circle, #labels for the outer circle
[""] + value_groups, #groups
]
resulting_plots.append(
self.plot_figure_and_colorbar(scope_plot, vals))
# get the atom id from the settings and save its position
rIdx = scope_plot['attach_atom_id']
pRList.append(
d2d.GetDrawCoords(
Geometry.Point2D(dm.GetConformer().GetAtomPosition(rIdx))))
# take colorbar from first plot #ToDo extension to multiple colorbars
colorbar = compose.Panel(
strSVG(resulting_plots[0][1]).scale(0.8).move(-350, 400))
panels = [compose.Panel(strSVG('<svg></svg>'))] * len(resulting_plots)
for i, plot in enumerate(resulting_plots):
panels[i] = strSVG(resulting_plots[i][0]).move(
-369, -358).scale(1).move(pRList[i].x, pRList[i].y)
#panels[i]=strSVG(resulting_plots[i][0]).move(-369*1,-358*1).scale(0.4).move(pRList[i].x,pRList[i].y)
compose.Figure(
"600",
"600", #720 default`
compose.Panel(strSVG(mol_svg).scale(1).move(0, 0)),
colorbar,
*panels
#).move(350,350).scale(self.settings['scalefactor']).save("substrate_scope.svg")
).move(350, 100).scale(
self.settings['scalefactor']).save("substrate_scope.svg")
new_svg = SVG('substrate_scope.svg')._data
for item in replace_index:
new_svg = self.replace_label_with_smiles(svg_file=new_svg,
smiles=item[1],
search_index=item[0])
if settings['use_bold_font']:
new_svg.replace('font-weight:normal', 'font-weight:bold')
f = open("substrate_scope_replaced.svg", "w")
f.write(new_svg)
f.close()
print('File written to:',
os.getcwd() + '/substrate_scope_replaced.svg')
def multipanel_figure(graph_env,
FIGS,
X = None, Y = None, Labels=None,
LABELS = None, X_LABELS = None, Y_LABELS = None,
width=85.,# mm
height=None, # mm
grid=False,
autoposition=False,
SCALING_FACTOR = 1.34, fontsize=None, fontweight='bold',
export_to_png=False, bg='white',
fig_name='fig.svg'):
"""
"""
# building the figure matrix if not explicited
if type(FIGS) is mpl.figure.Figure:
FIGS = [[FIGS]]
elif type(FIGS) is list:
if (len(FIGS)>0) and (type(FIGS[0]) is mpl.figure.Figure):
FIGS = [FIGS]
elif (len(FIGS)>0) and (type(FIGS[0]) is str):
FIGS = [FIGS]
# else should be list of list
if autoposition:
X, Y = [], []
y = [0]
for i, lfig in enumerate(FIGS):
Y.append([np.max(y) for fig in lfig])
x = []
for fig in lfig:
if type(fig) is not str:
x.append(72.*fig.get_size_inches()[0])
y.append(72.*fig.get_size_inches()[1])
else:
x.append(120)
y.append(80)
X.append([0]+list(np.cumsum(x)))
y = [dy+Y[-1][0] for dy in y]
Y.append([np.max(y)])
print('X = ', X)
print('Y = ', Y)
if X is None:
X = [[0 for fig in lfig] for lfig in FIGS]
if Y is None:
Y = [[0 for fig in lfig] for lfig in FIGS]
if LABELS is None:
LABELS = [['' for fig in lfig] for lfig in FIGS]
if X_LABELS is None:
X_LABELS = X
if Y_LABELS is None:
Y_LABELS = Y
if height is None:
try:
height = np.max([50, Y[-1][-1]])*0.27 # TO BE SET UP
except IndexError:
height = 50
# size
if width=='single-column':
width = 85.
elif width=='one-and-a-half-column':
width = 114.
elif width=='one-column-and-a-half':
width = 114.
elif width=='double-column':
width = 174.
if fontsize is None:
fontsize = graph_env.fontsize+1
LOCATIONS, PANELS = [], []
for i, lfig in enumerate(FIGS):
LOCATIONS.append([])
for j, fig in enumerate(lfig):
if type(FIGS[i][j]) is str:
LOCATIONS[i].append(FIGS[i][j])
# 1.26625 -- NEW SCALING FACTOR
else:
LOCATIONS[i].append(os.path.join(gettempdir(), '%i_%i.svg' % (i,j)))
FIGS[i][j].savefig(LOCATIONS[i][j], format='svg',
transparent=graph_env.transparency)
PANELS.append(sg.Panel(sg.SVG(LOCATIONS[i][j]).move(X[i][j], Y[i][j])))
for i, labels in enumerate(LABELS):
for j, label in enumerate(labels):
if label!='':
PANELS.append(sg.Panel(sg.Text(label, 3, 10,
size=fontsize, weight=fontweight).move(\
X_LABELS[i][j],Y_LABELS[i][j])))
if grid:
sg.Figure("%.1fcm" % (width/10.), "%.1fcm" % (height/10.),
*PANELS, sg.Grid(40,40)).scale(SCALING_FACTOR).save(fig_name.replace('.png', '.svg'))
else:
sg.Figure("%.1fcm" % (width/10.), "%.1fcm" % (height/10.),
*PANELS).scale(SCALING_FACTOR).save(fig_name.replace('.png', '.svg'))
if fig_name.endswith('.png'):
export_as_png(fig_name.replace('.png', '.svg'), dpi=300, background=bg)
os.remove(fig_name.replace('.png', '.svg'))
print('[ok] removed %s' % fig_name.replace('.png', '.svg'))
elif export_to_png:
export_as_png(fig_name, dpi=300, background=bg)
def fsapt_analyze(lig_dir, mode, ene_type):
lig_name = os.path.basename(os.path.abspath(lig_dir))
matrix_dfs = []
outfiles = glob('%s/FSAPT*out' % lig_dir)
for of in outfiles:
df = _get_ene_matrix(of, ene_type)
if not df is None:
matrix_dfs.append(df)
all_df = pd.concat(matrix_dfs, axis=1)
mean_df = all_df.stack().groupby(level=[0, 1]).mean().unstack()
std_df = all_df.stack().groupby(level=[0, 1]).std().unstack()
if mode in ['prolig', 'proliglig']:
old_columns = mean_df.columns[:]
new_labels = []
numbering = []
for old_label in old_columns:
if old_label == 'Total':
new_labels.append('Total')
numbering.append(100000)
else:
labels = old_label.split('-')
if len(labels) == 2:
new_labels.append(''.join(labels))
numbering.append(float(labels[-1]))
elif len(labels) == 3:
new_labels.append('-'.join(labels[1:]))
numbering.append(0.5 *
(float(labels[-1]) + float(labels[-2])))
new_columns = [nl for _, nl in sorted(zip(numbering, new_labels))]
old_columns = [ol for _, ol in sorted(zip(numbering, old_columns))]
new_mean_df = pd.DataFrame()
new_std_df = pd.DataFrame()
for nc, oc in zip(new_columns, old_columns):
new_mean_df[nc] = mean_df[oc]
new_std_df[nc] = std_df[oc]
mean_df = new_mean_df
std_df = new_std_df
mean_anno = mean_df.applymap(lambda x: '%+.2f\n' % x)
std_anno = std_df.applymap(lambda x: r'+/-%.2f' % x)
all_anno = mean_anno + std_anno
matrix_svg = '%s/ene_matrix_%s.svg' % (lig_dir, ene_type)
plot_matrix(mean_df, all_anno, matrix_svg, mode, ene_type)
mean_df.to_csv('%s/ene_mean_%s_%s_%s.csv' %
(lig_dir, lig_name, mode, ene_type))
std_df.to_csv('%s/ene_std_%s_%s_%s.csv' %
(lig_dir, lig_name, mode, ene_type))
# Plot the ligand
dpi = 96
width = len(mean_df.columns) + 2
height = 4
ligmol = cs._RdkitMolBase.from_file('MD/%s/cmp_sybyl.mol2' % lig_name)
ligmol._init_atominfo(reset=False)
ligmol.charged_mol2file = 'MD/%s/cmp_sybyl.mol2' % lig_name
ligmol.get_noh_mol()
AllChem.Compute2DCoords(ligmol.noh_mol, canonOrient=True, bondLength=1.5)
drawer = rdMolDraw2D.MolDraw2DSVG(width * dpi, height * dpi)
opts = drawer.drawOptions()
opts.additionalAtomLabelPadding = 0.1
frag_dict, _ = fragment_mol(ligmol, 'L1')
for noha in ligmol.noh_mol.GetAtoms():
noh_idx = noha.GetIdx()
h_idx = ligmol.noh_to_h_atom_mapping[noh_idx]
frag_label = str(frag_dict[h_idx]['resid'])
if not 'L1-%02d' % int(frag_label) in mean_df.index:
continue
if noha.GetAtomicNum() == 6:
opts.atomLabels[noh_idx] = '%02d' % int(frag_label)
else:
elem = ligmol.GetAtomWithIdx(h_idx).GetProp(
'_TriposAtomType').split('.')[0]
opts.atomLabels[noh_idx] = '%s/%02d' % (elem, int(frag_label))
drawer.DrawMolecule(ligmol.noh_mol)
drawer.FinishDrawing()
svg = drawer.GetDrawingText().replace('svg:', '')
struct_svg = '%s/lig_frag_%s.svg' % (lig_dir, ene_type)
with open(struct_svg, 'w') as fh:
fh.writelines(svg)
# Consolidate the panels
if mode == 'prolig':
mat_title = 'Protein-Ligand %s Interaction' % ene_type.capitalize()
else:
mat_title = 'Ligand-Ligand %s Interaction' % ene_type.capitalize()
mat_title = sc.Panel(sc.Text(mat_title, size=24)).move(20, 20)
mat_panel = sc.Panel(sc.SVG(matrix_svg).scale(1.4)).move(0, 20)
struct_title = sc.Panel(sc.Text('Ligand %s' % lig_name,
size=24)).move(20,
dpi * len(mean_df) + 20)
struct_panel = sc.Panel(sc.SVG(struct_svg)).move(0,
dpi * len(mean_df) + 20)
final_figure = sc.Figure(dpi * width,
dpi * (len(mean_df) + height) + 40, mat_panel,
mat_title, struct_panel, struct_title)
final_name = '%s/%s_%s_%s' % (lig_dir, lig_name, mode, ene_type)
final_figure.save('%s.svg' % final_name)
os.system('convert -density 100 %s.svg %s.pdf' % (final_name, final_name))
os.system('rm -f %s %s' % (matrix_svg, struct_svg))
# Write pdb for pymol
inpdb = '%s/frame0/fsapt.pdb' % lig_dir
outpdb = '%s_pymol.pdb' % final_name
write_pymol_pdb(inpdb, outpdb, mean_df)
def composite(
fig_spec: FigureSpec,
memoize_panels: bool = False,
recompute_panels: bool = True,
delete_png: bool = True,
) -> None:
"""
Function that composites a figure from a FigureSpec.
Parameters
----------
fig_spec : FigureSpec
memoize_panels : bool
recompute_panels : bool
delete_png : bool
See the pubfig.compositor decorator for a description of the parameters.
Returns
-------
None
"""
import tempfile
svg_path = fig_spec.output_file
if isinstance(svg_path, str):
svg_path = Path(svg_path)
assert not svg_path.is_dir(), "The output file name you provided is a directory"
if svg_path.suffix != ".svg":
svg_path = svg_path.with_suffix(".svg")
svg_path = svg_path.expanduser()
if not svg_path.parent.exists():
svg_path.parent.mkdir(parents=True, exist_ok=True)
if memoize_panels:
panels_path = svg_path.parent / ".panels"
if not panels_path.exists():
panels_path.mkdir()
else:
panels_path = Path(tempfile.gettempdir())
panels = []
if fig_spec.plot_grid_every > 0:
panels.append(_generate_grid(fig_spec.figure_size, fig_spec.plot_grid_every, font_size=8))
auto_label = fig_spec.auto_label_options
label_generator = auto_label.label_generator(auto_label.first_char.text)
for name in fig_spec.panels._fields:
panel = getattr(fig_spec.panels, name)
assert isinstance(panel, Panel)
panel_elements = []
assert isinstance(panel.fig, (plt.Figure, VectorImage, RasterImage))
content_offset = _location_to_str(
panel.location.units or fig_spec.figure_size.units, panel.content_offset
)
if isinstance(panel, PanelFig):
svg = _get_panel_content(panels_path, panel, name, memoize_panels, recompute_panels)
panel_elements.append(svg.move(*content_offset))
elif isinstance(panel.fig, VectorImage):
scale = panel.scale or panel.fig.scale
print(f"Scaling vector image {panel.fig.file.absolute()} by {scale:.3f}")
panel_elements.append(panel.fig.svg.scale(scale).move(*content_offset))
elif isinstance(panel.fig, RasterImage):
img_size = panel.fig.img_size
scale = panel.scale or 1.
img = sc.Image(
img_size.units.to_px(img_size.width),
img_size.units.to_px(img_size.height),
f"{panel.fig.file}",
)
panel_elements.append(img.scale(scale).move(*content_offset))
else:
raise TypeError(f"Unknown type of panel content {type(panel.fig)} for panel {name}")
if panel.text is not None:
panel_text = [
sc.Text(
t.text,
*_location_to_str(fig_spec.figure_size.units, Location(t.x, t.y, panel.location.units)),
**t.kwargs
) for t in panel.text]
for t, pt in zip(panel_text, panel.text):
# Need separate loop because rotate doesn't return the Text Element
t.move(*content_offset).rotate(pt.angle)
panel_elements += panel_text
if panel.auto_label:
label = sc.Text(
next(label_generator),
*_location_to_str(
fig_spec.figure_size.units,
Location(auto_label.first_char.x, auto_label.first_char.y)
),
**auto_label.first_char.kwargs
)
panel_elements.append(label)
location = _location_to_str(fig_spec.figure_size.units, panel.location)
panels.append(sc.Panel(*panel_elements).move(*location))
fs = fig_spec.figure_size
sc.Figure(
f"{fs.units.to_px(fs.width):.2f}px",
f"{fs.units.to_px(fs.height):.2f}px",
*panels
).save(svg_path)
if fig_spec.generate_image != ImageType.none:
""" Taken from this shell script:
#!/bin/sh
# Convert all arguments (assumed SVG) to a TIFF acceptable to PLOS
# Requires Inkscape and ImageMagick 6.8 (doesn't work with 6.6.9)
for i in $@; do
BN=$(basename $i .svg)
inkscape --without-gui --export-png="$BN.png" --export-dpi 400 $i
convert -compress LZW -alpha remove $BN.png $BN.tiff
mogrify -alpha off $BN.tiff
rm $BN.png
done
"""
basename = f"{svg_path}"[:-4]
image_name = f"{basename}.png"
_run(f"inkscape --without-gui --export-png='{image_name}' --export-dpi {fig_spec.image_dpi} {svg_path}")
if fig_spec.generate_image == ImageType.tiff:
tiff_name = f"{basename}.tiff"
_run(f"convert -compress LZW -alpha remove {image_name} {tiff_name}")
_run(f"mogrify -alpha off {tiff_name}")
if delete_png:
_run(f"rm {image_name}")
image_name = tiff_name
_run(f"eog {image_name}")