def draw_watcher_card(self, metadata, card, svg, svg_group):
id = metadata['id']
attrs = card
# Validate attributes
self.validate_attrs(attrs)
name = attrs['name']
# Build list of template ids and then load from svg file.
svg_ids = []
svg_ids.append('watcher-title')
svg_ids.extend(['icon-star-{0}'.format(n) for n in [1,2,3]])
svg_ids.append('watcher-image')
svg_ids.append('watcher-flavor')
svg_ids.extend(['attack-{0}'.format(n) for n in [2,3]])
svg_ids.extend(['pursuit-{0}'.format(n) for n in [1,2]])
svg_ids.extend(['detect-{0}'.format(d) for d in ['yes', 'no']])
svg_ids.extend(['target-{0}'.format(t) for t in ['next', 'skip', 'reverse']])
svg.load_ids(WovenWatcherCards.CARD_TEMPLATE, svg_ids)
# Draw artifact title.
title = svg.add_loaded_element(svg_group, 'watcher-title')
SVG.set_text(title, "Watcher")
svg.add_loaded_element(svg_group, 'watcher-image')
svg.add_loaded_element(svg_group, 'attack-{0}'.format(attrs['attack']))
svg.add_loaded_element(svg_group, 'detect-{0}'.format(attrs['detect']))
svg.add_loaded_element(svg_group, 'pursuit-{0}'.format(attrs['pursuit']))
svg.add_loaded_element(svg_group, 'target-{0}'.format(attrs['dir']))
flavor = svg.add_loaded_element(svg_group, 'watcher-flavor')
SVG.set_text(flavor, "Detect Range = 3")
self.draw_vp(attrs['vp'], svg, svg_group)
def __init__(self, width=600, height=600):
self.width = width
self.height = height
self.svg = SVG(viewBox=f"0 0 {width} {height}",
style="stroke: black; fill: none;")
self.background("white")
self.tcount = 0
def draw_sentry_card(self, metadata, card, svg, svg_group):
id = metadata['id']
attrs = card
# Validate attributes
self.validate_attrs(attrs)
# Build list of template ids and then load from svg file.
svg_ids = []
svg_ids.append('sentry-title')
svg_ids.extend(['icon-star-{0}'.format(n) for n in [1,2,3]])
svg_ids.append('sentry-image')
svg_ids.append('sentry-flavor')
svg_ids.extend(['sentry-attack-{0}'.format(d) for d in [1,2]])
svg_ids.extend(['sentry-detect-{0}'.format(d) for d in ['yes', 'no']])
svg_ids.extend(['respawn-{0}'.format(d) for d in ['yes', 'no']])
svg.load_ids(WovenSentryCards.CARD_TEMPLATE, svg_ids)
# Draw artifact title.
title = svg.add_loaded_element(svg_group, 'sentry-title')
SVG.set_text(title, "Sentry")
svg.add_loaded_element(svg_group, 'sentry-image')
svg.add_loaded_element(svg_group, 'sentry-attack-{0}'.format(attrs['attack']))
svg.add_loaded_element(svg_group, 'sentry-detect-{0}'.format(attrs['detect']))
svg.add_loaded_element(svg_group, 'respawn-{0}'.format(attrs['respawn']))
flavor = svg.add_loaded_element(svg_group, 'sentry-flavor')
SVG.set_text(flavor, "Detect Range = 1")
self.draw_vp(attrs['vp'], svg, svg_group)
def __init__(self, name, colour):
self.longName = name
self.displayedName = name
self.colour = colour
self.devices = list()
self.svgFile = SVG()
self.svgRoot = self.svgFile.getSvg()
def draw_flavor(self, attrs, attr_name, svg, svg_group):
if not attr_name in attrs:
return
text = attrs[attr_name]
if text == '':
return
flavor = svg.add_loaded_element(svg_group, 'artifact-flavor')
SVG.set_text(flavor, text)
def draw_description(self, attrs, attr_name, svg, svg_group):
if not attr_name in attrs:
return
text = attrs[attr_name]
if text == '':
return
desc = svg.add_loaded_element(svg_group, 'artifact-description')
SVG.set_text(desc, text)
def test_simple_replace_shapes_with_paths(shape: str, expected_path: str):
actual = (SVG.fromstring(svg_string(shape))
.shapes_to_paths(inplace=True)
.tostring())
expected_result = (SVG.fromstring(svg_string(f'<path d="{expected_path}"/>'))
.tostring())
print(f'A: {actual}')
print(f'E: {expected_result}')
assert actual == expected_result
def draw_bonus(self, attrs, attr_name, svg, svg_group):
if not attr_name in attrs:
return
text = attrs[attr_name]
if text == '':
return
svg.add_loaded_element(svg_group, 'artifact-bonus-border')
bonus = svg.add_loaded_element(svg_group, 'artifact-bonus')
SVG.set_text(bonus, text)
def test_path_move(path: str, move, expected_result: str):
actual = (SVG.fromstring(svg_string(path))
.shapes_to_paths())
for shape in actual.shapes():
shape.move(move.x, move.y, inplace=True)
actual = actual.tostring()
expected_result = (SVG.fromstring(svg_string(expected_result))
.tostring())
print(f'A: {actual}')
print(f'E: {expected_result}')
assert actual == expected_result
def main():
'''
Fonction principale
'''
drawing = SVG("dessin.svg", 1000, 1000)
drawing.header()
lines = generate_random_lines()
lines = get_symmetric(lines)
for line in lines:
drawing.draw_line(line)
drawing.footer()
drawing.write_file()
def Document(filename):
tree = ElementTree.parse(filename)
root = tree.getroot()
if root.tag != namespace + 'svg':
text = 'File "%s" does not seem to be a valid SVG file' % filename
raise TypeError(text)
return SVG(root)
def load_model(model_config):
"""
Loads the model specified by the model config.
"""
model_name = model_config['architecture'].lower()
if model_name == 'vrnn':
from vrnn import VRNN
return VRNN(model_config)
elif model_name == 'srnn':
from srnn import SRNN
return SRNN(model_config)
# elif model_name == 'dvbf':
# from dvbf import DVBF
# return DVBF(model_config)
elif model_name == 'svg':
from svg import SVG
return SVG(model_config)
elif model_name in ['conv', 'convolutional']:
from convolutional import ConvolutionalDLVM
return ConvolutionalDLVM(model_config)
elif model_name in ['fc', 'fully_connected']:
from fully_connected import FullyConnectedDLVM
return FullyConnectedDLVM(model_config)
else:
raise Exception('Model architecture not found.')
def __init__(self, width, height):
self.width = width
self.height = height
w = self.width * 100 + 200
h = self.height * 100 + 200
self.svg = SVG(width=w, height=h)
self.canvas = self.svg.translate(100, 100)
def test_iter(shape, expected_cmds):
svg_path = (SVG.fromstring(svg_string(shape))
.shapes_to_paths()
.shapes()[0])
actual_cmds = [t for t in svg_path]
print(f'A: {actual_cmds}')
print(f'E: {expected_cmds}')
assert actual_cmds == expected_cmds
def draw_artifact_card(self, metadata, card, svg, svg_group):
id = metadata['id']
name = card[0]
attrs = card[1]
# Validate attributes
self.validate_attrs(name, attrs)
# Build list of template ids and then load from svg file.
svg_ids = []
svg_ids.append('artifact-title')
svg_ids.extend(['icon-star-{0}'.format(n) for n in [1,2,3]])
svg_ids.append('artifact-description')
svg_ids.append('artifact-extra-action')
svg_ids.append('artifact-bonus')
svg_ids.append('artifact-bonus-border')
svg_ids.append('artifact-flavor')
#svg_ids.append('separator')
svg_ids.extend(['op-{0}'.format(op) for op in valid_ops])
svg.load_ids(WovenArtifactCards.CARD_TEMPLATE, svg_ids)
# Add Op masters (hidden, used for cloning).
g_masters = SVG.group('masters')
g_masters.set_style("display:none")
SVG.add_node(svg_group, g_masters)
for e in [
'op-tapestry', 'op-eye', 'op-mmove', 'op-thread', 'op-action',
]:
svg.add_loaded_element(g_masters, e)
# Draw artifact title.
title = svg.add_loaded_element(svg_group, 'artifact-title')
SVG.set_text(title, name)
self.draw_description(attrs, 'description', svg, svg_group)
svg.add_loaded_element(svg_group, 'artifact-extra-action')
self.draw_bonus(attrs, 'bonus', svg, svg_group)
self.draw_flavor(attrs, 'flavor', svg, svg_group)
#svg.add_loaded_element(svg_group, 'separator')
# Draw alternate action.
#svg.add_loaded_element(svg_group, 'op-{0}'.format(attrs['op']))
self.draw_vp(attrs['vp'], svg, svg_group)
def load_svg(self, path):
with open(path) as file:
svg = SVG(file.read())
self.svg = svg
self.geojson = GeoJSON(self.svg)
self.layer_output = list(self.svg.get_layers())
self.update_result()
self.ui.load_preview(path)
layers = self.svg.get_layers()
self.ui.load_layers(layers)
def solving():
alls = all_blocks()
board = Board.from_2d(([[1, 0, 1], [1, 1, 1], [1, 1, 0], [1, 1, 1],
[0, 0, 1]]))
blocks = alls.get_blocklist().sublist(["YV", "RZ", "RZ", "YT", "RL"])
board.print()
problem = Problem(blocks, board)
game = PickleUtil.read("data/game4player4block3depthuniq")
game.set_names(list(map(lambda n: "[3段] " + n, animals["fish"])))
html = SVG.game_tate(game)
html.save("data/game4.html")
def pre_card(self):
if self._called_pre_card:
raise Exception("pre_card() should only be called once per card")
if self.curr_filename == '':
self.curr_file += 1
self.curr_filename = 'out{0:02d}'.format(self.curr_file)
self.__create_svg_file()
self.curr_card += 1
layer = self.svg.add_inkscape_layer(
'card{0:02d}'.format(self.curr_card),
"Card {0}".format(self.curr_card))
cut_line = SVG.rect_round(0, 0, 0, self.card_width, self.card_height,
3)
style = Style()
style.set('fill', "#ffffff")
style.set('stroke', "none")
cut_line.set_style(style)
SVG.add_node(layer, cut_line)
self._called_pre_card = True
return (self.svg, layer)
class Section:
def __init__(self, name, colour):
self.longName = name
self.displayedName = name
self.colour = colour
self.devices = list()
self.svgFile = SVG()
self.svgRoot = self.svgFile.getSvg()
def __repr__(self):
return self.longName
def addDevice(self, device):
device.numberInSection = len(self.devices)
self.devices.append(device)
def getDevice(self, number):
if number >= len(self.devices) or number < 0:
return None
else:
return self.devices[number]
def sortDevices(self):
self.devices = sorted(self.devices, key=lambda devices: devices.realCoordinates[0])
self.assignNumbersInSection()
def assignNumbersInSection(self):
for i in range(0, len(self.devices)):
self.devices[i].numberInSection = i
def numberOfDevices(self):
return len(self.devices)
def setDisplayedName(self, name):
self.displayedName = name
def draw_spell_card(self, metadata, card, svg, svg_group):
id = metadata['id']
name = card[0]
attrs = card[1]
desc = card[2]
# Validate attributes
if attrs['category'] != 'blank':
self.validate_attrs(name, attrs)
pattern_id = attrs['pattern']
pattern = self.card_patterns[pattern_id]['pattern']
if attrs['category'] != 'blank':
self.record_spell_info(name, pattern, attrs, desc)
if attrs['category'] != 'blank' and pattern_id != 'blank':
pe_tag = self.pattern_key(pattern) + '-' + attrs['element']
if pe_tag in self.pattern_elements:
raise Exception(
'Pattern for "{0:s}" already used for "{1:s}"'.format(
name, self.pattern_elements[pe_tag]))
self.pattern_elements[pe_tag] = name
# Validate desc
self.validate_desc(name, desc)
# Verify pattern matches spell element
element = attrs['element']
pelem_data = self.card_patterns[pattern_id]['elements']
pelems = []
if pelem_data == "none":
pelems.append("none")
else:
pelems = [elem_map[p] for p in pelem_data]
if not element in pelems:
raise Exception(
"{0:s}: Spell pattern does not match element {1:s}".format(
name, element))
# Build list of template ids and then load from svg file.
svg_ids = []
svg_ids.extend(['element-{0}'.format(elem_map[e]) for e in elem_map])
svg_ids.append('spell-title')
svg_ids.append('spell-pattern-border')
svg_ids.append('spell-description')
svg_ids.append('spell-id')
svg_ids.extend(['icon-star-{0}'.format(n) for n in [1, 2, 3]])
svg_ids.append('icon-vp')
svg_ids.append('spell-flavor')
svg_ids.append('separator')
svg_ids.extend(['op-{0}'.format(op) for op in valid_ops])
svg.load_ids(WovenSpellCards.CARD_TEMPLATE, svg_ids)
# Add Element and Op masters (hidden, used for cloning).
g_masters = SVG.group('masters')
g_masters.set_style("display:none")
SVG.add_node(svg_group, g_masters)
for e in [
'op-tapestry',
'op-eye',
'op-mmove',
'op-thread',
'op-action',
'element-air',
'element-earth',
'element-fire',
'element-water',
]:
svg.add_loaded_element(g_masters, e)
if attrs['category'] != 'blank':
# Draw spell title.
title = svg.add_loaded_element(svg_group, 'spell-title')
SVG.set_text(title, name)
# Draw elements in title bar
elemaster = '#element-{0}'.format(element)
SVG.add_node(svg_group, SVG.clone(0, elemaster, 4, 4))
SVG.add_node(svg_group, SVG.clone(0, elemaster, 54, 4))
# Draw spell id.
id_text = svg.add_loaded_element(svg_group, 'spell-id')
SVG.set_text(
id_text, "{0:d}/{1:d}".format(spell_card_revision,
attrs['id']))
# Draw flavor text (if present).
if 'flavor' in attrs:
flavor_text = svg.add_loaded_element(svg_group, 'spell-flavor')
SVG.set_text(flavor_text, attrs['flavor'])
svg.add_loaded_element(svg_group, 'separator')
# Draw alternate action.
svg.add_loaded_element(svg_group, 'op-{0}'.format(attrs['op']))
# Add spell pattern.
self.draw_pattern(pattern_id, pattern, element, svg_group)
svg.add_loaded_element(svg_group, 'spell-pattern-border')
if attrs['category'] != 'blank':
self.draw_description(attrs['id'], desc, svg, svg_group)
self.draw_vp(attrs['vp'], svg, svg_group)
def draw_pattern(self, id, pattern_raw, element, svg_group):
pattern = [x.split() for x in pattern_raw]
pheight = len(pattern)
if pheight == 0:
raise Exception("Missing pattern for {0}".format(id))
if pheight > 3:
raise Exception("Tall pattern for {0}".format(id))
pwidth = len(pattern[0])
# Max pattern size that fits on the card.
max_width = 7
max_height = 3
# Center of pattern area.
pcenter_x = self.width / 2
pcenter_y = 22.4
# Size and spacing for each box in pattern.
box_size = 5.5
box_spacing = 7
# Upper left corner of pattern area
px0 = pcenter_x - (((max_width - 1) * box_spacing) + box_size) / 2
py0 = pcenter_y - (((max_height - 1) * box_spacing) + box_size) / 2
# Calc offsets to center the patterns that are less than max size.
if pwidth % 2 == 0:
px0 += box_spacing / 2
max_width = 6
else:
max_width = 7
if pheight % 2 == 0:
py0 += box_spacing / 2
max_height = 2
else:
max_height = 3
dot_x0 = px0 + (box_size / 2)
dot_y0 = py0 + (box_size / 2)
# The x,y ranges for this pattern (to center on the card)
x_begin = int((max_width - pwidth) / 2)
x_end = x_begin + pwidth
y_begin = int((max_height - pheight) / 2)
y_end = y_begin + pheight
for iy in range(0, max_height):
for ix in range(0, max_width):
if ix >= x_begin and ix < x_end and iy >= y_begin and iy < y_end:
x = ix * box_spacing
y = iy * box_spacing
col = ix - x_begin
row = iy - y_begin
cell = pattern[row][col]
if cell == '@':
elemaster = '#element-{0}'.format(element)
eleclone = SVG.clone(0, elemaster, px0 + x, py0 + y)
SVG.add_node(svg_group, eleclone)
elif cell == 'X':
box = SVG.rect(0, px0 + x, py0 + y, box_size, box_size)
style_box = Style()
style_box.set_fill("none")
style_box.set_stroke("#000000", 0.5)
style_box.set('stroke-linecap', "round")
style_box.set('stroke-miterlimit', 2)
box.set_style(style_box)
SVG.add_node(svg_group, box)
elif cell == '.':
dot = SVG.circle(0, dot_x0 + x, dot_y0 + y, 0.8)
style_dot = Style()
style_dot.set_fill("#c0c0c0")
style_dot.set_stroke("none")
dot.set_style(style_dot)
SVG.add_node(svg_group, dot)
else:
raise Exception(
"Unrecognized pattern symbol: {0}".format(cell))
class Grid:
def __init__(self, width, height):
self.width = width
self.height = height
w = self.width * 100 + 200
h = self.height * 100 + 200
self.svg = SVG(width=w, height=h)
self.canvas = self.svg.translate(100, 100)
def hline(self, x, y, width, **attrs):
self.line(x, y, x + width, y, **attrs)
def vline(self, x, y, height, **attrs):
self.line(x, y, x, y + height, **attrs)
def line(self, x1, y1, x2, y2, **attrs):
self.canvas.line(x1=x1 * 100, y1=y1 * 100, x2=x2 * 100, y2=y2 * 100, **attrs)
def rect(self, x, y, width, height, **attrs):
self.canvas.rect(x=x * 100, y=y * 100, width=width * 100, height=height * 100, **attrs)
def circle(self, cx, cy, r, **attrs):
cx, cy = cx * 100, cy * 100
self.canvas.circle(cx=cx, cy=cy, r=r, **attrs)
def draw_grid(self, **attrs):
# draw vertical lines
for x in range(self.width + 1):
self.vline(x, 0, self.height, **attrs)
# draw horizontal lines
for y in range(self.height + 1):
self.hline(0, y, self.width, **attrs)
def draw_corners(self, **attrs):
attrs.setdefault("r", 3)
for x in range(self.width + 1):
for y in range(self.height + 1):
self.circle(x, y, **attrs)
def text(self, x, y, text, **attrs):
defaults = dict(
font_size=48,
text_anchor="middle",
style="dominant-baseline: central;",
font_family="Courier",
font_weight="bold",
)
attrs = dict(defaults, **attrs)
xoffset = attrs.pop("xoffset", 50)
yoffset = attrs.pop("yoffset", 65)
x, y = x * 100 + xoffset, y * 100 + yoffset
self.canvas.text(x=x, y=y, **attrs)(text)
def draw_numbers(self, data, **attrs):
"""Draw numbers in each cell.
"""
for (row, col), value in data.items():
self.text(col, row, value, **attrs)
# outlines
outlines.objects.append(Path("cut",
[m(self.material_width,self.material_width)]+
self.make_tongues(my_width, True, True)+
self.make_tongues(my_width, False, True)
,closed=True))
return (outlines,Group(transformation=(self.material_width,self.material_width)))
if __name__=="__main__":
casing=Casing(100,60,30)
sides=[
("top",casing.top),
("side13",casing.side13),
("side24",casing.side24)
]
for name,func in sides:
svg=SVG((100,60),"casing")
outlines,subview=func()
outlines.objects.append(subview)
svg.children.append(outlines)
# test rectangle
#subview.objects.append(Rectangle(style_cut, (0,0), (10,10)))
with open("cut_{}.svg".format(name),"w") as f:
f.write(svg.get_svg())
observation_space = env.observation_space.shape[0]
# pred_length = 13+ was ok. Too far, because of 'to point' controller (U is proportional to error)
predictor = Predictor(obs_length=10, pred_length=14)
# h_dim 100 was ok, batch normalisation does not improve
net = StochasticNet(action_space, observation_space, h_dim=100, on_bn=0)
# 1000 samples was ok
replay_buffer = SimpleReplayPool(1000, observation_space, action_space)
svg = SVG(epoch=500,
min_buffer_size=256,
pi_lr=1e-3,
q_lr=1e-4,
scale_reward=2.5,
batch_size=64,
tau=0.01,
sess=tf.Session(),
env=env,
max_path_length=max_steps_per_episode,
predictor=predictor,
net=net,
action_space=action_space,
observation_space=observation_space,
replay_buffer=replay_buffer)
# save_every - does not work - keep higher than the number of epoch
# steps_to_solve - defines for how many steps in succession without sampling from LSTM a run is considered solved
# resample - switch on sampling from the predictor
svg.train(plot_every=5, save_every=10000, resample=True, steps_to_solve=10)
def __create_svg_file(self):
self.svg = SVG([self.card_width, self.card_height])
class SVGCardGen(object):
OPTIONS = {
'out': {
'type': 'string',
'default': "out",
'desc': "Output directory"
},
'png': {
'type': 'bool',
'default': False,
'desc': "Generate PNG output files"
},
'per-page': {
'type': 'int',
'default': 1,
'desc': "Set # of cards per page"
},
}
def __init__(self, card_handler, options):
self.card_handler = card_handler
self.out_dir = options['out']
self.svg_out_dir = os.path.join(self.out_dir, 'svg')
self.png_out_dir = os.path.join(self.out_dir, 'png')
self.gen_png = options['png']
self.curr_filename = ''
self.curr_file = 0 # Current file index
self.cards_per_page = 1
self.curr_card = 0 # Current card index on page
self.card_width = options['width']
self.card_height = options['height']
def __create_svg_file(self):
self.svg = SVG([self.card_width, self.card_height])
def __write_svg_file(self, name):
if not os.path.isdir(self.svg_out_dir):
os.makedirs(self.svg_out_dir)
out = os.path.join(self.svg_out_dir, '%s.svg' % name)
self.svg.write(out)
if self.gen_png:
self.__gen_png(name)
def __start_card_gen(self):
self.curr_file = -1
self.curr_card = -1
self.curr_filename = ''
def __end_card_gen(self):
if self.curr_filename != '':
print('Closing', self.curr_filename)
self.__write_svg_file(self.curr_filename)
# Generate PNG file.
def __gen_png(self, name):
if not os.path.isdir(self.png_out_dir):
os.makedirs(self.png_out_dir)
print("Exporting {0:s}.png".format(name))
Inkscape.export_png(
os.path.abspath(
os.path.join(self.svg_out_dir, '{0:s}.svg'.format(name))),
os.path.abspath(
os.path.join(self.png_out_dir, '{0:s}.png'.format(name))), 300)
#
# PUBLIC METHODS
#
def generate_cards(self):
self.__start_card_gen()
for card_data in self.card_handler.card_data():
metadata = {
'file': self.curr_file,
'id': self.curr_card,
}
self._called_pre_card = False
self._called_post_card = False
self.card_handler.process_card_data(metadata, card_data)
if not (self._called_pre_card and self._called_post_card):
raise Exception(
"card handler should call both pre_card() and post_card()")
# Fill out last sheet with blank cards.
while self.curr_filename != '':
self.pre_card()
self.post_card()
self.__end_card_gen()
# Creates a new layer and returns the SVG node where the card should be added.
def pre_card(self):
if self._called_pre_card:
raise Exception("pre_card() should only be called once per card")
if self.curr_filename == '':
self.curr_file += 1
self.curr_filename = 'out{0:02d}'.format(self.curr_file)
self.__create_svg_file()
self.curr_card += 1
layer = self.svg.add_inkscape_layer(
'card{0:02d}'.format(self.curr_card),
"Card {0}".format(self.curr_card))
cut_line = SVG.rect_round(0, 0, 0, self.card_width, self.card_height,
3)
style = Style()
style.set('fill', "#ffffff")
style.set('stroke', "none")
cut_line.set_style(style)
SVG.add_node(layer, cut_line)
self._called_pre_card = True
return (self.svg, layer)
def post_card(self):
if not self._called_pre_card:
raise Exception("pre_card() should be called before post_card()")
if self._called_post_card:
raise Exception("post_card() should only be called once per card")
if self.curr_card == (self.cards_per_page - 1):
self.__write_svg_file(self.curr_filename)
self.curr_filename = ''
self.curr_card = -1
self._called_post_card = True
class Sketch:
def __init__(self, width=600, height=600):
self.width = width
self.height = height
self.svg = SVG(viewBox=f"0 0 {width} {height}",
style="stroke: black; fill: none;")
self.background("white")
self.tcount = 0
def background(self, color):
self.svg.rect(x=0,
y=0,
width=self.width,
height=self.height,
fill=color,
stroke="none")
def circle(self, x, y, d):
self.svg.circle(cx=x, cy=y, r=d / 2)
def line(self, x1, y1, x2, y2, **kwargs):
self.svg.line(x1=x1, y1=y1, x2=x2, y2=y2, **kwargs)
def rect(self, x, y, w, h):
self.svg.rect(x=x, y=y, width=w, height=h)
def path(self, d):
self.svg.path(d=d, stroke="black")
def show(self, node, margin=0, scale=False, size=260):
if margin or scale:
s = (self.width - 2 * margin) / size if scale else 1
g = Node(
"g",
transform=f"translate({margin}, {margin}) scale({s}, {s})")
g.add_node(node)
self.svg.add_node(g)
else:
self.svg.add_node(node)
def transform(self, node, dx, dy, sx, sy):
g = Node("g", transform=f"translate({dx}, {dy}) scale({sx}, {sy})")
g.add_node(node)
return g
def thumbnail(self, shape):
size = 260 / 4
x = self.tcount * (size + 20) + 20
y = 10
self.show(self.transform(shape, x, y, 0.25, 0.25))
self.tcount += 1
def clear():
self.tcount = 0
def tostring(self):
return self.svg.tostring()
def render(self, code):
g = self.get_globals()
exec(code, g, g)
return self.tostring()
def show_grid(self):
size = 100
for y in range(0, self.height + 1, size):
self.line(0, y, self.width, y, stroke="#ccc")
for x in range(0, self.width + 1, size):
self.line(x, 0, x, self.height, stroke="#ccc")
def get_globals(self):
return {
"circle": self.circle,
"rect": self.rect,
"line": self.line,
"path": self.path,
"width": self.width,
"height": self.height,
"show_grid": self.show_grid,
"Node": Node,
"show": self.show,
"thumbnail": self.thumbnail,
**g.exports
}
'''
Fichier permettant d'effectuer différents tests au fur et à mesure du
développement
'''
from svg import SVG
from math import pi
from geometry import random_line, random_point
from geometry import Point
dessin = SVG("dessin.svg", 1000, 1000)
def test_line():
'''
Test affichant une ligne aléatoire sur le dessin svg
'''
ligne = random_line()
dessin.draw_line(ligne)
def test_multiple_random():
'''
Test affichant 7 lignes aléatoires sur le dessin svg
'''
for _ in range(7):
ligne = random_line((500, 1000), (0, 1000))
dessin.draw_line(ligne)
def test_symmetrical_point():
def save_graph(histogram: Histogram, bin_color: colors.Color):
scale = 1
w = h = 1024 / 2 * scale
stroke_width = 2
left_margin = 0.075 * w
right_margin = left_margin
top_margin = 0.4 * h
bottom_margin = 0.1 * h
x_min = left_margin
x_max = w - right_margin
y_min = top_margin
y_max = h - bottom_margin
time_min = 0
time_max = histogram.bin_width * len(histogram.counts)
time_to_x = lambda t: (t - time_min) / (time_max - time_min) * (x_max - x_min) + x_min
percentage_min = 0
percentage_max = 0.3
percentage_to_y = lambda p: (1 - (p - percentage_min) / (percentage_max - percentage_min)) * \
(y_max - y_min) + y_min
# draw background
elements: List[Element] = []
margin = 0
elements.append(Polygon(
vertices=[
Point(margin, margin),
Point(w - margin, margin),
Point(w - margin, h - margin),
Point(margin, h - margin),
],
fill=colors.white,
stroke=None,
))
# draw bins
percentages = [count / histogram.total_count for count in histogram.counts]
for (i, percentage) in enumerate(percentages):
t1 = i * histogram.bin_width
t2 = (i + 1) * histogram.bin_width
x1 = time_to_x(t1) - 0.5
x2 = time_to_x(t2) + 0.5
y1 = percentage_to_y(0)
y2 = percentage_to_y(percentage)
elements.append(Polygon(
vertices=[
Point(x1, y1),
Point(x2, y1),
Point(x2, y2),
Point(x1, y2),
],
fill=bin_color,
stroke=None,
))
# draw x axis
elements.append(Polyline(stroke=Stroke(colors.black, stroke_width), points=[
Point(x_min - 0.5, y_max),
Point(x_max + 0.5, y_max),
]))
# draw x axis ticks
for i in range(len(histogram.counts) + 1):
t = i * histogram.bin_width
x = time_to_x(t)
elements.append(Polyline(
stroke=Stroke(colors.black, 1),
points=[
Point(x, y_max),
Point(x, y_max - 5),
],
))
# TODO: draw x axis labels
# draw median line
x_median = time_to_x(histogram.median)
elements.append(Polyline(stroke=Stroke(colors.black, 1.25), points=[
Point(x_median, y_min),
Point(x_median, y_max),
]))
# TODO: draw median text
# TODO: title
# TODO: subtitle
svg = SVG(width=w, height=h, elements=elements)
path = os.path.join(GRAPHS_DIR, histogram.filename)
svg.write_xml(path)
]
)
def test_path_move(path: str, move, expected_result: str):
actual = (SVG.fromstring(svg_string(path))
.shapes_to_paths())
for shape in actual.shapes():
shape.move(move.x, move.y, inplace=True)
actual = actual.tostring()
expected_result = (SVG.fromstring(svg_string(expected_result))
.tostring())
print(f'A: {actual}')
print(f'E: {expected_result}')
assert actual == expected_result
@pytest.mark.parametrize(
"actual, expected_result",
[
(SVG.parse('clip-rect.svg'), SVG.parse('clip-rect-clipped.svg')),
(SVG.parse('clip-ellipse.svg'), SVG.parse('clip-ellipse-clipped.svg')),
]
)
def test_apply_clip_path(actual, expected_result):
actual.apply_clip_paths(inplace=True)
drop_whitespace(actual)
drop_whitespace(expected_result)
print(f'A: {actual.tostring().decode("utf-8")}')
print(f'E: {expected_result.tostring().decode("utf-8")}')
assert actual.tostring() == expected_result.tostring()
def test_parse_common_attrib(shape, expected_attrib):
svg = SVG.fromstring(shape)
field_values = dataclasses.asdict(svg.shapes()[0])
for attrib, expected_value in expected_attrib.items():
assert field_values[attrib] == expected_value
def draw_description(self, id, raw_desc, svg, svg_group):
text = svg.add_loaded_element(svg_group, 'spell-description')
SVG.set_text(text, self.expand_desc(raw_desc))