def wavelet_ricker_series():
n_lines = 15
n_points = 100
max_offset = 800
hue = np.random.choice(['blue', 'purple', 'red'])
luminosity = None
rand_color = randomcolor.RandomColor()
background_color = np.array(
rand_color.generate(
hue=hue, luminosity=luminosity, format_='Array_rgb')) / 256.
plt.rcParams["figure.facecolor"] = background_color[0]
fig, axes = plt.subplots(n_lines, sharex=True, frameon=True)
offset = 1
rand_color = randomcolor.RandomColor()
value = 1.0
for ax in axes:
for _ in range(5):
x_offset = np.random.uniform(0, max_offset)
a = np.random.uniform(1, 5)
n_points /= 2.
color_rgb = np.array(
rand_color.generate(hue=hue,
luminosity=luminosity,
format_='Array_rgb')) / 256.
color_rgb = color_rgb[0]
color_hsv = color.rgb2hsv(color_rgb)
color_hsv[2] *= 0.4 + 0.6 * x_offset / max_offset
color_rgb = color.hsv2rgb(color_hsv)
ax.axis('off')
n_points = 500
sample_frac = 0.1
mode = np.random.uniform(0, n_points)
x = np.random.triangular(0,
mode,
n_points,
size=int(n_points * sample_frac))
x = [int(i) for i in x]
y = signal.ricker(int(n_points), 25)
y = y[x]
ax.scatter(x_offset + np.array(x),
90 * y,
color=color_rgb,
s=10.0,
alpha=0.99)
# ax.set_aspect(2)
offset += 3
# ax.set_xlim(0, 500)
fig.set_figheight(5)
# fig.set_figwidth(4)
plt.show()
def random_color(self): ''' Generates random colors for moving averages ''' random_color = randomcolor.RandomColor().generate() while random_color in self.colors_used: random_color = randomcolor.RandomColor().generate() self.colors_used.append(random_color) return random_color
def fun_squiggles():
n_lines = 5
hue = np.random.choice(['blue', 'purple', 'red', 'green'])
luminosity = None
fig, axes = plt.subplots(1, n_lines)
rand_color = randomcolor.RandomColor()
background_color = np.array(
rand_color.generate(
hue=hue, luminosity=luminosity, format_='Array_rgb')) / 256.
plt.rcParams["figure.facecolor"] = background_color[0]
for axes_index in range(n_lines):
axes[axes_index].axis('off')
rand_color = randomcolor.RandomColor()
color_rgb = np.array(
rand_color.generate(
hue=hue, luminosity=luminosity, format_='Array_rgb')) / 256.
color_rgb_background = color_rgb[0]
color_rgb = np.array(
rand_color.generate(
hue=hue, luminosity=luminosity, format_='Array_rgb')) / 256.
color_rgb = color_rgb[0]
color_hsv = color.rgb2hsv(color_rgb_background)
color_hsv[2] *= 0.95
t = np.linspace(0, 10, 1500)
w = chirp(t, f0=6, f1=1, t1=10, method='linear')
axes[0].plot(t, w, color=color_rgb)
axes[0].set_facecolor(color_rgb_background)
top_freq = np.random.uniform(30, 80)
widths = np.arange(1, top_freq)
cwtmatr = signal.cwt(w, signal.ricker, widths)
for item in cwtmatr:
color_rgb = np.array(
rand_color.generate(hue=hue,
luminosity=luminosity,
format_='Array_rgb')) / 256.
axes[axes_index].plot(item, range(len(item)), color=color_rgb[0])
height = np.max(item) - np.min(item)
x_min = np.random.uniform(np.min(item), np.max(item) * 0.8)
if axes_index == 0:
x_min = np.min(item) # + 0.1 * height
if axes_index == n_lines - 1:
x_max = np.max(item) # - 0.1 * height
x_max = x_min + 0.25 * height
axes[axes_index].set_xlim(x_min, x_max)
def get_colors(label_number=41, binary=True):
import randomcolor
rand_color = randomcolor.RandomColor()
colors = rand_color.generate(count=label_number)
if binary:
b_colors = {'true':'green','false':'r'}
return colors, b_colors
def __init__(self, num_classes, bgr=False):
# Generate color for each class
rand_color = randomcolor.RandomColor()
colors = rand_color.generate(luminosity='bright',
count=num_classes,
format_='rgb')
# Class map dictionary
self.__class_map = {}
class_id = 0
# RGB string to R, G, B values
p = re.compile(r'rgb\((\d{1,3}), (\d{1,3}), (\d{1,3})\)')
# Populate dictionary
for color in colors:
matches = p.findall(color)
r, g, b = matches[0]
if bgr:
class_color = (int(b), int(g), int(r))
else:
class_color = (int(r), int(g), int(b))
self.__class_map[class_id] = {}
self.__class_map[class_id]['color'] = class_color
class_id += 1
def def_structure(self, structure: str, parts: list):
"""Define parts in a structure and color the structure and parts.
Assign parts to be members of a structure. Every structure is
assigned a hue; the level 1 structure is assigned a color and
all level 2 parts are assigned a color, all in the same hue
for clarity. Should have # of structures <= 7 to avoid reusing
hues.
"""
index = len(self.parts) # Number of structures defined previously
rand_color = randomcolor.RandomColor()
hues = ['red', 'green', 'blue', 'purple', 'yellow', 'orange', 'pink']
if index >= len(hues):
index %= len(hues)
print("labels: WARNING: reusing hue '{:s}'".format(hues[index]))
self.parts[structure] += parts
self.levels[1][structure] = rand_color.generate(hue=hues[index],
luminosity='bright')[0]
for part, color in zip(
parts,
rand_color.generate(hue=hues[index],
count=len(parts),
luminosity='bright')):
self.levels[2][part] = color
def plot(self, x_index, y_index):
"""
Generates 2D graph of distribution components of the of Gaussian Mixture model.
Parameters
----------
x_index : int
Index of sample point to represent the x-axis value.
y_index : int
Index of sample point to represent the y-axis value.
"""
rand_color = randomcolor.RandomColor()
colors = [colorConverter.to_rgb(rand_color.generate()[0]) for n in enumerate(range(0, self.gmm.n_components))]
fig = plt.figure(figsize=(10, 10))
ax = plt.subplot(111)
X = self.observation_vectors
labels = self.gmm.model.predict(self.observation_vectors)
self.__make_ellipses(self.gmm.model, ax, colors)
for n, color in enumerate(colors):
data = X[np.where(labels == n)]
plt.scatter(data[:, x_index], data[:, y_index], s=0.8, color=color)
plt.xticks(())
plt.yticks(())
plt.show()
def plot(self, x_index, y_index, z_index):
"""
Generates 3D graph of the clusters of KMeans model
Parameters
----------
x_index : int
Index of sample point to represent the x-axis value.
y_index : int
Index of sample point to represent the y-axis value.
z_index : int
Index of sample point to represent the z-axis value.
"""
labels = self.kmm.model.labels_
centroids = self.kmm.model.cluster_centers_
rand_color = randomcolor.RandomColor()
colors = [colorConverter.to_rgb(rand_color.generate()[0]) for n in enumerate(range(0, self.kmm.n_clusters))]
fig = plt.figure(figsize=(10, 10))
ax = Axes3D(fig)
ax.autoscale_view()
X = self.observation_vectors
for n, color in enumerate(colors):
data = X[np.where(labels == n)]
ax.scatter(data[:, x_index], data[:, y_index], data[:, z_index], color=color)
ax.scatter(centroids[:, x_index], centroids[:, y_index], centroids[:, z_index], marker="x", s=150, linewidths=5, zorder=100)
ax.autoscale(enable=False, axis='both')
plt.show()
def main():
if not os.path.exists(DATASET_FOLDER):
print("Dataset not found")
return
imgpaths = []
classes = []
classes_set = []
with open(DATASET_FOLDER + VALIDATION_NAME, 'r') as csvfile:
trainreader = csv.reader(csvfile)
headers = next(trainreader, None)
for row in trainreader:
imgpaths.append(row[0])
classes.append(row[1])
if row[1] not in classes_set:
classes_set.append(row[1])
if len(imgpaths) != len(classes):
print("Wrong sizes between imgpaths and classes.")
rand_color = randomcolor.RandomColor()
colors = rand_color.generate(luminosity='bright', count=len(classes_set))
colors_dict = {cl: color for (cl, color) in zip(classes_set, colors)}
aspectratios = [] # (w/h, color)
aspectratios.extend(
Parallel(n_jobs=NUM_PROCESSOR)(
delayed(aspectratio)(img_file, cl, colors_dict)
for (img_file, cl) in zip(imgpaths, classes)))
random.shuffle(aspectratios)
drawaspectratios(aspectratios, colors_dict)
def random_colors(count):
rand_color = randomcolor.RandomColor()
random_colors = [
map(int, rgb_str[4:-1].replace(',', ' ').split()) for rgb_str in
rand_color.generate(luminosity="bright", count=count, format_='rgb')
]
return random_colors
def gif_flicker_custom(code,
outputfile,
field_width=30,
space_width=15,
height=50,
wait=50):
color_count = 4
data = swap_bytes(code)
stream = []
for j in range(0, color_count):
for i in range(color_count - 1, -1, -1):
stream.append(str(i) + str(j) * 4)
stream.append(str(color_count - 1) * 5)
hex_count = math.floor(math.log(color_count**4, 16))
for i in range(0, len(data), hex_count):
c = data[i:i + hex_count]
v = int(c, 16)
v = base_convert(v, color_count).zfill(4)[::-1]
for i in range(color_count - 1, -1, -1):
stream.append(str(i) + v)
width = 5 * field_width + 6 * space_width
images = []
rand_color = randomcolor.RandomColor()
colors = rand_color.generate(count=color_count, format_='rgb')
#print(stream)
for frame in stream:
im = Image.new('RGB', (width, height), colors[0])
draw = ImageDraw.Draw(im)
x = space_width
for c in frame:
draw.rectangle([(x, 0), (x + field_width, height)],
fill=colors[int(c, color_count)],
width=0)
x += space_width + field_width
im = im.convert('P',
dither=None,
palette=Image.ADAPTIVE,
colors=color_count)
images.append(im)
images[0].save(outputfile,
save_all=True,
append_images=images[1:],
optimize=False,
duration=wait,
loop=0,
disposal=2)
def paint_graph(self, location, graph, communities):
sys.stdout.write('Drawing graph ... ')
sys.stdout.flush()
network = gt.Graph(graph, directed=False)
folder = os.path.abspath(self._output_dir)
r_cols = randomcolor.RandomColor().generate(count=len(communities) + 1)
colors = [
list(int(r_col[1:][i:i + 2], 16) for i in (0, 2, 4))
for r_col in r_cols
]
color = network.new_vertex_property('int')
base_color = colors.pop()
for v in network.vertices():
color[v] = (base_color[0] << 16) + (
base_color[1] << 8) + base_color[2]
for community in communities:
c = colors.pop()
for v in community:
color[v] = (c[0] << 16) + (c[1] << 8) + c[2]
pos = gt.sfdp_layout(network)
gt.graph_draw(network,
pos=pos,
vertex_fill_color=color,
output=os.path.join(
folder,
str(len(communities)) + '_' + location +
'_graph-communities.svg'))
sys.stdout.write('Ok!\n')
sys.stdout.flush()
def process(data, threshold, size):
cord_lst, cord_id = extract_cords(data)
clusters, n_clusters = dbscan(cord_lst, threshold, size)
#colorset
rand_color = randomcolor.RandomColor()
color_lst = rand_color.generate(count=n_clusters)
#generate geojson
features = []
for i in range(len(clusters)):
if clusters[i].size:
cords = clusters[i].tolist()
cords_set = set()
for cord in cords:
cords_set.add(tuple(cord))
if i != 0:
top_keywords = process_text(list(cords_set), cord_id)
summary = "Number of posts: " + str(
len(cords)) + ", Top 10 Keywords:"
for keyword, frequency in top_keywords:
summary = summary + " " + keyword + "(" + str(
frequency) + ")"
cord_mp = MultiPoint(list(cords_set))
if i == 0:
feature = Feature(geometry=cord_mp,
properties={"color": "#826969"})
else:
feature = Feature(geometry=cord_mp,
properties={
"color": color_lst[i - 1],
"summary": summary
})
features.append(feature)
feature_collection = FeatureCollection(features)
return feature_collection
def __init__(self,
base_stations,
clients,
xlim,
map_limits,
output_dpi=500,
scatter_size=30,
output_filename='output.png'):
self.output_filename = output_filename
self.base_stations = base_stations
self.clients = clients
self.xlim = xlim
self.map_limits = map_limits
self.output_dpi = output_dpi
self.scatter_size = scatter_size
self.fig = plt.figure(figsize=(32, 24))
self.fig.canvas.set_window_title('Network Slicing Simulation')
self.gs = gridspec.GridSpec(4, 4, width_ratios=[3, 3, 3, 3])
rand_color = randomcolor.RandomColor()
colors = rand_color.generate(luminosity='bright',
count=len(base_stations))
# colors = [np.random.randint(256*0.2, 256*0.7+1, size=(3,))/256 for __ in range(len(self.base_stations))]
for c, bs in zip(colors, self.base_stations):
bs.color = c
def _get_dynamic_augmentations(self, leave):
augmentations = []
downscale = random.choice([True, False])
if self._scale:
h, w, c = leave.shape
scale_max = self._max_width/w - 1
scale_min = -(1 - self._min_width/w)
if downscale:
augmentations.append(albu.RandomScale(scale_limit=[scale_min, 0.0], p=1))
else:
augmentations.append(albu.RandomScale(scale_limit=[0.0, scale_max], p=1))
else:
augmentations.append(None)
rand_color = randomcolor.RandomColor()
color = rand_color.generate(hue="green", count=1)
if self._dropout_aug:
augmentations.append(self._get_dropout_aug(leave, color))
else:
augmentations.append(None)
blur_aug = self._blur_aug()
if blur_aug:
augmentations.append(blur_aug)
else:
if self._sharpen:
augmentations.append(albu.IAASharpen(p=0.5))
else:
augmentations.append(None)
return augmentations
def visualize_layers(reachable_layers):
layers = {}
for (x, y, z), label in label_matrix.voxels.items():
pos = Vec3(x, y, z)
if label == 0 or label not in reachable_layers:
continue
if label in layers:
layers[label][pos] = True
continue
layers[label] = np.zeros(label_matrix.shape, dtype=bool)
layers[label][pos] = True
color_gen = randomcolor.RandomColor()
colors = color_gen.generate(count=len(layers), format_='rgb')
for i in range(len(colors)):
values = map(lambda e: int(e), re.findall('\\d+', colors[i]))
values = list(values)
colors[i] = (values[0] / 255, values[1] / 255, values[2] / 255)
meshes = []
i = 0
for label in layers:
color = colors[i]
meshes.append(Mesh.from_voxel_grid(layers[label], colors=color))
i += 1
show(meshes)
def setup(self):
rand_color = randomcolor.RandomColor()
self.shape('circle')
self.shapesize(0.5, 0.5)
self.color(rand_color.generate())
self.penup()
self.goto(randint(-150, 150), randint(-150, 150))
def party_rgb():
color = randomcolor.RandomColor().generate(count=1, format_='rgb')
rgb = [
int(value.strip())
for value in color[0][4:color[0].rfind(')')].split(',')
]
return rgb[0], rgb[1], rgb[2]
def paint_graph(path, graph, communities):
if path:
sys.stdout.write('Drawing graph ... ')
sys.stdout.flush()
network = gt.Graph(graph, directed=False)
folder = os.path.abspath(path)
# colors = random.sample(range(100,151), len(communities))
r_cols = randomcolor.RandomColor().generate(count=len(communities) + 1)
colors = [
list(int(r_col[1:][i:i + 2], 16) for i in (0, 2, 4))
for r_col in r_cols
]
# color = graph.new_vertex_property('vector<float>')
color = network.new_vertex_property('int')
base_color = colors.pop()
for v in network.vertices():
color[v] = (base_color[0] << 16) + (
base_color[1] << 8) + base_color[2]
for community in communities:
c = colors.pop()
for v in community:
color[v] = (c[0] << 16) + (c[1] << 8) + c[2]
pos = gt.sfdp_layout(network)
gt.graph_draw(network,
pos=pos,
vertex_fill_color=color,
output=os.path.join(folder, 'graph-communities.svg'))
sys.stdout.write('Ok!\n')
sys.stdout.flush()
def draw_best_objects(tracker, indices, energy=None, filename="", image_size=[], gen_title=False):
n_objects = len(tracker.object_names)
rc = randomcolor.RandomColor()
colorset = rc.generate(luminosity='bright', count=n_objects, format_='rgb')
color_list = []
for i in range(0, n_objects):
color_array = np.fromstring(colorset[i][4:-1], sep=",", dtype=np.int)
color_array = color_array * (1. / 255.)
color_list.append(color_array)
legend_list = []
for i in range(0, n_objects):
legend_list.append((tracker.object_names[i], color_list[i]))
box_list = []
for i in range(0, n_objects):
box_coords = tracker.box_pairs[indices[i]][1][0:4]
box_and_color = np.hstack((box_coords, color_list[i]))
box_list.append(box_and_color)
title = ""
if gen_title:
title = "Object Detections"
if energy != None:
title = "Object Detections (energy={0:.3f})".format(energy)
draw_image_box(tracker.image_path, box_list, legend_list, title, filename, size=image_size)
def run_2():
fig = plt.figure(constrained_layout=False, frameon=False)
ax = fig.add_axes([0, 0, 1, 1])
ax.set_facecolor((0.07, 0.07, 0.05))
rand_color = randomcolor.RandomColor()
c1 = np.random.uniform(-15, 15)
c2 = np.random.uniform(-30, 30)
f_y = lambda x_, c0: c2 * x_**2 + c1 * x_**1 + c0 * np.random.uniform(
-1, 1)
for index, total_points in enumerate([50, 80, 120]):
main_rgb_color = np.array(
rand_color.generate(hue="blue", count=1,
format_='Array_rgb')) / 256.
main_rgb_color = main_rgb_color[0]
for another_index in range(10):
x = np.linspace(0, 2, total_points)
y = another_index + 10 * f_y(x, np.random.uniform(-20, 20))
max = 50
err = np.random.uniform(5, max) * np.sin(
x * np.random.uniform(5, max))
for _ in range(5):
err += np.random.uniform(5, max) * np.sin(
x * np.random.uniform(5, max))
max *= 0.9
max = np.max([max, 20])
if np.random.rand() < 0.05:
y = y[::-1]
tmp_hsv_color = color.rgb2hsv(main_rgb_color)
tmp_hsv_color[2] *= np.random.uniform(0.6, 1.0)
ecolor = color.hsv2rgb(tmp_hsv_color)
if index == 0:
elinewidth = 50
alpha = 0.005
else:
elinewidth = np.random.uniform(2, 10)
alpha = 1 - np.random.power(10)
alpha = np.max([0.3, alpha])
ax.errorbar(x,
y,
err,
linewidth=0,
ecolor=ecolor,
elinewidth=elinewidth,
barsabove=True,
errorevery=total_points // 40,
snap=True,
alpha=alpha)
plt.show()
def community_graph(links_df, original_df, g_export='graph.json'):
""" Function to create json file based on communities generated by nx
Args:
links_df (pandas data frame): The data frame on which we will create the graph from
original_df (pandas data frame): data frame of the nodes
returns:
A data frame that represents the nodes with a unique group_id and color
"""
print(
"Creating a nodes data frame representing the nodes with a unique group ids and colors"
)
# clean up column names accordingly
links_df = links_df.rename(columns={
"target": "source",
"neighbor": "target"
})
# define graph
""" change: source='target' and target='neighbor' """
g = nx.from_pandas_edgelist(links_df, source='source', target='target')
# compute the best partition
G = g
# c = list(greedy_modularity_communities(G))
partition = community.best_partition(G)
# merge the groupids onto the df
partition_items = partition.items()
df_with_groupids = pd.DataFrame(partition_items,
columns=['Code', 'group_id'])
# get edges only where source and target nodes belong to a valid community for now
nodes_in_communities = df_with_groupids['Code'].unique()
edges_for_community_nodes_df = links_df.loc[
links_df['source'].isin(nodes_in_communities)
& links_df['target'].isin(nodes_in_communities)]
# merge unique ids onto the original dataframe
df_merged = pd.merge(original_df,
df_with_groupids,
how='left',
on=['Code'])
# add a unique color - NaN's will have same color
unique_community_ids = df_merged['group_id'].unique()
color_dict = []
for groupid in unique_community_ids:
# generate a random color
color = randomcolor.RandomColor().generate()[0]
color_dict.append({'group_id': groupid, 'color_code': color})
# create a dataframe from the color and unique id
color_df = pd.DataFrame(color_dict)
# # merge that dataframe with the original
df_merged_with_color = pd.merge(df_merged,
color_df,
how='left',
on=['group_id'])
return df_merged_with_color
def make_block(self):
rand_color = randomcolor.RandomColor()
block = Turtle("square")
block.color(rand_color.generate())
block.shapesize(1, 1)
block.penup()
return block
def run_2(save_fig=False):
n_lines = 3
n_points = 800
x_min = -20
x_max = 20
hue = np.random.choice(['blue', 'purple', 'red'])
luminosity = None
rand_color = randomcolor.RandomColor()
background_color = np.array(
rand_color.generate(
hue=hue, luminosity=luminosity, format_='Array_rgb')) / 256.
plt.rcParams["figure.facecolor"] = background_color[0]
fig, axes = plt.subplots(n_lines, sharex=True, frameon=True)
offset = 1
rand_color = randomcolor.RandomColor()
value = 1.0
for ax in axes:
n_points /= 2.
color_rgb = np.array(
rand_color.generate(
hue=hue, luminosity=luminosity, format_='Array_rgb')) / 256.
color_rgb = color_rgb[0]
color_hsv = color.rgb2hsv(color_rgb)
color_hsv[2] *= value
value *= 0.9
color_rgb = color.hsv2rgb(color_hsv)
ax.axis('off')
# x = offset * np.random.uniform(-2, 2, int(n_points))
# x = np.random.normal(0, offset * 2, int(n_points))
mode = np.random.uniform(x_min, x_max)
x = np.random.triangular(x_min, mode, x_max, size=int(n_points))
y = 1 * np.sinc(x**2)
ax.scatter(x, y / offset, color=color_rgb, s=1.5)
ax.set_aspect(15)
offset += 3
ax.set_xlim(x_min, x_max)
fig.set_figheight(5)
fig.set_figwidth(8)
if save_fig:
plt.savefig('dotted_lines')
plt.show()
def run_1():
fig = plt.figure(constrained_layout=False, frameon=False)
ax = fig.add_axes([0, 0, 1, 1])
ax.set_facecolor((0.37, 0.37, 0.35))
rand_color = randomcolor.RandomColor()
for index, total_points in enumerate([50, 80, 120]):
main_rgb_color = np.array(
rand_color.generate(hue="blue", count=1,
format_='Array_rgb')) / 256.
main_rgb_color = main_rgb_color[0]
x = np.linspace(0, 3, total_points)
for _ in range(500):
if index == 0:
y = np.random.uniform(-30, 30) * x**2 + np.random.uniform(
-15, 15) * x**1 + np.random.uniform(-1, 1)
else:
y = np.random.uniform(-25, 20) * x**2 + np.random.uniform(
-10, 10) * x**1 + np.random.uniform(-10, 10)
max = 20
err = np.random.uniform(5, max) * np.sin(
x * np.random.uniform(5, max))
for _ in range(5):
err += np.random.uniform(5, max) * np.sin(
x * np.random.uniform(5, max))
max *= 0.4
max = np.max([max, 20])
if np.random.rand() < 0.5:
y = y[::-1]
tmp_hsv_color = color.rgb2hsv(main_rgb_color)
tmp_hsv_color[2] *= np.random.uniform(0.4, 0.7)
ecolor = color.hsv2rgb(tmp_hsv_color)
if index == 0:
elinewidth = 100
alpha = 0.05
else:
elinewidth = np.random.uniform(50, 100)
alpha = 1 - np.random.power(1)
ax.errorbar(x,
y,
err,
linewidth=0,
ecolor=ecolor,
elinewidth=elinewidth,
barsabove=True,
errorevery=total_points // 40,
snap=True,
alpha=alpha)
plt.show()
def giveusernewcode(family):
rc = randomcolor.RandomColor()
rando = rc.generate(hue=family)
actualhexcode = rando[0]
notborked = actualhexcode.strip("#")
url = urlbase + "/givecode?hex=" + notborked + "&fam=" + family
result = requests.get(url)
print(result.text + " written")
return actualhexcode
def category_badge(category):
if category not in CATEGORY_NAMES:
return {}
return {
'category': category,
'name': CATEGORY_NAMES[category],
'color':
randomcolor.RandomColor(category).generate(luminosity='dark')[0],
}
def test_seed(self):
if self.py_version == 3:
expected_color = ['#e094be']
else:
expected_color = ['#c0caf7']
color = self.rand_color.generate()
self.assertEqual(color, expected_color)
self.assertEqual(color, randomcolor.RandomColor(42).generate())
def setup(self):
rand_color = randomcolor.RandomColor()
self.color(rand_color.generate())
self.penup()
self.hideturtle()
self.goto(0, 300)
self.write(f"Level - {self.level}",
align="center",
font=("Comic Sans", 20, "bold"))
def random_col():
rand_color = randomcolor.RandomColor()
main_color = rand_color.generate()
if main_color in color_list:
rand_color()
else:
color_list.append(main_color[0])
return True