def plot_single_decomposition_runtime(
self, decomposition_runtime_metric_specification,
decomposition_runtime_axes_specification):
base_filename = "{}__by__{}".format(
decomposition_runtime_metric_specification["filename"],
decomposition_runtime_axes_specification["filename"])
output_path, filename = self._construct_output_path_and_filename(
base_filename)
logger.debug("output_path is {};\t filename is {}".format(
output_path, filename))
if not self.overwrite_existing_files and os.path.exists(filename):
logger.info(
"Skipping generation of {} as this file already exists".format(
filename))
return
values_dict = self._get_values_dict(
base_filename, decomposition_runtime_axes_specification,
decomposition_runtime_metric_specification)
fig, ax = plt.subplots(figsize=(FIGSIZE[0] - 0.75, FIGSIZE[1]))
if self.paper_mode:
print decomposition_runtime_axes_specification
ax.set_title(
decomposition_runtime_axes_specification['plot_title'],
fontsize=PLOT_TITLE_FONT_SIZE)
else:
title = decomposition_runtime_metric_specification['name'] + "\n"
title += self._get_sol_count_string(values_dict)
ax.set_title(title, fontsize=PLOT_TITLE_FONT_SIZE)
sorted_keys = sorted(values_dict.keys())
percentiles = decomposition_runtime_metric_specification["percentiles"]
linewidths = decomposition_runtime_metric_specification.get(
"linewidths", [0.5] * len(percentiles))
color_values = decomposition_runtime_metric_specification.get(
"color_values")
lines = np.zeros((len(percentiles), len(sorted_keys)))
for i, key in enumerate(sorted_keys):
lines[:, i] = np.percentile(values_dict[key], percentiles)
t_start = time()
handles = []
median_legend_handle = None
for i, p in enumerate(percentiles):
sorted_keys = sorted(values_dict.keys())
if p == 50:
sorted_keys[0] += 0.15
sorted_keys[-1] -= 0.15
line = ax.plot(sorted_keys,
lines[i][:],
linewidth=linewidths[i],
color="k",
label="median" if p == 50 else None,
solid_capstyle='round')
line[0].set_path_effects([
path_effects.Stroke(linewidth=linewidths[i] + 0.5,
foreground='w'),
path_effects.Normal()
])
if i < len(percentiles) - 1:
if color_values:
c = plt.cm.inferno(color_values[i])
else:
c = plt.cm.inferno(0.01 * p)
if p == 50:
median_legend_handle = line[0]
handles[-1].set_label("{}% - {}%".format(
percentiles[i - 1], percentiles[i + 1]))
else:
handles.append(
mpatches.Patch(color=c,
label="{}% - {}%".format(
p, percentiles[i + 1])))
ax.fill_between(
sorted_keys,
lines[i][:],
lines[i + 1][:],
facecolor=matplotlib.colors.to_rgba(
c, 0.8), # apply alpha only to facecolor
)
handles.reverse()
#if median_legend_handle:
# handles.append(median_legend_handle)
leg = ax.legend(handles=handles,
fontsize=LEGEND_LABEL_FONT_SIZE - 2,
loc=2,
title="percentiles",
handletextpad=.35,
borderaxespad=0.175,
borderpad=0.2,
handlelength=1.75)
plt.setp(leg.get_title(), fontsize=LEGEND_TITLE_FONT_SIZE - 1)
plt.gca().add_artist(leg)
sec_leg = ax.legend(handles=[median_legend_handle],
fontsize=LEGEND_LABEL_FONT_SIZE - 1,
loc=1,
title="",
handletextpad=.35,
borderaxespad=0.175,
borderpad=0.2,
handlelength=1.75,
frameon=True)
print "Plotting:", time() - t_start, "seconds"
if "x_axis_ticks" in decomposition_runtime_axes_specification:
ax.set_xticks(
decomposition_runtime_axes_specification["x_axis_ticks"])
ax.set_xticklabels(
map(str,
decomposition_runtime_axes_specification["x_axis_ticks"]))
if decomposition_runtime_metric_specification.get(
"use_log_scale", False):
plt.yscale('log')
plt.autoscale(True)
if "xlim" in decomposition_runtime_axes_specification:
ax.set_xlim(decomposition_runtime_axes_specification['xlim'][0],
decomposition_runtime_axes_specification['xlim'][1])
ax.tick_params(axis="x", **DEFAULT_MAJOR_TICK_PARAMS)
ax.tick_params(axis="y", **DEFAULT_MAJOR_TICK_PARAMS)
ax.tick_params(axis="x", **DEFAULT_MINOR_TICK_PARAMS)
ax.tick_params(axis="y", **DEFAULT_MINOR_TICK_PARAMS)
for tick in ax.xaxis.get_major_ticks():
tick.label.set_fontsize(TICK_LABEL_FONT_SIZE)
for tick in ax.yaxis.get_major_ticks():
tick.label.set_fontsize(TICK_LABEL_FONT_SIZE)
#plt.xlim(-5,41)
ax.grid(
) # to change grid style parameters, modify the BOXPLOT_..._TICK_PARAMS dicts defined at the top of the file
ax.set_xlabel(decomposition_runtime_axes_specification['x_axis_title'],
fontsize=X_AXIS_LABEL_FONT_SIZE)
ax.set_ylabel(
decomposition_runtime_metric_specification['y_axis_title'],
fontsize=Y_AXIS_LABEL_FONT_SIZE)
self._show_and_or_save_plots(output_path, filename)
def plot_img_boxes(img,
boxes,
classes,
extras=None,
plt_ax=None,
figsize=None,
class_names=None,
real_pixels=False,
box_centered=True):
if not plt_ax:
_, plt_ax = plt.subplots(figsize=figsize)
colors = np.array([[1, 0, 1], [0, 0, 1], [0, 1, 1], [0, 1, 0], [1, 1, 0],
[1, 0, 0]])
if type(img) == PIL.Image.Image:
width = img.width
height = img.height
elif type(img) in [torch.Tensor, np.ndarray]:
# if len(img.shape)>3: img = img[0]
if type(img) == torch.Tensor:
img = img.clone().cpu().numpy()
width = img.shape[2]
height = img.shape[1]
img = img.transpose(1, 2, 0)
if (img < 1.01).all() and (img >= 0).all():
img = img.clip(
0, 1
) # avoid "Clipping input data to the valid range" warning after tensor roundings
else:
raise (f"Unkown type for image: {type(img)}")
if len(boxes) > 0 and not real_pixels:
boxes[:, 0] *= width
boxes[:, 2] *= width
boxes[:, 1] *= height
boxes[:, 3] *= height
for i in range(len(boxes)):
b, class_id = boxes[i], classes[i]
if b[0] == 0:
break
color = colors[class_id % len(colors)]
if box_centered:
x, y = (b[0] - b[2] / 2, b[1] - b[3] / 2)
w, h = (b[2], b[3])
else:
x, y = b[0], b[1]
w, h = b[2], b[3]
patch = plt_ax.add_patch(
patches.Rectangle([x, y], w, h, fill=False, edgecolor=color, lw=2))
patch.set_path_effects([
patheffects.Stroke(linewidth=1, foreground='black', alpha=0.5),
patheffects.Normal()
])
s = class_names[class_id] if class_names else str(class_id)
if extras:
s += "\n" + str(extras[i])
patch = plt_ax.text(x + 2,
y,
s,
verticalalignment='top',
color=color,
fontsize=12,
weight='bold')
patch.set_path_effects([
patheffects.Stroke(linewidth=1, foreground='black', alpha=0.5),
patheffects.Normal()
])
_ = plt_ax.imshow(img)
plt.show()
def main():
myhero = Heuro(email, password)
# Small dictionary to convert API output to a readable format
mygender = {
0: "female",
1: "male"
}
# mypipe = myhero.make_pipeline(pipeline="test_pipe")
# print(mypipe)
# upload = myhero.ingest_file('../data/images/test_faces_2.jpg', pipeline_id)
"""
file_to_ingest = '../data/audio/man-woman.mp3'
file_to_ingest = '../data/images/four-in-car.jpeg'
file_to_ingest = '../data/images/family1.jpeg'
image_to_ingest = "../data/images/thb1.jpg"
audio_to_ingest = '../data/audio/man-woman.mp3'
audio_to_ingest = '../data/video/tagueule.mp3'
image_to_ingest = '../data/video/tagueule.png'
image_to_ingest = '../data/images/four-in-car.jpeg'
image_to_ingest = '../data/images/mp1.jpeg'
audio_to_ingest = "../data/audio/baby-talk.mp3"
image_to_ingest = '../data/images/girls.jpg'
audio_to_ingest = "../data/audio/tom_scott_trim.mp3"
"""
# Image first, just because
audio_to_ingest = "../data/audio/ambianceinsidecar.mp3"
image_to_ingest = '../data/images/4.jpg'
files_to_ingest = [image_to_ingest, audio_to_ingest]
if image_to_ingest[-3:] != "png" and \
image_to_ingest[-3:] != "jpg" and \
image_to_ingest[-4:] != "jpeg" and \
audio_to_ingest[-3:] != "mp3":
sys.exit(" Sorry. File format is not recognized.")
is_jpeg = detect_jpeg(file_to_ingest=image_to_ingest)
results = analyse_file_api(files_to_ingest, target_api=myhero, pipeline_id=pipeline_id)
# print(results)
# r1 = analyse_file_api(image_to_ingest, target_api=myhero, pipeline_id=pipeline_id)
r1 = results[0]
watch_json = True # False
if watch_json:
import json
with open('jsonwatch_image.txt', 'w') as outf:
json.dump(r1, outf, sort_keys = True, indent = 4, separators=(',', ':'))
# Audio second
if audio_to_ingest[-3:] != "mp3":
sys.exit(" Sorry. Image file format is not recognized.")
# r2 = analyse_file_api(audio_to_ingest, target_api=myhero, pipeline_id=pipeline_id)
r2 = results[1]
# Distinguish between image and audio (different output formats)
# inference_audio = {}
# inference_image = {}
r_video = r1['result']['output']['classification']
# for x, y in zip(r_output.keys(), r_output.values()):
# print(str(x)+": "+str(np.array(y).shape)+str(y))
people = r_video.get('objects')
# Test if we got anything at all out
if not people:
sys.exit("Error: the API did not detect any people.")
n_people = len(people)
gender_image = []
age_image = []
face_xy = []
for person in people:
gender_image.append(person['gender'])
age_image.append(person['ageGroup'])
face_xy.append((person['face']['X'], person['face']['Y']))
r_audio = r2['result']['output']
# for x, y in zip(r_output.keys(), r_output.values()):
# print(str(x)+": "+str(y))
gender_audio = r_audio['gender']
age_audio = r_audio['age']
language = r_audio['language']
# if file_to_ingest[-3:] == "mp3":
# with open('jsonwatch_audio.txt', 'w') as outf:
# json.dump(r, outf, sort_keys = True, indent = 4, separators=(',', ':'))
# elif file_to_ingest[-3:] == "png" or\
# file_to_ingest[-3:] == "jpg" or\
# file_to_ingest[-4:] == "jpeg":
print("=== Audio evaluation ===")
print("gender_audio: ", gender_audio)
print("age_audio: ", age_audio)
print("language: ", language)
print("=== Video evaluation ===")
print("n_people: ", n_people)
print("gender_image: ", [mygender[gen] for gen in gender_image])
print("age_image: ", age_image)
print("faces: ", face_xy)
children = False
if "Child" in age_image:
children = True
n_male = gender_image.count(1)
n_female = gender_image.count(0)
n_child = age_image.count("Child")
n_adult = age_image.count("Adult")
if n_female > n_male:
maj_sex = "female"
elif n_female < n_male:
maj_sex = "male"
else:
maj_sex = None
if n_child > n_adult:
maj_age = "Child"
else:
maj_age = "Adult"
# if n_male==0 or n_female==0:
# mix_sex = False
# else:
# mix_sex = True
print()
print("=== Overall mood ===")
print("Children: ", children)
print("Gender Majority: ", maj_sex)
print("Age Majority: ", maj_age)
if gender_audio == maj_sex:
print("Audio agrees with video on gender.")
else:
print("AI cannot determine gender using audio.")
# print("Sex Mix: ", mix_sex)
if is_jpeg:
from PIL import Image
# with open(image_to_ingest, 'r') as im_input:
# im = Image.open(im_input)
im = Image.open(image_to_ingest, 'r')
im.save("Foto.png") #, 'w')
# with open("Foto.png", 'w') as foto:
# im.save(foto)
img = mpimage.imread('Foto.png', 'r')
else:
img = mpimage.imread(image_to_ingest)
plt.imshow(img)
for age, gend, face in zip(age_image, gender_image, face_xy):
plt.text(face[0], face[1], str(age)+"\n"+str(mygender[gend]), color='white',
fontsize=24).set_path_effects([path_effects.Stroke(linewidth=4, foreground='black'), path_effects.Normal()])
plt.xticks([])
plt.yticks([])
plt.show()
outfile = "../data/output/output.jpg"
with open(outfile, 'w') as outf:
plt.savefig(outf)
# Remove png file, only needed for visualization
if is_jpeg:
os.remove('Foto.png')
def plot_values(self, lons, lats, vals, fmt='%s', valmask=None,
color='#000000', textsize=14, labels=None,
labeltextsize=10, labelcolor='#000000',
showmarker=False, labelbuffer=25, outlinecolor='#FFFFFF'):
"""Plot values onto the map
Args:
lons (list): longitude values to use for placing `vals`
lats (list): latitude values to use for placing `vals`
vals (list): actual values to place on the map
fmt (str, optional): Format specification to use for representing the
values. For example, the default is '%s'.
valmask (list, optional): Boolean list to use as masking of the
`vals` while adding to the map.
color (str, list, optional): Color to use while plotting the `vals`.
This can be a list to specify each color to use with each value.
textsize (str, optional): Font size to draw text.
labels (list, optional): Optional list of labels to place below the
plotting of `vals`
labeltextsize (int, optional): Size of the label text
labelcolor (str, optional): Color to use for drawing labels
showmarker (bool, optional): Place a marker on the map for the label
labelbuffer (int): pixel buffer around labels
outlinecolor (color): color to use for text outlines
"""
if valmask is None:
valmask = [True] * len(lons)
if labels is None:
labels = [''] * len(lons)
if isinstance(color, str):
color = [color] * len(lons)
bbox = self.fig.get_window_extent().transformed(
self.fig.dpi_scale_trans.inverted())
axbbox = self.ax.get_window_extent().transformed(
self.fig.dpi_scale_trans.inverted())
axx0 = axbbox.x0 * self.fig.dpi
axx1 = (axbbox.x0 + axbbox.width) * self.fig.dpi
axy0 = axbbox.y0 * self.fig.dpi
axy1 = (axbbox.y0 + axbbox.height) * self.fig.dpi
figwidth = bbox.width * self.fig.dpi
figheight = bbox.height * self.fig.dpi
if self.textmask is None:
self.textmask = np.zeros((int(figwidth), int(figheight)), bool)
thisax = self.ax
# Create a fake label, to test out our scaling
t0 = self.fig.text(0.5, 0.5, "ABCDEFGHIJ", transform=thisax.transAxes,
color='None', size=textsize)
bbox = t0.get_window_extent(self.fig.canvas.get_renderer())
xpixels_per_char = bbox.width / 10.
ypixels = bbox.height
for o, a, v, m, c, label in zip(lons, lats, vals, valmask,
color, labels):
if not m:
continue
ha = 'center'
mystr = fmt % (v,)
max_mystr_len = max([len(s) for s in mystr.split("\n")])
mystr_lines = len(mystr.split("\n"))
# compute the pixel coordinate of this data point
(x, y) = thisax.projection.transform_point(o, a, ccrs.Geodetic())
(imgx, imgy) = thisax.transData.transform([x, y])
imgx0 = int(imgx - (max_mystr_len * xpixels_per_char / 2.0))
if imgx0 < axx0:
ha = 'left'
imgx0 = imgx
imgx1 = imgx0 + max_mystr_len * xpixels_per_char
if imgx1 > axx1:
imgx1 = imgx
imgx0 = imgx1 - max_mystr_len * xpixels_per_char
ha = 'right'
imgy0 = int(imgy)
imgy1 = imgy0 + mystr_lines * ypixels
# Now we buffer
imgx0 = max([0, imgx0 - labelbuffer])
imgx1 = min([figwidth, (imgx0 + 2 * labelbuffer +
max_mystr_len * xpixels_per_char)])
imgy0 = max([0, imgy0 - labelbuffer * 0.75])
imgy1 = min([figheight, (imgy0 +
mystr_lines * ypixels +
2 * labelbuffer * 0.75)])
_cnt = np.sum(np.where(self.textmask[int(imgx0):int(imgx1),
int(imgy0):int(imgy1)],
1, 0))
# If we have more than 15 pixels of overlap, don't plot this!
if _cnt > 15:
if self.debug:
print("culling |%s| due to overlap, %s" % (repr(mystr),
_cnt))
continue
if self.debug:
rec = plt.Rectangle([imgx0,
imgy0],
(imgx1 - imgx0),
(imgy1 - imgy0),
facecolor='None', edgecolor='r')
self.fig.patches.append(rec)
# Useful for debugging this algo
if self.debug:
print(("label: %s imgx: %s/%s-%s imgy: %s/%s-%s "
"x:%s-%s y:%s-%s _cnt:%s"
) % (repr(mystr), imgx, axx0, axx1, imgy, axy0, axy1,
imgx0, imgx1, imgy0, imgy1, _cnt))
self.textmask[int(imgx0):int(imgx1), int(imgy0):int(imgy1)] = True
t0 = thisax.text(o, a, mystr, color=c,
size=textsize, zorder=Z_OVERLAY+2,
va='center' if not showmarker else 'bottom',
ha=ha, transform=ccrs.PlateCarree())
bbox = t0.get_window_extent(self.fig.canvas.get_renderer())
if self.debug:
rec = plt.Rectangle([bbox.x0, bbox.y0],
bbox.width, bbox.height,
facecolor='None', edgecolor='k')
self.fig.patches.append(rec)
if showmarker:
thisax.scatter(o, a, marker='+', zorder=Z_OVERLAY+2,
color='k', transform=ccrs.PlateCarree())
t0.set_clip_on(True)
t0.set_path_effects([PathEffects.Stroke(linewidth=3,
foreground=outlinecolor),
PathEffects.Normal()])
if label and label != '':
thisax.annotate("%s" % (label, ), xy=(x, y), ha='center',
va='top',
xytext=(0, 0 - textsize/2),
color=labelcolor,
textcoords="offset points",
zorder=Z_OVERLAY+1,
clip_on=True, fontsize=labeltextsize)
def plot_online_prediction(preds_dict,
new_inputs_dict,
online_stg,
t_predict,
robot_future,
dt,
max_speed,
color_dict=None,
data_id=0,
focus_on=None,
focus_window_height=6,
line_alpha=0.7,
line_width=0.2,
edge_width=2,
circle_edge_width=0.5,
only_predict=None,
edge_line_width=1.0,
dpi=300,
fig_height=4,
xlim=(0, 100),
ylim=(0, 50),
figsize=None,
return_frame=False,
return_fig=False,
printing=False,
robot_circle=False,
add_legend=True,
title=None,
flip_axes=False,
omit_names=False,
plot_edges=True,
axes_labels=True,
rotate_axes_text=0,
save_at=None):
if color_dict is None:
# This changes colors per run.
color_dict = defaultdict(dict)
if dt is None:
raise ValueError(
'You must supply a time delta, the argument dt cannot be None!')
robot_node = online_stg.robot_node
if figsize is None:
aspect_ratio = float(xlim[1] - xlim[0]) / (ylim[1] - ylim[0])
figsize = (fig_height * aspect_ratio, fig_height)
predict_horizon = robot_future.shape[0]
if t_predict < online_stg.hyperparams['minimum_history_length']:
return
###################
### Predictions ###
###################
outputs = {k: v.cpu().numpy() for k, v in preds_dict.items()}
########################
### Data Preparation ###
########################
output_pos = dict()
sampled_zs = dict()
for node in online_stg.nodes:
if robot_node == node:
continue
key = str(node) + '/y'
z_key = str(node) + '/z'
output_pos[node] = integrate_trajectory(outputs[key], [0, 1],
new_inputs_dict[node][0],
[0, 1],
dt,
output_limit=max_speed,
velocity_in=True)
sampled_zs[node] = outputs[z_key]
######################
### Visualizations ###
######################
fig, ax = plt.subplots(figsize=figsize)
not_added_samples = True
for node_name in online_stg.nodes:
if focus_on is not None and node_name != focus_on:
continue
predictions = output_pos[node_name][:, 0]
z_values = sampled_zs[node_name][:, 0]
# Predicted trails
if only_predict is None or (only_predict is not None
and node_name == only_predict):
if not_added_samples:
# plt.plot([] , [], 'r', label='Sampled Futures')
not_added_samples = False
for sample_num in range(output_pos[node_name].shape[0]):
z_value = tuple(z_values[sample_num])
if z_value not in color_dict[node_name]:
color_dict[node_name][z_value] = "#%06x" % random.randint(
0, 0xFFFFFF)
ax.plot(predictions[sample_num, :, 0],
predictions[sample_num, :, 1],
color=color_dict[node_name][z_value],
linewidth=line_width,
alpha=line_alpha,
zorder=2)
# Current Node Position
circle = plt.Circle(
(new_inputs_dict[node_name][0, 0], new_inputs_dict[node_name][0,
1]),
0.3,
facecolor='b' if 'Home' in node_name.type else 'g',
edgecolor='k',
lw=circle_edge_width,
zorder=3)
ax.add_artist(circle)
# if focus_on:
# ax.set_title(node_name)
# else:
# ax.text(prefix[-1, 0] + 0.4, prefix[-1, 1], node_name, zorder=4)
if not omit_names:
ax.text(new_inputs_dict[node_name][0, 0] + 0.4,
new_inputs_dict[node_name][0, 1],
node_name,
zorder=4)
# Robot Node
if focus_on is None:
robot_future = robot_future[:, 0:2]
future_all_zeros = not np.any(robot_future)
if not future_all_zeros and robot_node in new_inputs_dict:
ax.plot(robot_future[:, 0],
robot_future[:, 1],
'w--',
path_effects=[
pe.Stroke(linewidth=edge_width, foreground='k'),
pe.Normal()
])
circle = plt.Circle(
(new_inputs_dict[robot_node][0, 0],
new_inputs_dict[robot_node][0, 1]),
0.3,
facecolor='b' if 'Home' in robot_node.type else 'g',
edgecolor='k',
lw=circle_edge_width,
zorder=3)
ax.add_artist(circle)
# Radius of influence
if robot_circle:
circle = plt.Circle((new_inputs_dict[robot_node][0, 0],
new_inputs_dict[robot_node][0, 1]),
online_stg.hyperparams['edge_radius'],
fill=False,
color='r',
linestyle='--',
zorder=3)
ax.plot([], [], 'r--', label='Edge Radius')
ax.add_artist(circle)
if not omit_names:
ax.text(new_inputs_dict[robot_node][0, 0] + 0.4,
new_inputs_dict[robot_node][0, 1],
robot_node,
zorder=4)
if plot_edges:
already_seen_pairs = list()
for node_A, egdes_and_neighbors in online_stg.scene_graph.node_edges_and_neighbors.items(
):
for edge_type, neigbors in egdes_and_neighbors.items():
for node_B in neigbors:
if (node_A, node_B) in already_seen_pairs:
continue
already_seen_pairs.append((node_B, node_A))
if robot_node not in [node_A, node_B]:
edge_age = min([
online_stg.node_models_dict[str(
node_A)].get_mask_for_edge_to(node_B).item(),
online_stg.node_models_dict[str(
node_B)].get_mask_for_edge_to(node_A).item()
])
else:
edge_age = 1
plt.plot([
new_inputs_dict[node_A][0, 0],
new_inputs_dict[node_B][0, 0]
], [
new_inputs_dict[node_A][0, 1],
new_inputs_dict[node_B][0, 1]
],
color='k',
lw=edge_line_width,
dashes=[edge_age, 1 - edge_age],
zorder=-1)
if focus_on is not None:
y_radius = focus_window_height
x_radius = aspect_ratio * y_radius
ax.set_ylim((prefix[-1, 1] - y_radius, prefix[-1, 1] + y_radius))
ax.set_xlim((prefix[-1, 0] - x_radius, prefix[-1, 0] + x_radius))
if ylim is not None:
ax.set_ylim(ylim)
if xlim is not None:
ax.set_xlim(xlim)
if add_legend and robot_circle and not future_all_zeros:
ax.legend(loc='best')
if title is not None:
ax.set_title(title)
if axes_labels:
ax.set_xlabel('$x$ Position (m)')
ax.set_ylabel('$y$ Position (m)')
if rotate_axes_text != 0:
plt.xticks(rotation=rotate_axes_text)
plt.yticks(rotation=rotate_axes_text)
fig.tight_layout()
if return_fig:
return fig
if return_frame:
buffer_ = StringIO()
plt.savefig(buffer_, format="png", transparent=True, dpi=dpi)
buffer_.seek(0)
data = np.asarray(Image.open(buffer_))
plt.close(fig)
return data
if save_at is not None:
plt.savefig(save_at, dpi=dpi, transparent=True)
plt.show()
plt.close(fig)
def cell_wise_velocity(adata, genes, x=0, y=1, basis='trimap', n_columns=1, color=None, label_on_embedding=True,
cmap=None, s_kwargs_dict={}, layer='X', cell_ind='all', quiver_scale=None, figsize=None,
**q_kwargs):
"""Plot the velocity vector of each cell.
Parameters
----------
adata: :class:`~anndata.AnnData`
an Annodata object.
genes: `list`
The gene names whose gene expression will be faceted.
x: `int` (default: `0`)
The column index of the low dimensional embedding for the x-axis
y: `int` (default: `1`)
The column index of the low dimensional embedding for the y-axis
basis: `str` (default: `trimap`)
The reduced dimension embedding of cells to visualize.
n_columns: `int (default: 1)
The number of columns of the resulting plot.
color: `list` or None (default: None)
A list of attributes of cells (column names in the adata.obs) will be used to color cells.
cmap: `plt.cm` or None (default: None)
The color map function to use.
s_kwargs_dict: `dict` (default: {})
The dictionary of the scatter arguments.
layer: `str` (default: X)
Which layer of expression value will be used.
cell_ind: `str` or `list` (default: all)
the cell index that will be chosen to draw velocity vectors.
quiver_scale: `float` or None (default: None)
scale of quiver plot (default: None). Number of data units per arrow length unit, e.g., m/s per plot width;
a smaller scale parameter makes the arrow longer. If None, we will use quiver_autoscaler to calculate the scale.
figsize: `None` or `[float, float]` (default: None)
The width and height of a figure.
q_kwargs:
Additional parameters that will be passed to plt.quiver function
Returns
-------
Nothing but a cell wise quiver plot
"""
import matplotlib.pyplot as plt
import matplotlib.patheffects as PathEffects
if cmap is None and color is None:
cmap = plt.cm.RdBu_r
n_cells, n_genes = adata.shape[0], len(genes)
# {"alpha": 0.5, "s": 8, "edgecolor": "0.8", "lw": 0.15}
if cell_ind is "all":
ix_choice = np.arange(adata.shape[0])
elif cell_ind is 'random':
ix_choice = np.random.choice(np.range(adata.shape[0]), size=1000, replace=False)
elif type(cell_ind) is int:
ix_choice = np.random.choice(np.range(adata.shape[0]), size=cell_ind, replace=False)
elif type(cell_ind) is list:
ix_choice = cell_ind
scatter_kwargs = dict(alpha=0.4, s=8, edgecolor=None, linewidth=0)
if s_kwargs_dict is not None:
scatter_kwargs.update(s_kwargs_dict)
# layer_keys = list(adata.layers.keys())
# layer_keys.extend(['X', 'protein'])
if layer is 'X':
E_vec = adata[:, adata.var.index.isin(genes)].X.T
elif layer in adata.layers.keys():
E_vec = adata[:, adata.var.index.isin(genes)].layers[layer].T
elif layer is 'protein': # update subset here
E_vec = adata[:, adata.var.index.isin(genes)].obsm[layer].T
else:
raise Exception(f'The {layer} you passed in is not existed in the adata object.')
if color is not None:
color = list(set(color).intersection(adata.obs.keys()))
n_genes, genes = len(color), color
E_vec = adata.obs[color].values.T.flatten() if len(color) > 0 else np.empty((0, 1))
if ('X_' + basis in adata.obsm.keys()) and ('velocity_' + basis in adata.obsm.keys()):
X = adata.obsm['X_' + basis][:, [x, y]]
V = adata.obsm['velocity_' + basis][:, [x, y]]
else:
if 'X_' + basis not in adata.obsm.keys():
reduceDimension(adata, velocity_key='velocity_S', reduction_method=basis)
if 'kmc' not in adata.uns_keys():
cell_velocities(adata, vkey='pca', basis=basis, method='analytical')
X = adata.obsm['X_' + basis][:, [x, y]]
V = adata.obsm['velocity_' + basis][:, [x, y]]
else:
kmc = adata.uns['kmc']
X = adata.obsm['X_' + basis][:, [x, y]]
V = kmc.compute_density_corrected_drift(X, kmc.Idx, normalize_vector=True)
adata.obsm['velocity_' + basis] = V
if 0 in E_vec.shape:
raise Exception(f'The gene names {genes} (or cell annotations {color}) provided are not existed in your data.')
if quiver_scale is None:
quiver_scale = quiver_autoscaler(X, V)
quiver_kwargs = {"angles": 'xy', "scale_units": 'xy', 'scale': quiver_scale, "minlength": 1.5, "alpha": 0.4}
quiver_kwargs.update(q_kwargs)
n_columns, plot_per_gene = n_columns, 1 # we may also add random velocity results
nrow, ncol = int(np.ceil(plot_per_gene * n_genes / n_columns)), n_columns
if figsize is None:
plt.figure(None, (ncol * 3, nrow * 3), dpi=160)
else:
plt.figure(None, (figsize[0]*ncol, figsize[1]*nrow)) # , dpi=160
E_vec = E_vec.A.flatten() if issparse(E_vec) else E_vec.flatten()
V = V.A[:, [x, y]] if issparse(V) else V[:, [x, y]]
# iterate over cell first then a different dimension/gene/column
df = pd.DataFrame({"x": np.tile(X[:, 0], n_genes), "y": np.tile(X[:, 1], n_genes), "u": np.tile(V[:, 0], n_genes),
"v": np.tile(V[:, 1], n_genes), 'gene': np.repeat(np.array(genes), n_cells),
"expression": E_vec}, index=range(n_cells * n_genes))
# the following code is inspired by https://github.com/velocyto-team/velocyto-notebooks/blob/master/python/DentateGyrus.ipynb
gs = plt.GridSpec(nrow, ncol)
for i, gn in enumerate(genes):
ax = plt.subplot(gs[i*plot_per_gene])
try:
ix=np.where(adata.var.index == gn)[0][0]
except:
ix = gn in adata.obs.columns
if not ix:
continue
cur_pd = df.loc[df.gene == gn, :]
E_vec = cur_pd.loc[:, 'expression']
if color is None:
limit = np.max(np.abs(np.percentile(E_vec, [1, 99]))) # upper and lowe limit / saturation
E_vec = E_vec + limit # that is: tmp_colorandum - (-limit)
E_vec = E_vec / (2 * limit) # that is: tmp_colorandum / (limit - (-limit))
E_vec = np.clip(E_vec, 0, 1)
ax.scatter(cur_pd.iloc[:, 0], cur_pd.iloc[:, 1], c=cmap(E_vec), **scatter_kwargs)
else:
import seaborn as sns
# List of RGB triplets
color_labels = E_vec.unique()
rgb_values = sns.color_palette("Set2", len(color_labels))
# Map label to RGB
color_map = pd.DataFrame(zip(color_labels, rgb_values), index=color_labels)
ax.scatter(cur_pd.iloc[:, 0], cur_pd.iloc[:, 1], c=color_map.loc[E_vec, 1].values, **scatter_kwargs)
if label_on_embedding:
for i in color_labels:
color_cnt = np.median(cur_pd.iloc[np.where(E_vec == i)[0], :2], 0)
txt=ax.text(color_cnt[0], color_cnt[1], str(i),
fontsize=13) # , bbox={"facecolor": "w", "alpha": 0.6}
txt.set_path_effects([
PathEffects.Stroke(linewidth=5, foreground="w", alpha=0.1),
PathEffects.Normal()])
ax.quiver(cur_pd.iloc[ix_choice, 0], cur_pd.iloc[ix_choice, 1],
cur_pd.iloc[ix_choice, 2], cur_pd.iloc[ix_choice, 3],
**quiver_kwargs)
ax.axis("off")
plt.show()
def _midiplot(onsets,offsets,pitch):
plt.figure(figsize=(20,10))
for i in range(0,len(onsets)):
plt.plot([onsets[i],offsets[i]], [pitch[i],pitch[i]], 'k', lw=2, path_effects=[pe.Stroke(linewidth=2, foreground='k'), pe.Normal()], zorder=5)
plt.xlabel("Beats")
plt.ylabel("Pitch (C4=60)")
def dashboard(prediction,
tlm,
times,
limits,
modelname='PSMC',
msid='1pdeaat',
errorplotlimits=None,
yplotlimits=None,
fig=None,
savefig=True):
""" Plot Xija model dashboard.
:param prediction: model prediction
:param tlm: telemetry
:param times: model/telemetry time values
:param limits: model limit dict, (e.g. {"units":"C", "caution_high":-12.0,
"planning_limit":-14.0})
:param modelname: Name of model (e.g. "ACA")
:param msid: msid name (e.g. "aacccdpt")
:param errorplotlimits: list or tuple of min and max x axis plot boundaries for both righthand
plots
Note: prediction, tlm, and times must all have the same number of values.
"""
# Set some plot characteristic default values
# matplotlib.rcParams['xtick.major.pad'] = 10
# matplotlib.rcParams['ytick.major.pad'] = 5
matplotlib.rc('font', family='sans-serif')
matplotlib.rc('font', weight='light')
error = tlm - prediction
stats = calcquantiles(error)
# In this case the data is not discretized to a limited number of count values, or has too
# many possible values to work with calcquantstats(), such as with tlm_fep1_mong.
if len(np.sort(list(set(tlm)))) > 1000:
quantized_tlm = digitize_data(tlm)
quantstats = calcquantstats(quantized_tlm, error)
else:
quantstats = calcquantstats(tlm, error)
units = limits['units']
cautionhigh = limits.get('caution_high', None)
planninglimit = limits.get('planning_limit', None)
acisi_limit = limits.get('acisi_limit', None)
aciss_limit = limits.get('aciss_limit', None)
fp_sens_limit = limits.get('fp_sens_limit', None)
startsec = DateTime(times[0]).secs
stopsec = DateTime(times[-1]).secs
xtick = np.linspace(startsec, stopsec, 10)
xlab = [lab[:8] for lab in DateTime(xtick).date]
if not fig:
# fig = plt.figure(figsize=(16, 10), facecolor=[1, 1, 1])
fig = plt.figure(figsize=(15, 8))
else:
fig.clf()
# ---------------------------------------------------------------------------------------------
# Axis 1 - Model and Telemetry vs Time
#
# This plot is in the upper lefthand corner and shows predicted temperatures in red and
# telemetry in blue vs time.
#
ax1 = fig.add_axes([0.1, 0.38, 0.44, 0.50], frameon=True)
ax1.plot(times, prediction, color='#d92121', linewidth=1, label='Model')
ax1.plot(times, tlm, color='#386cb0', linewidth=1.5, label='Telemetry')
ax1.set_title('%s Temperature (%s)' %
(modelname.replace('_', ' '), msid.upper()),
fontsize=18,
y=1.00)
ax1.set_ylabel('Temperature deg%s' % units, fontsize=18)
if yplotlimits is not None:
ax1.set_ylim(yplotlimits)
ax1.set_yticklabels(ax1.get_yticks(), fontsize=14)
ax1.set_xticks(xtick)
ax1.set_xticklabels('')
ax1.set_xlim(xtick[0] - 10, times[-1])
ax1.grid(True)
if cautionhigh:
# Draw caution high limit line.
ylim1 = ax1.get_ylim()
dy = ylim1[1] - ylim1[0]
if ylim1[1] - 2 <= cautionhigh:
ax1.set_ylim(ylim1[0], cautionhigh + dy / 7.)
ax1.set_yticklabels(ax1.get_yticks(), fontsize=14)
ylim1 = ax1.get_ylim()
yellowlimitline = ax1.plot(ax1.get_xlim(), [cautionhigh, cautionhigh],
'orange',
linewidth=1.5)
if ylim1[1] <= cautionhigh:
ax1.set_ylim(ylim1[0], cautionhigh + 1)
# Print caution high limit value (remember plot is 50% of fig height).
#chfig = 0.50 * (cautionhigh - ylim1[0]) / (np.diff(ylim1)) + 0.38
#txt = fig.text(0.11, chfig - 0.000, 'Caution High (Yellow) = {:4.1f} {}'.format(
# cautionhigh, units), ha="left", va="bottom", size=18)
#txt.set_bbox(dict(color='white', alpha=0.8))
xlim1 = ax1.get_xlim()
chx = 0.02 * (xlim1[1] - xlim1[0]) + xlim1[0]
chy = 0.01 * (ylim1[1] - ylim1[0]) + cautionhigh
txt = ax1.text(chx,
chy,
'Caution High (Yellow) = {:4.1f} {}'.format(
cautionhigh, units),
ha="left",
va="bottom",
fontsize=12)
txt.set_path_effects([
path_effects.Stroke(linewidth=3, foreground='white', alpha=0.7),
path_effects.Normal()
])
txt.set_bbox(dict(color='white', alpha=0))
if planninglimit:
# Draw planning limit line.
planninglimitline1 = ax1.plot(ax1.get_xlim(),
[planninglimit, planninglimit],
'g--',
linewidth=1.5)
ylim1 = ax1.get_ylim()
# Print planning limit value (remember plot is 50% of fig height).
#if (ylim1[-1] - planninglimit) / np.diff(ylim1) < 0.1:
# plfig = 0.50 * (planninglimit - ylim1[0]) / (np.diff(ylim1)) + 0.38
#else:
# # <-- figure coordinates (plot is 50% of fig height)
# plfig = 0.50 * (planninglimit - ylim1[0]) / (np.diff(ylim1)) + 0.38 + 0.01
#
#if cautionhigh:
# if np.abs(planninglimit - cautionhigh)/np.diff(ylim1) < 0.1:
# plfig = plfig + 0.02
#txt = fig.text(0.11, plfig - 0.005, 'Planning Limit = {:4.1f} {}'.format(
# planninglimit, units), ha="left", va="top", size=18)
#txt.set_bbox(dict(color='white', alpha=0.8))
xlim1 = ax1.get_xlim()
plx = 0.02 * (xlim1[1] - xlim1[0]) + xlim1[0]
ply = 0.01 * (ylim1[1] - ylim1[0]) + planninglimit
txt = ax1.text(plx,
ply,
'Planning Limit = {:4.1f} {}'.format(
planninglimit, units),
ha="left",
va="bottom",
fontsize=12)
txt.set_path_effects([
path_effects.Stroke(linewidth=3, foreground='white', alpha=0.7),
path_effects.Normal()
])
# txt.set_bbox(dict(color='white', alpha=0))
if acisi_limit:
# Draw ACIS-I limit line.
acisilimitline = ax1.plot(ax1.get_xlim(), [acisi_limit, acisi_limit],
'b-.',
linewidth=1.5)
ylim1 = ax1.get_ylim()
xlim1 = ax1.get_xlim()
plx = 0.02 * (xlim1[1] - xlim1[0]) + xlim1[0]
ply = 0.01 * (ylim1[1] - ylim1[0]) + acisi_limit
txt = ax1.text(plx,
ply,
'ACIS-I Limit = {:4.1f} {}'.format(acisi_limit, units),
ha="left",
va="bottom",
fontsize=14)
txt.set_path_effects([
path_effects.Stroke(linewidth=4, foreground='white', alpha=1.0),
path_effects.Normal()
])
if aciss_limit:
# Draw ACIS-S limit line.
acisslimitline = ax1.plot(ax1.get_xlim(), [aciss_limit, aciss_limit],
'-.',
color='purple',
linewidth=1.5)
ylim1 = ax1.get_ylim()
xlim1 = ax1.get_xlim()
plx = 0.02 * (xlim1[1] - xlim1[0]) + xlim1[0]
ply = 0.01 * (ylim1[1] - ylim1[0]) + aciss_limit
txt = ax1.text(plx,
ply,
'ACIS-S Limit = {:4.1f} {}'.format(aciss_limit, units),
ha="left",
va="bottom",
fontsize=14)
txt.set_path_effects([
path_effects.Stroke(linewidth=4, foreground='white', alpha=1.0),
path_effects.Normal()
])
if fp_sens_limit:
# Draw FP SENS limit line.
fpsenslimitline = ax1.plot(ax1.get_xlim(),
[fp_sens_limit, fp_sens_limit],
'--',
color='red',
linewidth=1.5)
ylim1 = ax1.get_ylim()
xlim1 = ax1.get_xlim()
plx = 0.02 * (xlim1[1] - xlim1[0]) + xlim1[0]
ply = 0.01 * (ylim1[1] - ylim1[0]) + fp_sens_limit
txt = ax1.text(plx,
ply,
'FP SENS Limit = {:4.1f} {}'.format(
fp_sens_limit, units),
ha="left",
va="bottom",
fontsize=14)
txt.set_path_effects([
path_effects.Stroke(linewidth=4, foreground='white', alpha=1.0),
path_effects.Normal()
])
# ---------------------------------------------------------------------------------------------
# Axis 2 - Model Error vs Time
#
# This plot is in the lower lefthand corner and shows model error (telemetry - model) vs. time.
#
ax2 = fig.add_axes([0.1, 0.1, 0.44, 0.2], frameon=True)
ax2.plot(times, error, color='#386cb0', label='Telemetry')
if errorplotlimits:
ax2.set_ylim(errorplotlimits)
ax2.set_title('%s Model Error (Telemetry - Model)' %
modelname.replace('_', ' '),
fontsize=18,
y=1.00)
ax2.set_ylabel('Error deg%s' % units, fontsize=18)
ax2.set_yticklabels(ax2.get_yticks(), fontsize=14)
# ax2.tick_params(axis='x', which='major', pad=1)
ax2.set_xticks(xtick)
ax2.set_xticklabels(xlab, fontsize=14, rotation=30, ha='right')
ax2.set_xlim(xtick[0] - 10, times[-1])
ax2.grid(True)
# ---------------------------------------------------------------------------------------------
# Axis 3 - Telemetry vs Model Error
#
# This plot is in the upper righthand corner of the page and shows telemetry vs. model error.
# The code to show model temperature vs model error is commented out but can be used in place
# of the current comparison, although the quantile lines plotted will also need to be removed.
#
# Add some noise to the telemetry (or model) data to make it easier to see the data (less
# pile-up).
#
# band is the mean difference between counts in telemetry (resolution).
band = np.abs(np.diff(tlm))
band = np.mean(band[band > 0]) / 2
noise = np.random.uniform(-band, band, len(tlm))
ax3 = fig.add_axes([0.62, 0.38, 0.36, 0.50], frameon=True)
ax3.plot(error,
tlm + noise,
'o',
color='#386cb0',
alpha=1,
markersize=2,
markeredgecolor='#386cb0')
#ax3.plot(error, prediction + noise, 'b,', alpha = 0.1)
ax3.set_title('%s Telemetry \n vs. Model Error' %
modelname.replace('_', ' '),
fontsize=18,
y=1.00)
ax3.set_ylabel('Temperature deg%s' % units, fontsize=18)
ax3.grid(True)
# This is an option so that the user can tweak the two righthand plots to use a reasonable
# set of x axis limits, either because an outlier is expanding the axis range too much, or if
# more space is needed at the boundaries of the axis.
if errorplotlimits:
ax3.set_xlim(errorplotlimits)
ax3.set_ylim(ax1.get_ylim())
ax3.set_yticks(ax1.get_yticks())
ax3.set_yticklabels(ax1.get_yticks(), fontsize=14)
ylim3 = ax3.get_ylim()
ax3.set_xticklabels(ax3.get_xticks(), fontsize=14)
xlim3 = ax3.get_xlim()
if cautionhigh:
# Draw caution high limit line.
dt = 0.05 * np.diff(ax1.get_ylim())
yellowlimitline3 = ax3.plot(xlim3, [cautionhigh, cautionhigh],
'orange',
linewidth=1.5)
if ylim3[1] <= cautionhigh:
ax3.set_ylim(ylim3[0], cautionhigh + 1)
ax3.set_yticklabels(ax3.get_yticks(), fontsize=18)
if planninglimit:
# Draw planning limit line.
planninglimitline3 = ax3.plot(xlim3, [planninglimit, planninglimit],
'g--',
linewidth=1.5)
if acisi_limit:
# Draw ACIS-I limit line.
acisilimitline = ax3.plot(xlim3, [acisi_limit, acisi_limit],
'b-.',
linewidth=1.5)
if aciss_limit:
# Draw ACIS-S limit line.
acisslimitline = ax3.plot(xlim3, [aciss_limit, aciss_limit],
'-.',
color='purple',
linewidth=1.5)
if fp_sens_limit:
# Draw FP SENS limit line.
fpsenslimitline = ax3.plot(xlim3, [fp_sens_limit, fp_sens_limit],
'--',
color='red',
linewidth=1.5)
# Plot quantile lines for each count value
Epoints01, Tpoints01 = getQuantPlotPoints(quantstats, 'q01')
Epoints99, Tpoints99 = getQuantPlotPoints(quantstats, 'q99')
Epoints50, Tpoints50 = getQuantPlotPoints(quantstats, 'q50')
ax3.plot(Epoints01, Tpoints01, color='k', linewidth=4)
ax3.plot(Epoints99, Tpoints99, color='k', linewidth=4)
ax3.plot(Epoints50, Tpoints50, color=[1, 1, 1], linewidth=4)
ax3.plot(Epoints01, Tpoints01, 'k', linewidth=2)
ax3.plot(Epoints99, Tpoints99, 'k', linewidth=2)
ax3.plot(Epoints50, Tpoints50, 'k', linewidth=1.5)
xlim3 = ax3.get_xlim()
ylim1 = ax1.get_ylim() # Match axis 1 y scale
# ---------------------------------------------------------------------------------------------
# Axis 4 - Error Distribution Histogram
#
# This plot is in the lower righthand corner of the page and shows the error distribution
# histogram.
#
ax4 = fig.add_axes([0.62, 0.1, 0.36, 0.2], frameon=True)
n, bins, patches = ax4.hist(error,
40,
range=errorplotlimits,
facecolor='#386cb0')
ax4.set_title('Error Distribution', fontsize=18, y=1.0)
ytick4 = ax4.get_yticks()
# This is an option so that the user can tweak the two righthand plots to use a reasonable
# set of x axis limits, either because an outlier is expanding the axis range too much, or if
# more space is needed at the boundaries of the axis.
if errorplotlimits:
ax4.set_xlim(errorplotlimits)
else:
xlim_offset = (np.max(error) - np.min(error)) * 0.1
ax4.set_xlim(np.min(error) - xlim_offset, np.max(error) + xlim_offset)
# Plot lines for statistical boundaries.
ylim4 = ax4.get_ylim()
ax4.set_yticklabels(
['%2.0f%%' % (100 * n / len(prediction)) for n in ytick4], fontsize=14)
ax4.plot([stats['q01'], stats['q01'] + 1e-6],
ylim4,
color=[.5, .5, .5],
linestyle='--',
linewidth=1.5,
alpha=1)
ax4.plot([stats['q99'], stats['q99'] + 1e-6],
ylim4,
color=[.5, .5, .5],
linestyle='--',
linewidth=1.5,
alpha=1)
ax4.plot([np.min(error), np.min(error) + 1e-6],
ylim4,
color=[.5, .5, .5],
linestyle='--',
linewidth=1.5,
alpha=1)
ax4.plot([np.max(error), np.max(error) + 1e-6],
ylim4,
color=[.5, .5, .5],
linestyle='--',
linewidth=1.5,
alpha=1)
ax4.set_xlabel('Error deg%s' % units, fontsize=18)
# Print labels for statistical boundaries.
ystart = (ylim4[1] + ylim4[0]) * 0.5
xoffset = -(.2 / 25) * np.abs(np.diff(ax4.get_xlim()))
ptext4a = ax4.text(stats['q01'] + xoffset * 1.1,
ystart,
'1% Quantile',
ha="right",
va="center",
rotation=90,
size=14)
if np.min(error) > ax4.get_xlim()[0]:
ptext4b = ax4.text(np.min(error) + xoffset * 1.1,
ystart,
'Minimum Error',
ha="right",
va="center",
rotation=90,
size=14)
ptext4c = ax4.text(stats['q99'] - xoffset * 0.9,
ystart,
'99% Quantile',
ha="left",
va="center",
rotation=90,
size=14)
if np.max(error) < ax4.get_xlim()[1]:
ptext4d = ax4.text(np.max(error) - xoffset * 0.9,
ystart,
'Maximum Error',
ha="left",
va="center",
rotation=90,
size=14)
xlim4 = ax4.get_xlim()
xlimright = [min(xlim3[0], xlim4[0]), max(xlim3[1], xlim4[1])]
ax4.set_ylim(ylim4)
ax4.set_xlim(xlimright)
ax4.set_xticklabels(ax4.get_xticks(), fontsize=14)
# Replot axis 3 using widest right hand side xlim
if cautionhigh:
# # Draw caution high limit line.
yellowlimitline3 = ax3.plot(xlimright, [cautionhigh, cautionhigh],
'orange',
linewidth=1.5)
# Draw planning limit line.
planninglimitline3 = ax3.plot(xlimright, [planninglimit, planninglimit],
'g--',
linewidth=1.5)
ax3.set_xlim(xlimright)
ax3.set_xticklabels(ax3.get_xticks())
# I know the following code looks to be redundant and unnecessary, but for some unholy reason,
# Matplotlib REALLY does not want the top two axes to share the same Y scale. The following
# code is used to pound Matplotlib into submission.
ax3.set_ylim(ax1.get_ylim())
ax3.set_ybound(ax1.get_ylim())
ax3.set_yticks(ax1.get_yticks())
ax3.set_yticklabels(ax1.get_yticks())
ax1.set_ylim(ax1.get_ylim())
ax1.set_ybound(ax1.get_ylim())
ax1.set_yticks(ax1.get_yticks())
ax1.set_yticklabels(ax1.get_yticks())
# ---------------------------------------------------------------------------------------------
# Force redraw and save.
plt.draw()
if savefig:
fig.savefig(modelname + '_' + msid.upper() + '_Model_Dashboard.png')
def plot_time_slice(S,
processed_st,
time_slice=None,
label_stations=True,
hires=False,
dem=None,
plot_peak=True,
xy_grid=None,
cont_int=5,
annot_int=50):
"""
Plot a time slice through :math:`S` to produce a map-view plot. If time is
not specified, then the slice corresponds to the maximum of :math:`S` in
the time direction. Can also plot the peak of the stack function over
time.
Args:
S (:class:`~xarray.DataArray`): The stack function :math:`S`
processed_st (:class:`~obspy.core.stream.Stream`): Pre-processed
Stream; output of :func:`~rtm.waveform.process_waveforms` (This is
needed because Trace metadata from this Stream are used to plot
stations on the map)
time_slice (:class:`~obspy.core.utcdatetime.UTCDateTime`): Time of
desired time slice. The nearest time in :math:`S` to this specified
time will be plotted. If `None`, the time corresponding to
:math:`\max(S)` is used (default: `None`)
label_stations (bool): Toggle labeling stations with network and
station codes (default: `True`)
hires (bool): If `True`, use higher-resolution coastlines, which looks better
but can be slow (default: `False`)
dem (:class:`~xarray.DataArray`): Overlay time slice on a user-supplied
DEM from :class:`~rtm.grid.produce_dem` (default: `None`)
plot_peak (bool): Plot the peak stack function over time as a subplot
(default: `True`)
xy_grid (int, float, or None): If not `None`, transforms UTM
coordinates such that the grid center is at (0, 0) — the plot
extent is then given by (-xy_grid, xy_grid) [meters] for easting
and northing. Only valid for projected grids
cont_int (int): Contour interval [m] for plots with DEM data
annot_int (int): Annotated contour interval [m] for plots with DEM data
(these contours are thicker and labeled)
Returns:
:class:`~matplotlib.figure.Figure`: Output figure
"""
# Don't plot peak of stack function when length of stack is one
if plot_peak and len(S.time) == 1:
plot_peak = False
warnings.warn('Stack time length = 1, not plotting peak', RTMWarning)
st = processed_st.copy()
# Get coordinates of stack maximum in (latitude, longitude)
time_max, y_max, x_max, peaks, props = get_peak_coordinates(
S, unproject=S.UTM)
# Gather coordinates of grid center
lon_0, lat_0 = S.grid_center
if S.UTM:
# Don't use cartopy for UTM
proj = None
transform = None
plot_transform = None
lon_0, lat_0, _, _ = utm.from_latlon(S.grid_center[1],
S.grid_center[0],
force_zone_number=S.UTM['zone'])
x_max, y_max, _, _ = utm.from_latlon(y_max,
x_max,
force_zone_number=S.UTM['zone'])
for tr in st:
tr.stats.longitude, tr.stats.latitude, _, _ = utm.from_latlon(
tr.stats.latitude,
tr.stats.longitude,
force_zone_number=S.UTM['zone'])
else:
# This is a good projection to use since it preserves area
proj = ccrs.AlbersEqualArea(central_longitude=lon_0,
central_latitude=lat_0,
standard_parallels=(S.y.values.min(),
S.y.values.max()))
transform = ccrs.PlateCarree()
plot_transform = ccrs.PlateCarree()
if plot_peak:
fig, (ax, ax1) = plt.subplots(figsize=(8, 12),
nrows=2,
gridspec_kw={'height_ratios': [3, 1]},
subplot_kw=dict(projection=proj))
#axes kluge so the second one can have a different projection
ax1.remove()
ax1 = fig.add_subplot(414)
else:
fig, ax = plt.subplots(figsize=(8, 8),
subplot_kw=dict(projection=proj))
# In either case, we convert from UTCDateTime to np.datetime64
if time_slice:
time_to_plot = np.datetime64(time_slice)
else:
time_to_plot = np.datetime64(time_max)
slice = S.sel(time=time_to_plot, method='nearest')
# Convert UTM grid/etc to x/y coordinates with (0,0) as origin
if xy_grid:
# Make sure this is a projected grid
if not S.UTM:
raise ValueError('xy_grid can only be used with projected grids!')
print(f'Converting to x/y grid, cropping {xy_grid:d} m from center')
# Update dataarrays to x/y coordinates from dem
x0 = slice.x.data.min() + slice.x_radius
y0 = slice.y.data.min() + slice.y_radius
slice = slice.assign_coords(x=(slice.x.data - x0))
slice = slice.assign_coords(y=(slice.y.data - y0))
# In case DEM has different extent than slice
if dem is not None:
x0_dem = dem.x.data.min() + dem.x_radius
y0_dem = dem.y.data.min() + dem.y_radius
dem = dem.assign_coords(x=(dem.x.data - x0_dem))
dem = dem.assign_coords(y=(dem.y.data - y0_dem))
lon_0 = lon_0 - x0
lat_0 = lat_0 - y0
x_max = x_max - x0
y_max = y_max - y0
for tr in st:
tr.stats.longitude = tr.stats.longitude - x0
tr.stats.latitude = tr.stats.latitude - y0
if dem is None:
if not S.UTM:
_plot_geographic_context(ax=ax, hires=hires)
alpha = 0.5
else:
alpha = 1 # Can plot slice as opaque for UTM plots w/o DEM, since nothing beneath slice
slice_plot_kwargs = dict(ax=ax,
alpha=alpha,
cmap='viridis',
add_colorbar=False,
add_labels=False)
else:
# Rounding to nearest cont_int
all_levels = np.arange(
np.ceil(dem.min().data / cont_int),
np.floor(dem.max().data / cont_int) + 1) * cont_int
# Rounding to nearest annot_int
annot_levels = np.arange(
np.ceil(dem.min().data / annot_int),
np.floor(dem.max().data / annot_int) + 1) * annot_int
# Ensure we don't draw annotated levels twice
cont_levels = []
for level in all_levels:
if level not in annot_levels:
cont_levels.append(level)
dem.plot.contour(ax=ax,
colors='k',
levels=cont_levels,
zorder=-1,
linewidths=0.3)
# Use thicker lines for annotated contours
cs = dem.plot.contour(ax=ax,
colors='k',
levels=annot_levels,
zorder=-1,
linewidths=0.7)
ax.clabel(cs, fontsize=9, fmt='%d', inline=True) # Actually annotate
slice_plot_kwargs = dict(ax=ax,
alpha=0.7,
cmap='viridis',
add_colorbar=False,
add_labels=False)
# Mask areas outside of DEM extent
# Select subset of DEM that slice occupies
dem_slice = dem.sel(x=slice.x, y=slice.y, method='nearest')
slice.data[np.isnan(dem_slice.data)] = np.nan
if S.UTM:
# imshow works well here (no gridlines in translucent plot)
sm = slice.plot.imshow(zorder=0, **slice_plot_kwargs)
plot_transform = ax.transData
# Label axes according to choice of xy_grid or not
if xy_grid:
ax.set_xlabel('X [m]')
ax.set_ylabel('Y [m]')
else:
ax.set_xlabel('UTM easting [m]')
ax.set_ylabel('UTM northing [m]')
ax.ticklabel_format(style='plain', useOffset=False)
else:
# imshow performs poorly for Albers equal-area projection - use
# pcolormesh instead (gridlines will show in translucent plot)
sm = slice.plot.pcolormesh(transform=transform, **slice_plot_kwargs)
# Initialize list of handles for legend
h = [None, None, None]
scatter_zorder = 5
# Plot center of grid
h[0] = ax.scatter(lon_0,
lat_0,
s=50,
color='limegreen',
edgecolor='black',
label='Grid center',
transform=plot_transform,
zorder=scatter_zorder)
# Plot stack maximum
if S.UTM:
# x/y formatting
label = 'Stack max'
else:
# Lat/lon formatting
label = f'Stack max\n({y_max:.4f}, {x_max:.4f})'
h[1] = ax.scatter(x_max,
y_max,
s=100,
color='red',
marker='*',
edgecolor='black',
label=label,
transform=plot_transform,
zorder=scatter_zorder)
# Plot stations
for tr in st:
h[2] = ax.scatter(tr.stats.longitude,
tr.stats.latitude,
marker='v',
color='orange',
edgecolor='black',
label='Station',
transform=plot_transform,
zorder=scatter_zorder)
if label_stations:
ax.text(tr.stats.longitude,
tr.stats.latitude,
' {}.{}'.format(tr.stats.network, tr.stats.station),
verticalalignment='center_baseline',
horizontalalignment='left',
fontsize=10,
color='white',
transform=plot_transform,
zorder=scatter_zorder,
path_effects=[
pe.Stroke(linewidth=2, foreground='black'),
pe.Normal()
],
clip_on=True)
ax.legend(h, [handle.get_label() for handle in h],
loc='best',
framealpha=1,
borderpad=.3,
handletextpad=.3)
time_round = np.datetime64(slice.time.values + np.timedelta64(500, 'ms'),
's').astype(datetime) # Nearest second
title = 'Time: {}'.format(time_round)
if hasattr(S, 'celerity'):
title += f'\nCelerity: {S.celerity:g} m/s'
# Label global maximum if applicable
if slice.time.values == time_max:
title = 'GLOBAL MAXIMUM\n\n' + title
ax.set_title(title, pad=20)
# Show x- and y-axes w/ same scale if this is a Cartesian plot
if S.UTM:
ax.set_aspect('equal')
# Crop plot to show just the slice area
if xy_grid:
ax.set_xlim(-xy_grid, xy_grid)
ax.set_ylim(-xy_grid, xy_grid)
ax_pos = ax.get_position()
cloc = [ax_pos.x1 + .02, ax_pos.y0, .02, ax_pos.height]
cbaxes = fig.add_axes(cloc)
cbar = fig.colorbar(sm, cax=cbaxes, label='Stack amplitude')
cbar.solids.set_alpha(1)
if plot_peak:
plot_stack_peak(S, plot_max=True, ax=ax1)
fig.show()
return fig
modes = ('mean', 'mean_flip', 'pca_flip')
tcs = dict()
for mode in modes:
tcs[mode] = stc.extract_label_time_course(label, src, mode=mode)
print("Number of vertices : %d" % len(stc_label.data))
# %%
# View source activations
# -----------------------
fig, ax = plt.subplots(1)
t = 1e3 * stc_label.times
ax.plot(t, stc_label.data.T, 'k', linewidth=0.5, alpha=0.5)
pe = [
path_effects.Stroke(linewidth=5, foreground='w', alpha=0.5),
path_effects.Normal()
]
for mode, tc in tcs.items():
ax.plot(t, tc[0], linewidth=3, label=str(mode), path_effects=pe)
xlim = t[[0, -1]]
ylim = [-27, 22]
ax.legend(loc='upper right')
ax.set(xlabel='Time (ms)',
ylabel='Source amplitude',
title='Activations in Label %r' % (label.name),
xlim=xlim,
ylim=ylim)
mne.viz.tight_layout()
# %%
# Using vector solutions
def draw_outline(patch: patches.Patch, lw: int) -> None:
stroke = patheffects.Stroke(linewidth=lw, foreground='black')
normal = patheffects.Normal()
patch.set_path_effects([stroke, normal])
def draw_total_precipitation(prep,
map_extent=(107., 112, 23.2, 26.5),
back_image='terrain-background',
back_image_zoom=8,
title="降水量实况图",
draw_station=True,
station_info='cities',
station_size=22,
just_contourf=False):
"""
该程序用于显示多日的累积降水量分布特征, 2020/6/7按业务要求制作.
Args:
ax (matplotlib.axes.Axes): the `Axes` instance used for plotting.
prep (dictionary): precipitation, dictionary: {'lon': 1D array, 'lat': 1D array, 'data': 2D array}
map_extent (tuple, optional): (lonmin, lonmax, latmin, latmax),. Defaults to (107., 112, 23.2, 26.5).
back_image (str, opional): the background image name. Default is stamen 'terrain-background', else is
arcgis map server 'World_Physical_Map' (max zoom level is 8)
back_image_zoom (int, optional): the zoom level for background image. Defaults to 8.
draw_station (bool, optional): draw station name. Defaults to True.
station_info (str, optional): station information, 'cities' is 260 city names, or province captial shows.
station_size (int, optional): station font size. Defaults to 22.
title (str, optional): title string. Defaults to "降水量实况图".
Example:
import pandas as pd
from nmc_met_graphics.plot.precipitation import draw_total_precipitation
from nmc_met_io.retrieve_micaps_server import get_model_grids
# read data
times = pd.date_range(start = pd.to_datetime('2020-06-02 08:00'), end = pd.to_datetime('2020-06-07 08:00'), freq='1H')
dataset = get_model_grids("CLDAS/RAIN01_TRI_DATA_SOURCE", times.strftime("%y%m%d%H.000"))
data = dataset.sum(dim="time")
data['data'].values[data['data'].values > 2400.0] = np.nan
prep = {'lon': data['lon'].values, 'lat': data['lat'].values, 'data': data['data'].values}
# draw the figure
draw_total_precipitation(prep);
"""
# set figure size
fig = plt.figure(figsize=(16, 14.5))
# set map projection
datacrs = ccrs.PlateCarree()
mapcrs = ccrs.LambertConformal(central_longitude=np.mean(map_extent[0:1]),
central_latitude=np.mean(map_extent[2:3]),
standard_parallels=(30, 60))
ax = plt.axes((0.1, 0.08, 0.85, 0.92), projection=mapcrs)
ax.set_extent(map_extent, crs=datacrs)
# add map background
add_china_map_2cartopy(ax, name='province', edgecolor='k', lw=1)
add_china_map_2cartopy(ax, name='river', edgecolor='cyan', lw=1)
if back_image == 'terrain-background':
stamen_terrain = cimg.Stamen('terrain-background')
ax.add_image(stamen_terrain, back_image_zoom)
else:
image = cimg.GoogleTiles(
url=
"https://server.arcgisonline.com/arcgis/rest/services/World_Physical_Map/MapServer/tile/{z}/{y}/{x}.jpg"
)
ax.add_image(image, back_image_zoom)
# set colors and levels
clevs = [50, 100, 200, 300, 400, 500, 600]
colors = [
'#6ab4f1', '#0001f6', '#f405ee', '#ffa900', '#fc6408', '#e80000',
'#9a0001'
]
linewidths = [1, 1, 2, 2, 3, 4, 4]
cmap, norm = mpl.colors.from_levels_and_colors(clevs, colors, extend='max')
# draw precipitation contour map
x, y = np.meshgrid(prep['lon'], prep['lat'])
if just_contourf:
_ = ax.contourf(x,
y,
np.squeeze(prep['data']),
clevs,
norm=norm,
cmap=cmap,
transform=datacrs,
extend='max',
alpha=0.5)
else:
_ = ax.contourf(x,
y,
np.squeeze(prep['data']),
clevs,
norm=norm,
cmap=cmap,
transform=datacrs,
extend='max',
alpha=0.1)
con2 = ax.contour(x,
y,
np.squeeze(prep['data']),
clevs,
norm=norm,
cmap=cmap,
transform=datacrs,
linewidths=linewidths)
# add path effects
plt.setp(con2.collections,
path_effects=[
path_effects.SimpleLineShadow(),
path_effects.Normal()
])
# add title and legend
font = FontProperties(family='Microsoft YaHei', size=32)
ax.set_title('降水量实况图(累计降水: 6月02日—6月06日)',
loc='center',
fontproperties=font)
font = FontProperties(family='Microsoft YaHei', size=16)
plt.legend([mpatches.Patch(color=b) for b in colors], [
'50~100 毫米', '100~200 毫米', '200-300 毫米', '300~400 毫米', '400~500 毫米',
'500~600 毫米', '>=600毫米'
],
prop=font)
# add city information
if draw_station:
if station_info == 'cities':
cities = pd.read_csv(pkg_resources.resource_filename(
'nmc_met_graphics',
"resources/stations/cma_city_station_info.dat"),
delimiter=r"\s+")
else:
cities = pd.read_csv(
pkg_resources.resource_filename(
'nmc_met_graphics',
"resources/stations/provincial_capital.csv"))
font = FontProperties(family='SimHei', size=22, weight='bold')
geodetic_transform = ccrs.Geodetic()._as_mpl_transform(ax)
for _, row in cities.iterrows():
text_transform = offset_copy(geodetic_transform,
units='dots',
x=-5)
ax.plot(row['lon'],
row['lat'],
marker='o',
color='white',
markersize=8,
alpha=0.7,
transform=datacrs)
ax.text(row['lon'],
row['lat'],
row['city_name'],
clip_on=True,
verticalalignment='center',
horizontalalignment='right',
transform=text_transform,
fontproperties=font,
color='white',
path_effects=[
path_effects.Stroke(linewidth=1, foreground='black'),
path_effects.Normal()
])
return fig
def single_plot(robot,
p,
fig,
link_plot,
joint_plot,
eff_plot,
cfg_path_plots=None,
path_history=None,
save_dir=None,
ax=None):
from copy import copy
from matplotlib.lines import Line2D
points_traj = robot.fkine(p)
points_traj = torch.cat([torch.zeros(len(p), 1, 2), points_traj], dim=1)
traj_alpha = 0.3
ends_alpha = 0.5
lw = link_plot.get_lw()
link_traj = [
ax.plot(points[:, 0],
points[:, 1],
color='gray',
alpha=traj_alpha,
lw=lw,
solid_capstyle='round')[0] for points in points_traj
]
joint_traj = [
ax.plot(points[:-1, 0],
points[:-1, 1],
'o',
color='tab:red',
alpha=traj_alpha,
markersize=lw)[0] for points in points_traj
]
eff_traj = [
ax.plot(points[-1:, 0],
points[-1:, 1],
'o',
color='black',
alpha=traj_alpha,
markersize=lw)[0] for points in points_traj
]
# for link_plot, joint_plot, eff_plot, points in zip(link_traj, joint_traj, eff_traj, points_traj):
# link_plot.set_data(points[:, 0], points[:, 1])
# joint_plot.set_data(points[:-1, 0], points[:-1, 1])
# eff_plot.set_data(points[-1:, 0], points[-1:, 1])
for i in [0, -1]:
link_traj[i].set_alpha(ends_alpha)
link_traj[i].set_path_effects(
[path_effects.SimpleLineShadow(),
path_effects.Normal()])
joint_traj[i].set_alpha(ends_alpha)
eff_traj[i].set_alpha(ends_alpha)
link_traj[0].set_color('green')
link_traj[-1].set_color('orange')
# ax.add_artist(link_traj[2])
# def divide(p): # divide the path into several segments that obeys the wrapping around rule [TODO]
# diff = torch.abs(p[:-1]-p[1:])
# div_idx = torch.where(diff.max(1) > np.pi)
# div_idx = torch.cat([-1, div_idx])
# segments = []
# for i in range(len(div_idx)-1):
# segments.append(p[div_idx[i]+1:div_idx[i+1]+1])
# segments.append(p[div_idx[-1]+1:])
# for i in range(len(segments)-1):
# if torch.sum(torch.abs(segments[i]) > np.pi) == 2:
offset = torch.FloatTensor([[0, 0], [0, 1], [-1, 1], [-1, 0]]) * np.pi * 2
for i, cfg_path in enumerate(cfg_path_plots):
cfg_path.set_data(p[:, 0] + offset[i % 4, 0],
p[:, 1] + offset[i % 4, 1])
def create_plots(robot, obstacles, dist_est, checker):
from matplotlib.cm import get_cmap
cmaps = [get_cmap('Reds'), get_cmap('Blues')]
if robot.dof > 2:
fig = plt.figure(figsize=(3, 3))
ax = fig.add_subplot(111) #, projection='3d'
elif robot.dof == 2:
# Show C-space at the same time
num_class = getattr(checker, 'num_class', 1)
fig = plt.figure(figsize=(3 * (num_class), 3 * (num_class + 1)))
plt.rcParams.update({
"text.usetex": True,
"font.family": "sans-serif",
"font.sans-serif": ["Helvetica"]
})
gs = fig.add_gridspec(num_class + 1, num_class)
ax = fig.add_subplot(
gs[:-1, :]
) #sum([list(range(r*(num_class+1)+1, (r+1)*(num_class+1))) for r in range(num_class)], [])) #, projection='3d'
cfg_path_plots = []
size = [400, 400]
yy, xx = torch.meshgrid(torch.linspace(-np.pi, np.pi, size[0]),
torch.linspace(-np.pi, np.pi, size[1]))
grid_points = torch.stack([xx, yy], dim=2).reshape((-1, 2))
grid_points = grid_points.double(
) if checker.support_points.dtype == torch.float64 else grid_points
score_spline = dist_est(grid_points).reshape(size + [num_class])
c_axes = []
with sns.axes_style('ticks'):
for cat in range(num_class):
c_ax = fig.add_subplot(gs[-1, cat])
# score_DiffCo = checker.score(grid_points).reshape(size)
# score = (torch.sign(score_DiffCo)+1)/2*(score_spline-score_spline.min()) + (-torch.sign(score_DiffCo)+1)/2*(score_spline-score_spline.max())
score = score_spline[:, :, cat]
color_mesh = c_ax.pcolormesh(xx,
yy,
score,
cmap=cmaps[cat],
vmin=-torch.abs(score).max(),
vmax=torch.abs(score).max())
c_support_points = checker.support_points[
checker.gains[:, cat] != 0]
c_ax.scatter(c_support_points[:, 0],
c_support_points[:, 1],
marker='.',
c='black',
s=1.5)
c_ax.contour(
xx,
yy,
score,
levels=[0],
linewidths=1,
alpha=0.4,
) #-1.5, -0.75, 0, 0.3
# fig.colorbar(color_mesh, ax=c_ax)
# sparse_score = score[5:-5:10, 5:-5:10]
# score_grad_x = -ndimage.sobel(sparse_score.numpy(), axis=1)
# score_grad_y = -ndimage.sobel(sparse_score.numpy(), axis=0)
# score_grad = np.stack([score_grad_x, score_grad_y], axis=2)
# score_grad /= np.linalg.norm(score_grad, axis=2, keepdims=True)
# score_grad_x, score_grad_y = score_grad[:, :, 0], score_grad[:, :, 1]
# c_ax.quiver(xx[5:-5:10, 5:-5:10], yy[5:-5:10, 5:-5:10], score_grad_x, score_grad_y, color='red', width=2e-3, headwidth=2, headlength=5)
# cfg_point = Circle(collision_cfgs[0], radius=0.05, facecolor='orange', edgecolor='black', path_effects=[path_effects.withSimplePatchShadow()])
# c_ax.add_patch(cfg_point)
for _ in range(4):
cfg_path, = c_ax.plot([], [],
'-o',
c='olivedrab',
markersize=3)
cfg_path_plots.append(cfg_path)
c_ax.set_aspect('equal', adjustable='box')
# c_ax.axis('equal')
c_ax.set_xlim(-np.pi, np.pi)
c_ax.set_ylim(-np.pi, np.pi)
c_ax.set_xticks([-np.pi, 0, np.pi])
c_ax.set_xticklabels(['$-\pi$', '$0$', '$\pi$'])
c_ax.set_yticks([-np.pi, 0, np.pi])
c_ax.set_yticklabels(['$-\pi$', '$0$', '$\pi$'])
# c_ax.tick_params(direction='in', reset=True)
# c_ax.tick_params(which='both', direction='out', length=6, width=2, colors='r',
# grid_color='r', grid_alpha=0.5)
# c_ax.set_ticks('')
# Plot ostacles
# ax.axis('tight')
ax.set_xlim(-8, 8)
ax.set_ylim(-8, 8)
ax.set_aspect('equal', adjustable='box')
ax.set_xticks([-4, 0, 4])
ax.set_yticks([-4, 0, 4])
for obs in obstacles:
cat = obs[3] if len(obs) >= 4 else 1
if obs[0] == 'circle':
ax.add_patch(
Circle(obs[1],
obs[2],
path_effects=[path_effects.withSimplePatchShadow()],
color=cmaps[cat](0.5)))
elif obs[0] == 'rect':
ax.add_patch(
Rectangle((obs[1][0] - float(obs[2][0]) / 2,
obs[1][1] - float(obs[2][1]) / 2),
obs[2][0],
obs[2][1],
path_effects=[path_effects.withSimplePatchShadow()],
color=cmaps[cat](0.5)))
# print((obs[1][0]-obs[2][0]/2, obs[1][1]-obs[2][1]/2))
# Placeholder of the robot plot
trans = ax.transData.transform
lw = ((trans((1, robot.link_width)) - trans(
(0, 0))) * 72 / ax.figure.dpi)[1]
link_plot, = ax.plot(
[], [],
color='silver',
alpha=0.1,
lw=lw,
solid_capstyle='round',
path_effects=[path_effects.SimpleLineShadow(),
path_effects.Normal()])
joint_plot, = ax.plot([], [], 'o', color='tab:red', markersize=lw)
eff_plot, = ax.plot([], [], 'o', color='black', markersize=lw)
if robot.dof > 2:
return fig, ax, link_plot, joint_plot, eff_plot
elif robot.dof == 2:
return fig, ax, link_plot, joint_plot, eff_plot, cfg_path_plots
def plot_calma_data(self, loudnessValues, features, duration, type,
**kwargs):
"""
Takes CALMA data for a single track as input, and creates a plot.
Parameters
----------
loudnessValues : float[]
An array of loudness / amplitude values.
features : float[]
Features information.
duration : float
The duration of the track.
"""
# Replace colour map if needed
if type == 'segment':
self.colourMap = self.get_segment_colour_map(features)
if type == 'key': self.colourMap = self.get_colour_map()
# Hide placeholder text if visible
try:
self.placeHolderText.remove()
text = self.fig.text(0.5,
0.65,
kwargs['title'],
horizontalalignment='center',
verticalalignment='center',
fontsize=16)
text.set_path_effects([
path_effects.Stroke(linewidth=2, foreground='white'),
path_effects.Normal()
])
except (KeyError, ValueError) as v:
self.placeHolderText.set_text('')
# Perform pre-processing
nploudnessValues, duration, xSpaced, average = self.pre_processing(
loudnessValues, duration)
# Plot waveform
self.canvasGraph.axes.cla()
self.canvasGraph.plot(xSpaced, nploudnessValues)
for index, key in enumerate(features):
# Calculate graph positions
lx, ly, rec = self.calculate_graph_element_position(
features, key, index, duration, average)
# Add annotation to plot
self.canvasGraph.annotate(key[1], (lx, ly),
weight='bold',
color='Black',
fontsize=7,
ha='center',
va='center',
rotation=270)
self.ax.add_artist(rec)
# Set axes labels
self.ax.set_yticklabels([])
self.ax.set_xlabel("Time (seconds)")
# Add colour legend for keys
keysAsSet = list(set([x[1] for x in features]))
patches = []
for k in keysAsSet:
# Plot rectangle for key changes
try:
fc = self.colourMap[k]
except KeyError as keyerr:
fc = 'grey'
patch = mpatch.Patch(color=fc, label=k)
patches.append(patch)
self.canvasGraph.legend(handles=patches,
bbox_to_anchor=(1.00, 1),
loc=2,
borderaxespad=0,
fontsize=7,
ncol=2)
self.fig.subplots_adjust(left=0.00, right=0.85, top=0.95)
try:
kwargs['release']
except KeyError as v:
# Causes crash with multiple plots
self.finishDraw()
self.fig.patch.set_alpha(1.0)
return
def plot_storm_nrl(self,
forecast,
track=None,
image_path=os.getcwd(),
track_labels='fhr',
cone_days=5,
domain="dynamic_forecast",
ax=None,
return_ax=False,
prop={},
map_prop={}):
r"""
Creates a plot of the operational NRL forecast track along with observed track data.
Parameters
----------
forecast : dict
Dict entry containing forecast data.
track : dict
Dict entry containing observed track data. Default is none.
track_labels : str
Label forecast hours with the following methods:
'' = no label
'fhr' = forecast hour
'valid_utc' = UTC valid time
'valid_edt' = EDT valid time
cone_days : int
Number of days to plot the forecast cone. Default is 5 days. Can select 2, 3, 4 or 5 days.
domain : str
Domain for the plot. Can be one of the following:
"dynamic_forecast" - default. Dynamically focuses the domain on the forecast track.
"dynamic" - Dynamically focuses the domain on the combined observed and forecast track.
"lonW/lonE/latS/latN" - Custom plot domain
ax : axes
Instance of axes to plot on. If none, one will be generated. Default is none.
return_ax : bool
Whether to return axis at the end of the function. If false, plot will be displayed on the screen. Default is false.
prop : dict
Property of storm track lines.
map_prop : dict
Property of cartopy map.
"""
#Determine if forecast is realtime
realtime_flag = True if forecast['advisory_num'] == -1 else False
#Set default properties
default_prop = {
'dots': True,
'fillcolor': 'category',
'linecolor': 'k',
'category_colors': 'default',
'linewidth': 1.0,
'ms': 7.5,
'cone_lw': 1.0,
'cone_alpha': 0.6
}
default_map_prop = {
'res': 'm',
'land_color': '#FBF5EA',
'ocean_color': '#EDFBFF',
'linewidth': 0.5,
'linecolor': 'k',
'figsize': (14, 9),
'dpi': 200
}
#Initialize plot
prop = self.add_prop(prop, default_prop)
map_prop = self.add_prop(map_prop, default_map_prop)
self.plot_init(ax, map_prop)
#--------------------------------------------------------------------------------------
#Keep record of lat/lon coordinate extrema
max_lat = None
min_lat = None
max_lon = None
min_lon = None
#Add storm or multiple storms
if track != "":
#Check for storm type, then get data for storm
if isinstance(track, dict) == True:
storm_data = track
else:
raise RuntimeError("Error: track must be of type dict.")
#Retrieve storm data
lats = storm_data['lat']
lons = storm_data['lon']
vmax = storm_data['vmax']
styp = storm_data['type']
sdate = storm_data['date']
#Check if there's enough data points to plot
matching_times = [i for i in sdate if i <= forecast['init']]
check_length = len(matching_times)
if check_length >= 2:
#Subset until time of forecast
matching_times = [i for i in sdate if i <= forecast['init']]
plot_idx = sdate.index(matching_times[-1]) + 1
lats = storm_data['lat'][:plot_idx]
lons = storm_data['lon'][:plot_idx]
vmax = storm_data['vmax'][:plot_idx]
styp = storm_data['type'][:plot_idx]
sdate = storm_data['date'][:plot_idx]
#Account for cases crossing dateline
if self.proj.proj4_params['lon_0'] == 180.0:
new_lons = np.array(lons)
new_lons[new_lons < 0] = new_lons[new_lons < 0] + 360.0
lons = new_lons.tolist()
#Connect to 1st forecast location
fcst_hr = np.array(forecast['fhr'])
start_slice = 0
if 3 in fcst_hr: start_slice = 3
if realtime_flag == True: start_slice = int(fcst_hr[1])
iter_hr = np.array(forecast['fhr'])[fcst_hr >= start_slice][0]
fcst_lon = np.array(forecast['lon'])[fcst_hr >= start_slice][0]
fcst_lat = np.array(forecast['lat'])[fcst_hr >= start_slice][0]
fcst_type = np.array(
forecast['type'])[fcst_hr >= start_slice][0]
fcst_vmax = np.array(
forecast['vmax'])[fcst_hr >= start_slice][0]
if fcst_type == "":
fcst_type = get_storm_type(fcst_vmax, False)
if self.proj.proj4_params['lon_0'] == 180.0:
if fcst_lon < 0: fcst_lon = fcst_lon + 360.0
lons.append(fcst_lon)
lats.append(fcst_lat)
vmax.append(fcst_vmax)
styp.append(fcst_type)
sdate.append(sdate[-1] + timedelta(hours=start_slice))
#Add to coordinate extrema
if domain != "dynamic_forecast":
if max_lat == None:
max_lat = max(lats)
else:
if max(lats) > max_lat: max_lat = max(lats)
if min_lat == None:
min_lat = min(lats)
else:
if min(lats) < min_lat: min_lat = min(lats)
if max_lon == None:
max_lon = max(lons)
else:
if max(lons) > max_lon: max_lon = max(lons)
if min_lon == None:
min_lon = min(lons)
else:
if min(lons) < min_lon: min_lon = min(lons)
else:
max_lat = lats[-1] + 0.2
min_lat = lats[-2] - 0.2
max_lon = lons[-1] + 0.2
min_lon = lons[-2] - 0.2
#Plot storm line as specified
if prop['linecolor'] == 'category':
type6 = np.array(styp)
for i in (np.arange(len(lats[1:])) + 1):
ltype = 'solid'
if type6[i] not in ['SS', 'SD', 'TD', 'TS', 'HU']:
ltype = 'dotted'
self.ax.plot(
[lons[i - 1], lons[i]], [lats[i - 1], lats[i]],
'-',
color=get_colors_sshws(np.nan_to_num(vmax[i])),
linewidth=prop['linewidth'],
linestyle=ltype,
transform=ccrs.PlateCarree(),
path_effects=[
path_effects.Stroke(
linewidth=prop['linewidth'] * 1.25,
foreground='k'),
path_effects.Normal()
])
else:
self.ax.plot(lons,
lats,
'-',
color=prop['linecolor'],
linewidth=prop['linewidth'],
transform=ccrs.PlateCarree())
#Plot storm dots as specified
if prop['dots'] == True:
#filter dots to only 6 hour intervals
time_hr = np.array([i.strftime('%H%M') for i in sdate])
#time_idx = np.where((time_hr == '0300') | (time_hr == '0900') | (time_hr == '1500') | (time_hr == '2100'))
lat6 = np.array(lats) #[time_idx]
lon6 = np.array(lons) #[time_idx]
vmax6 = np.array(vmax) #[time_idx]
type6 = np.array(styp) #[time_idx]
for i, (ilon, ilat, iwnd,
itype) in enumerate(zip(lon6, lat6, vmax6, type6)):
mtype = '^'
if itype in ['SD', 'SS']:
mtype = 's'
elif itype in ['TD', 'TS', 'HU']:
mtype = 'o'
if prop['fillcolor'] == 'category':
ncol = get_colors_sshws(np.nan_to_num(iwnd))
else:
ncol = 'k'
self.ax.plot(ilon,
ilat,
mtype,
color=ncol,
mec='k',
mew=0.5,
ms=prop['ms'],
transform=ccrs.PlateCarree())
#--------------------------------------------------------------------------------------
#Error check cone days
if isinstance(cone_days, int) == False:
raise TypeError("Error: cone_days must be of type int")
if cone_days not in [5, 4, 3, 2]:
raise ValueError(
"Error: cone_days must be an int between 2 and 5.")
#Error check forecast dict
if isinstance(forecast, dict) == False:
raise RuntimeError("Error: Forecast must be of type dict")
#Determine first forecast index
fcst_hr = np.array(forecast['fhr'])
start_slice = 0
if 3 in fcst_hr: start_slice = 3
if realtime_flag == True: start_slice = int(fcst_hr[1])
check_duration = fcst_hr[(fcst_hr >= start_slice)
& (fcst_hr <= cone_days * 24)]
#Check for sufficiently many hours
if len(check_duration) > 1:
#Generate forecast cone for forecast data
dateline = False
if self.proj.proj4_params['lon_0'] == 180.0: dateline = True
cone = self.generate_nrl_cone(forecast, dateline, cone_days)
#Contour fill cone & account for dateline crossing
if 'cone' in forecast.keys() and forecast['cone'] == False:
pass
else:
cone_lon = cone['lon']
cone_lat = cone['lat']
cone_lon_2d = cone['lon2d']
cone_lat_2d = cone['lat2d']
if self.proj.proj4_params['lon_0'] == 180.0:
new_lons = np.array(cone_lon_2d)
new_lons[new_lons < 0] = new_lons[new_lons < 0] + 360.0
cone_lon_2d = new_lons.tolist()
new_lons = np.array(cone_lon)
new_lons[new_lons < 0] = new_lons[new_lons < 0] + 360.0
cone_lon = new_lons.tolist()
cone_2d = cone['cone']
cone_2d = ndimage.gaussian_filter(cone_2d, sigma=0.5, order=0)
self.ax.contourf(cone_lon_2d,
cone_lat_2d,
cone_2d, [0.9, 1.1],
colors=['#ffffff', '#ffffff'],
alpha=prop['cone_alpha'],
zorder=2,
transform=ccrs.PlateCarree())
self.ax.contour(cone_lon_2d,
cone_lat_2d,
cone_2d, [0.9],
linewidths=prop['cone_lw'],
colors=['k'],
zorder=3,
transform=ccrs.PlateCarree())
#Plot center line & account for dateline crossing
center_lon = cone['center_lon']
center_lat = cone['center_lat']
if self.proj.proj4_params['lon_0'] == 180.0:
new_lons = np.array(center_lon)
new_lons[new_lons < 0] = new_lons[new_lons < 0] + 360.0
center_lon = new_lons.tolist()
self.ax.plot(center_lon,
center_lat,
color='k',
linewidth=2.0,
zorder=4,
transform=ccrs.PlateCarree())
#Retrieve forecast dots
iter_hr = np.array(forecast['fhr'])[(fcst_hr >= start_slice)
& (fcst_hr <= cone_days * 24)]
fcst_lon = np.array(forecast['lon'])[(fcst_hr >= start_slice)
& (fcst_hr <= cone_days * 24)]
fcst_lat = np.array(forecast['lat'])[(fcst_hr >= start_slice)
& (fcst_hr <= cone_days * 24)]
fcst_type = np.array(
forecast['type'])[(fcst_hr >= start_slice)
& (fcst_hr <= cone_days * 24)]
fcst_vmax = np.array(
forecast['vmax'])[(fcst_hr >= start_slice)
& (fcst_hr <= cone_days * 24)]
#Account for cases crossing dateline
if self.proj.proj4_params['lon_0'] == 180.0:
new_lons = np.array(fcst_lon)
new_lons[new_lons < 0] = new_lons[new_lons < 0] + 360.0
fcst_lon = new_lons.tolist()
#Plot forecast dots
for i, (ilon, ilat, itype, iwnd, ihr) in enumerate(
zip(fcst_lon, fcst_lat, fcst_type, fcst_vmax, iter_hr)):
mtype = '^'
if itype in ['SD', 'SS']:
mtype = 's'
elif itype in ['TD', 'TS', 'HU', '']:
mtype = 'o'
if prop['fillcolor'] == 'category':
ncol = get_colors_sshws(np.nan_to_num(iwnd))
else:
ncol = 'k'
#Marker width
mew = 0.5
use_zorder = 5
if i == 0:
mew = 2.0
use_zorder = 10
self.ax.plot(ilon,
ilat,
mtype,
color=ncol,
mec='k',
mew=mew,
ms=prop['ms'] * 1.3,
transform=ccrs.PlateCarree(),
zorder=use_zorder)
#Label forecast dots
if track_labels in [
'fhr', 'valid_utc', 'valid_edt', 'fhr_wind_kt',
'fhr_wind_mph'
]:
valid_dates = [
forecast['init'] + timedelta(hours=int(i)) for i in iter_hr
]
if track_labels == 'fhr':
labels = [str(i) for i in iter_hr]
if track_labels == 'fhr_wind_kt':
labels = [
f"Hour {iter_hr[i]}\n{fcst_vmax[i]} kt"
for i in range(len(iter_hr))
]
if track_labels == 'fhr_wind_mph':
labels = [
f"Hour {iter_hr[i]}\n{knots_to_mph(fcst_vmax[i])} mph"
for i in range(len(iter_hr))
]
if track_labels == 'valid_edt':
labels = [
str(int(i.strftime('%I'))) + ' ' + i.strftime('%p %a')
for i in [j - timedelta(hours=4) for j in valid_dates]
]
edt_warning = True
if track_labels == 'valid_utc':
labels = [
f"{i.strftime('%H UTC')}\n{str(i.month)}/{str(i.day)}"
for i in valid_dates
]
self.plot_nhc_labels(self.ax,
fcst_lon,
fcst_lat,
labels,
k=1.2)
#Add cone coordinates to coordinate extrema
if 'cone' in forecast.keys() and forecast['cone'] == False:
if domain == "dynamic_forecast" or max_lat == None:
max_lat = max(center_lat)
min_lat = min(center_lat)
max_lon = max(center_lon)
min_lon = min(center_lon)
else:
if max(center_lat) > max_lat: max_lat = max(center_lat)
if min(center_lat) < min_lat: min_lat = min(center_lat)
if max(center_lon) > max_lon: max_lon = max(center_lon)
if min(center_lon) < min_lon: min_lon = min(center_lon)
else:
if domain == "dynamic_forecast" or max_lat == None:
max_lat = max(cone_lat)
min_lat = min(cone_lat)
max_lon = max(cone_lon)
min_lon = min(cone_lon)
else:
if max(cone_lat) > max_lat: max_lat = max(cone_lat)
if min(cone_lat) < min_lat: min_lat = min(cone_lat)
if max(cone_lon) > max_lon: max_lon = max(cone_lon)
if min(cone_lon) < min_lon: min_lon = min(cone_lon)
#--------------------------------------------------------------------------------------
#Storm-centered plot domain
if domain == "dynamic" or domain == 'dynamic_forecast':
bound_w, bound_e, bound_s, bound_n = self.dynamic_map_extent(
min_lon, max_lon, min_lat, max_lat)
self.ax.set_extent([bound_w, bound_e, bound_s, bound_n],
crs=ccrs.PlateCarree())
#Pre-generated or custom domain
else:
bound_w, bound_e, bound_s, bound_n = self.set_projection(domain)
#Plot parallels and meridians
#This is currently not supported for all cartopy projections.
try:
self.plot_lat_lon_lines([bound_w, bound_e, bound_s, bound_n])
except:
pass
#--------------------------------------------------------------------------------------
#Identify storm type (subtropical, hurricane, etc)
first_fcst_wind = np.array(forecast['vmax'])[fcst_hr >= start_slice][0]
first_fcst_mslp = np.array(forecast['mslp'])[fcst_hr >= start_slice][0]
first_fcst_type = np.array(forecast['type'])[fcst_hr >= start_slice][0]
if all_nan(first_fcst_wind) == True:
storm_type = 'Unknown'
else:
subtrop = True if first_fcst_type in ['SD', 'SS'] else False
cur_wind = first_fcst_wind + 0
storm_type = get_storm_classification(np.nan_to_num(cur_wind),
subtrop, 'north_atlantic')
#Identify storm name (and storm type, if post-tropical or potential TC)
matching_times = [
i for i in storm_data['date'] if i <= forecast['init']
]
if check_length < 2:
if all_nan(first_fcst_wind) == True:
storm_name = storm_data['name']
else:
storm_name = num_to_text(int(storm_data['id'][2:4])).upper()
if first_fcst_wind >= 34 and first_fcst_type in [
'TD', 'SD', 'SS', 'TS', 'HU'
]:
storm_name = storm_data['name']
if first_fcst_type not in ['TD', 'SD', 'SS', 'TS', 'HU']:
storm_type = 'Storm'
else:
storm_name = num_to_text(int(storm_data['id'][2:4])).upper()
storm_type = 'Storm'
storm_tropical = False
if all_nan(vmax) == True:
storm_type = 'Unknown'
storm_name = storm_data['name']
else:
for i, (iwnd, ityp) in enumerate(zip(vmax, styp)):
if ityp in ['SD', 'SS', 'TD', 'TS', 'HU']:
storm_tropical = True
subtrop = True if ityp in ['SD', 'SS'] else False
storm_type = get_storm_classification(
np.nan_to_num(iwnd), subtrop, 'north_atlantic')
if np.isnan(iwnd) == True: storm_type = 'Unknown'
else:
if storm_tropical == True:
storm_type = 'Post Tropical Cyclone'
if ityp in ['SS', 'TS', 'HU']:
storm_name = storm_data['name']
#Fix storm types for non-NHC basins
if 'cone' in forecast.keys():
storm_type = get_storm_classification(first_fcst_wind, False,
forecast['basin'])
#Add left title
self.ax.set_title(f"{storm_type} {storm_name}",
loc='left',
fontsize=17,
fontweight='bold')
endash = u"\u2013"
dot = u"\u2022"
#Get current advisory information
first_fcst_wind = "N/A" if np.isnan(first_fcst_wind) == True else int(
first_fcst_wind)
first_fcst_mslp = "N/A" if np.isnan(first_fcst_mslp) == True else int(
first_fcst_mslp)
#Get time of advisory
fcst_hr = forecast['fhr']
start_slice = 0
if 3 in fcst_hr: start_slice = 1
if realtime_flag == True: start_slice = 1
forecast_date = (forecast['init'] + timedelta(
hours=fcst_hr[start_slice])).strftime("%H%M UTC %d %b %Y")
forecast_id = forecast['advisory_num']
#Get wind value to display
if first_fcst_wind == "N/A":
wind_display_value = "N/A"
else:
wind_display_value = knots_to_mph(first_fcst_wind)
if forecast_id == -1:
title_text = f"Current Intensity: {wind_display_value} mph {dot} {first_fcst_mslp} hPa"
if 'cone' in forecast.keys() and forecast['cone'] == False:
title_text += f"\nJTWC Issued: {forecast_date}"
else:
title_text += f"\nNHC Issued: {forecast_date}"
else:
title_text = f"Current Intensity: {wind_display_value} mph {dot} {first_fcst_mslp} hPa"
title_text += f"\nForecast Issued: {forecast_date}"
#Add right title
self.ax.set_title(title_text, loc='right', fontsize=13)
#--------------------------------------------------------------------------------------
#Add legend
if prop['fillcolor'] == 'category' or prop['linecolor'] == 'category':
ex = mlines.Line2D([], [],
linestyle='None',
ms=prop['ms'],
mec='k',
mew=0.5,
label='Non-Tropical',
marker='^',
color='w')
sb = mlines.Line2D([], [],
linestyle='None',
ms=prop['ms'],
mec='k',
mew=0.5,
label='Subtropical',
marker='s',
color='w')
uk = mlines.Line2D([], [],
linestyle='None',
ms=prop['ms'],
mec='k',
mew=0.5,
label='Unknown',
marker='o',
color='w')
td = mlines.Line2D([], [],
linestyle='None',
ms=prop['ms'],
mec='k',
mew=0.5,
label='Tropical Depression',
marker='o',
color=get_colors_sshws(33))
ts = mlines.Line2D([], [],
linestyle='None',
ms=prop['ms'],
mec='k',
mew=0.5,
label='Tropical Storm',
marker='o',
color=get_colors_sshws(34))
c1 = mlines.Line2D([], [],
linestyle='None',
ms=prop['ms'],
mec='k',
mew=0.5,
label='Category 1',
marker='o',
color=get_colors_sshws(64))
c2 = mlines.Line2D([], [],
linestyle='None',
ms=prop['ms'],
mec='k',
mew=0.5,
label='Category 2',
marker='o',
color=get_colors_sshws(83))
c3 = mlines.Line2D([], [],
linestyle='None',
ms=prop['ms'],
mec='k',
mew=0.5,
label='Category 3',
marker='o',
color=get_colors_sshws(96))
c4 = mlines.Line2D([], [],
linestyle='None',
ms=prop['ms'],
mec='k',
mew=0.5,
label='Category 4',
marker='o',
color=get_colors_sshws(113))
c5 = mlines.Line2D([], [],
linestyle='None',
ms=prop['ms'],
mec='k',
mew=0.5,
label='Category 5',
marker='o',
color=get_colors_sshws(137))
self.ax.legend(handles=[ex, sb, uk, td, ts, c1, c2, c3, c4, c5],
prop={'size': 11.5})
#Add forecast label warning
try:
if edt_warning == True:
warning_text = "All times displayed are in EDT\n\n"
else:
warning_text = ""
except:
warning_text = ""
try:
warning_text += f"The cone of uncertainty in this product was generated internally\nusing {cone['year']} derived NRL cone radii.\n\n"
except:
pass
self.ax.text(0.99,
0.01,
warning_text,
fontsize=9,
color='k',
alpha=0.7,
transform=self.ax.transAxes,
ha='right',
va='bottom',
zorder=10)
credit_text = self.plot_credit()
self.add_credit(credit_text)
#Return axis if specified, otherwise display figure
if ax != None or return_ax == True:
return self.ax
else:
plt.savefig(
f"{image_path}/{track['id']}_{forecast_date.replace(' ','')}")
plt.close()
hts = np.array([extract(m, "Elevation") for m in mountains])
# Histogram plot of mountain heights.
with plt.xkcd(): # Cueball: "Why?" Black hat: "Why not?"
plt.hist(hts, 20, facecolor='cyan', alpha=0.75)
plt.figure(1)
print("Histogram of the heights of named mountains.")
plt.xlabel("Mountain height")
plt.ylabel("Mountain count")
plt.show(1)
# Ordinary data plot of mountain heights.
plt.figure(2)
pef = [path_effects.SimpleLineShadow(), path_effects.Normal()]
plt.plot(np.sort(hts), '--', path_effects=pef)
print("Heights of the mountains of the world.")
plt.show(2)
with open('countries.json', encoding="utf-8") as data_file:
countries = json.load(data_file)
pops = np.array([extract(c, "Population") for c in countries])
gdp = np.array([extract(c, "GDP") for c in countries])
gdppc = gdp / pops
pops_log = np.log(pops) / np.log(10)
# Scatter plot of population against GDP per person.
plt.figure(3)
def _draw_outline(o, lw: int):
"Outline bounding box onto image `Patch`."
o.set_path_effects([
patheffects.Stroke(linewidth=lw, foreground='black'),
patheffects.Normal()
])
def stremline_plot(adata, genes, x=0, y=1, method='sparseVFC', basis='trimap', n_columns=1, color=None, label_on_embedding=True,
cmap=None, s_kwargs_dict={}, layer='X', xy_grid_nums=[30, 30], density=1, g_kwargs_dict={},
V_threshold=1e-5, figsize=None, show_quiver=True, **streamline_kwargs):
"""Plot the streamline of vector field based on the sampled cells.
Parameters
----------
adata: :class:`~anndata.AnnData`
an Annodata object.
genes: `list`
The gene names whose gene expression will be faceted.
x: `int` (default: `0`)
The column index of the low dimensional embedding for the x-axis
y: `int` (default: `1`)
The column index of the low dimensional embedding for the y-axis
method: `str` (default: `SparseVFC`)
Method to reconstruct the vector field. Currently it supports either SparseVFC (default) or the empirical method
Gaussian kernel method from RNA velocity (Gaussian).
basis: `str` (default: `trimap`)
The reduced dimension embedding of cells to visualize.
n_columns: `int (default: 1)
The number of columns of the resulting plot.
color: `list` or None (default: None)
A list of attributes of cells (column names in the adata.obs) will be used to color cells.
cmap: `plt.cm` or None (default: None)
The color map function to use.
s_kwargs_dict: `dict` (default: {})
The dictionary of the scatter arguments.
layer: `str` (default: X)
Which layer of expression value will be used.
xy_grid_nums: `tuple` (default: (5, 5))
the number of grids in either x or y axis.
density: `float` or None (default: 1)
density of the plt.streamplot function.
q_kwargs_dict: `dict` (default: {})
A dictionary of the parameters for the plt.quiver function.
V_threshold: `None` or `float`
The threshold of velocity value for visualization
figsize: `None` or `[float, float]` (default: None)
The width and height of a figure.
show_quiver: `bool` (default: True)
Whether also show the quiver plot in additional to the streamline plot.
**streamline_kwargs:
Additional parameters that will be passed to plt.streamplot function
Returns
-------
Nothing but a cell wise quiver plot
"""
import matplotlib.pyplot as plt
import matplotlib.patheffects as PathEffects
streamplot_kwargs={"density": density, "linewidth": None, "color": None, "cmap": None, "norm": None, "arrowsize": 1, "arrowstyle": '-|>',
"minlength": 0.1, "transform": None, "zorder": None, "start_points": None, "maxlength": 4.0,
"integration_direction": 'both'}
streamplot_kwargs.update(streamline_kwargs)
if cmap is None and color is None:
cmap = plt.cm.RdBu_r
n_cells, n_genes = adata.shape[0], len(genes)
# {"alpha": 0.5, "s": 8, "edgecolor": "0.8", "lw": 0.15}
scatter_kwargs = dict(alpha=0.4, s=8, edgecolor=None, linewidth=0)
if s_kwargs_dict is not None:
scatter_kwargs.update(s_kwargs_dict)
if layer is 'X':
E_vec = adata[:, adata.var.index.isin(genes)].X.T
elif layer in adata.layers.keys():
E_vec = adata[:, adata.var.index.isin(genes)].layers[layer].T
elif layer is 'protein': # update subset here
E_vec = adata[:, adata.var.index.isin(genes)].obsm[layer].T
else:
raise Exception(f'The {layer} you passed in is not existed in the adata object.')
if color is not None:
color = list(set(color).intersection(adata.obs.keys()))
n_genes, genes = len(color), color
E_vec = adata.obs[color].values.T.flatten() if len(color) > 0 else np.empty((0, 1))
if ('X_' + basis in adata.obsm.keys()) and ('velocity_' + basis in adata.obsm.keys()):
X = adata.obsm['X_' + basis][:, [x, y]]
V = adata.obsm['velocity_' + basis][:, [x, y]]
else:
if 'X_' + basis not in adata.obsm.keys():
reduceDimension(adata, velocity_key='velocity_S', reduction_method=basis)
if 'kmc' not in adata.uns_keys():
cell_velocities(adata, vkey='pca', basis=basis, method='analytical')
X = adata.obsm['X_' + basis][:, [x, y]]
V = adata.obsm['velocity_' + basis][:, [x, y]]
else:
kmc = adata.uns['kmc']
X = adata.obsm['X_' + basis][:, [x, y]]
V = kmc.compute_density_corrected_drift(X, kmc.Idx, normalize_vector=True)
adata.obsm['velocity_' + basis] = V
if 0 in E_vec.shape:
raise Exception(f'The gene names {genes} (or cell annotations {color}) provided are not existed in your data.')
if method is 'SparseVFC' and adata.obsm['X_' + basis].shape[1] == 2:
if 'VecFld_' + basis not in adata.uns.keys():
VectorField(adata, basis=basis)
X_grid, V_grid = adata.uns['VecFld_' + basis]['grid'], adata.uns['VecFld_' + basis]['grid_V']
N = int(np.sqrt(V_grid.shape[0]))
X_grid, V_grid = np.array([np.unique(X_grid[:, 0]), np.unique(X_grid[:, 1])]), \
np.array([V_grid[:, 0].reshape((N, N)), V_grid[:, 1].reshape((N, N))])
elif 'grid_velocity_' + basis in adata.uns.keys():
X_grid, V_grid, _ = adata.uns['grid_velocity_' + basis]['X_grid'], adata.uns['grid_velocity_' + basis]['V_grid'], \
adata.uns['grid_velocity_' + basis]['D']
else:
grid_kwargs_dict = {"density": None, "smooth": None, "n_neighbors": None, "min_mass": None, "autoscale": False,
"adjust_for_stream": True, "V_threshold": None}
grid_kwargs_dict.update(g_kwargs_dict)
X_grid, V_grid, D = velocity_on_grid(X[:, [x, y]], V[:, [x, y]], xy_grid_nums, **grid_kwargs_dict)
# if quiver_scale is None:
# quiver_scale = quiver_autoscaler(X_grid, V_grid)
# quiver_kwargs = {"angles": 'xy', "scale_units": 'xy', 'scale': quiver_scale, "minlength": 1.5}
# quiver_kwargs.update(q_kwargs)
n_columns, plot_per_gene = n_columns, 1 # we may also add random velocity results
nrow, ncol = int(np.ceil(plot_per_gene * n_genes / n_columns)), n_columns
if figsize is None:
plt.figure(None, (3*ncol, 3*nrow), dpi=160) #
else:
plt.figure(None, (figsize[0]*ncol, figsize[1]*nrow)) # , dpi=160
E_vec = E_vec.A.flatten() if issparse(E_vec) else E_vec.flatten()
V = V.A[:, [x, y]] if issparse(V) else V[:, [x, y]]
# iterate over cell first then a different dimension/gene/column
df = pd.DataFrame({"x": np.tile(X[:, 0], n_genes), "y": np.tile(X[:, 1], n_genes), "u": np.tile(V[:, 0], n_genes),
"v": np.tile(V[:, 1], n_genes), 'gene': np.repeat(np.array(genes), n_cells),
"expression": E_vec}, index=range(n_cells * n_genes))
# the following code is inspired by https://github.com/velocyto-team/velocyto-notebooks/blob/master/python/DentateGyrus.ipynb
gs = plt.GridSpec(nrow, ncol)
for i, gn in enumerate(genes):
ax = plt.subplot(gs[i*plot_per_gene])
try:
ix=np.where(adata.var.index == gn)[0][0]
except:
ix = gn in adata.obs.columns
if not ix:
continue
cur_pd = df.loc[df.gene == gn, :]
E_vec = cur_pd.loc[:, 'expression']
if color is None:
limit = np.max(np.abs(np.percentile(E_vec, [1, 99]))) # upper and lowe limit / saturation
E_vec = E_vec + limit # that is: tmp_colorandum - (-limit)
E_vec = E_vec / (2 * limit) # that is: tmp_colorandum / (limit - (-limit))
E_vec = np.clip(E_vec, 0, 1)
ax.scatter(cur_pd.iloc[:, 0], cur_pd.iloc[:, 1], c=cmap(E_vec), **scatter_kwargs)
else:
import seaborn as sns
# List of RGB triplets
color_labels = E_vec.unique()
rgb_values = sns.color_palette("Set2", len(color_labels))
# Map label to RGB
color_map = pd.DataFrame(zip(color_labels, rgb_values), index=color_labels)
ax.scatter(cur_pd.iloc[:, 0], cur_pd.iloc[:, 1], c=color_map.loc[E_vec, 1].values, **scatter_kwargs)
if label_on_embedding:
for i in color_labels:
color_cnt = np.median(cur_pd.iloc[np.where(E_vec == i)[0], :2], 0)
txt=ax.text(color_cnt[0], color_cnt[1], str(i),
fontsize=13) # , bbox={"facecolor": "w", "alpha": 0.6}
txt.set_path_effects([
PathEffects.Stroke(linewidth=5, foreground="w", alpha=0.1),
PathEffects.Normal()])
if show_quiver:
ax.quiver(X_grid[0], X_grid[1], V_grid[0], V_grid[1], color = 'gray', alpha = 0.7) # , **quiver_kwargs
mass = np.sqrt((V_grid ** 2).sum(0))
if V_threshold is not None:
if V_threshold is not None:
V_grid[0][mass.reshape(V_grid[0].shape) < V_threshold] = np.nan
streamplot_kwargs.update({"linewidth": 4 * mass / mass[~np.isnan(mass)].max()})
ax.streamplot(X_grid[0], X_grid[1], V_grid[0], V_grid[1], **streamplot_kwargs)
ax.axis("off")
plt.show()
def add_mslp_label(ax, proj_ccrs, mslp, lat, lon):
"""
Add mslp low and high label
Args:
ax (matplotlib.axes.Axes): the `Axes` instance used for plotting.
proj_ccrs (cartopy projection): cartopy projection object.
mslp (np.array): numpy array.
lat (np.array): latitude
lon (np.array): longitdue
"""
#Label MSLP extrema
def _extrema(mat, mode='wrap', window=50):
mn = minimum_filter(mat, size=window, mode=mode)
mx = maximum_filter(mat, size=window, mode=mode)
return np.nonzero(mat == mn), np.nonzero(mat == mx)
#Determine an appropriate window given the lat/lon grid resolution
res = lat[1] - lat[0]
nwindow = int(9.5 / res)
mslp = np.ma.masked_invalid(mslp)
local_min, local_max = _extrema(mslp, mode='wrap', window=nwindow)
#Determine axis boundaries
xmin, xmax, ymin, ymax = ax.get_extent()
lons2d, lats2d = np.meshgrid(lon, lat)
transformed = proj_ccrs.transform_points(proj_ccrs, lons2d, lats2d)
x = transformed[..., 0]
y = transformed[..., 1]
#Get location of extrema on grid
xlows = x[local_min]; xhighs = x[local_max]
ylows = y[local_min]; yhighs = y[local_max]
lowvals = mslp[local_min]; highvals = mslp[local_max]
yoffset = 0.022*(ymax-ymin)
dmin = yoffset
#Plot low pressures
xyplotted = []
for x,y,p in zip(xlows, ylows, lowvals):
if x < xmax-yoffset and x > xmin+yoffset and y < ymax-yoffset and y > ymin+yoffset:
dist = [np.sqrt((x-x0)**2+(y-y0)**2) for x0,y0 in xyplotted]
if not dist or min(dist) > dmin: #,fontweight='bold'
a = ax.text(x,y,'L',fontsize=28,
ha='center',va='center',color='r',fontweight='normal')
b = ax.text(x,y-yoffset,repr(int(p)),fontsize=14,
ha='center',va='top',color='r',fontweight='normal')
a.set_path_effects([mpatheffects.Stroke(linewidth=1.5, foreground='black'),
mpatheffects.SimpleLineShadow(),mpatheffects.Normal()])
b.set_path_effects([mpatheffects.Stroke(linewidth=1.0, foreground='black'),
mpatheffects.SimpleLineShadow(),mpatheffects.Normal()])
xyplotted.append((x,y))
#Plot high pressures
xyplotted = []
for x,y,p in zip(xhighs, yhighs, highvals):
if x < xmax-yoffset and x > xmin+yoffset and y < ymax-yoffset and y > ymin+yoffset:
dist = [np.sqrt((x-x0)**2+(y-y0)**2) for x0,y0 in xyplotted]
if not dist or min(dist) > dmin:
a = ax.text(x,y,'H',fontsize=28,
ha='center',va='center',color='b',fontweight='normal')
b = ax.text(x,y-yoffset,repr(int(p)),fontsize=14,
ha='center',va='top',color='b',fontweight='normal')
a.set_path_effects([mpatheffects.Stroke(linewidth=1.5, foreground='black'),
mpatheffects.SimpleLineShadow(),mpatheffects.Normal()])
b.set_path_effects([mpatheffects.Stroke(linewidth=1.0, foreground='black'),
mpatheffects.SimpleLineShadow(),mpatheffects.Normal()])
xyplotted.append((x,y))
def plot_fixed_points(
vecfld,
marker="o",
markersize=200,
cmap=None,
filltype=["full", "top", "none"],
background=None,
save_show_or_return='return',
save_kwargs={},
ax=None,
):
"""Plot fixed points stored in the VectorField2D class.
Arguments
---------
vecfld: :class:`~VectorField2D`
An instance of the VectorField2D class which presumably has fixed points computed and stored.
marker: `str` (default: `o`)
The marker type. Any string supported by matplotlib.markers.
markersize: `float` (default: 200)
The size of the marker.
cmap: string (optional, default 'Blues')
The name of a matplotlib colormap to use for coloring or shading the confidence of fixed points. If None, the
default color map will set to be viridis (inferno) when the background is white (black).
filltype: list
The fill type used for stable, saddle, and unstable fixed points. Default is 'full', 'top' and 'none',
respectively.
background: `str` or None (default: None)
The background color of the plot.
save_show_or_return: {'show', 'save', 'return'} (default: `return`)
Whether to save, show or return the figure.
save_kwargs: `dict` (default: `{}`)
A dictionary that will passed to the save_fig function. By default it is an empty dictionary and the save_fig function
will use the {"path": None, "prefix": 'plot_fixed_points', "dpi": None, "ext": 'pdf', "transparent": True, "close":
True, "verbose": True} as its parameters. Otherwise you can provide a dictionary that properly modify those keys
according to your needs.
ax: :class:`~matplotlib.axes.Axes`
The matplotlib axes used for plotting. Default is to use the current axis.
"""
import matplotlib
from matplotlib import rcParams, markers
import matplotlib.patheffects as PathEffects
from matplotlib.colors import to_hex
if background is None:
_background = rcParams.get("figure.facecolor")
_background = to_hex(
_background) if type(_background) is tuple else _background
else:
_background = background
if _background in ["#ffffff", "black"]:
_theme_ = ("inferno")
else:
_theme_ = ("viridis")
_cmap = _themes[_theme_]["cmap"] if cmap is None else cmap
Xss, ftype = vecfld.get_fixed_points(get_types=True)
confidence = vecfld.get_Xss_confidence()
if ax is None:
ax = plt.gca()
cm = matplotlib.cm.get_cmap(_cmap) if type(_cmap) is str else _cmap
for i in range(len(Xss)):
cur_ftype = ftype[i]
marker_ = markers.MarkerStyle(marker=marker,
fillstyle=filltype[int(cur_ftype + 1)])
ax.scatter(*Xss[i],
marker=marker_,
s=markersize,
c=np.array(cm(confidence[i])).reshape(1, -1),
edgecolor=_select_font_color(_background),
linewidths=1,
cmap=_cmap,
vmin=0,
zorder=5)
txt = ax.text(
*Xss[i],
repr(i),
c=('black'
if cur_ftype == -1 else 'blue' if cur_ftype == 0 else 'red'),
horizontalalignment='center',
verticalalignment='center',
zorder=6,
weight='bold',
)
txt.set_path_effects([
PathEffects.Stroke(linewidth=1.5,
foreground=_background,
alpha=0.8),
PathEffects.Normal(),
])
if save_show_or_return == "save":
s_kwargs = {
"path": None,
"prefix": 'plot_fixed_points',
"dpi": None,
"ext": 'pdf',
"transparent": True,
"close": True,
"verbose": True
}
s_kwargs = update_dict(s_kwargs, save_kwargs)
save_fig(**s_kwargs)
elif save_show_or_return == "show":
plt.tight_layout()
plt.show()
elif save_show_or_return == "return":
return ax
async def ingame_(self, ctx, *, username):
ds_type = utils.DSType(ctx.invoked_with.lower())
dsobj = await ds_type.fetch(ctx, username, name=True)
queries = []
for num in range(29):
table = f"{ds_type.table}{num or ''}"
base = f'SELECT * FROM {table} WHERE ' \
f'{table}.world = $1 AND {table}.id = $2'
queries.append(base)
query = " UNION ALL ".join(queries)
async with self.bot.pool.acquire() as conn:
records = await conn.fetch(query, ctx.server, dsobj.id)
data = [ds_type.Class(rec) for rec in records]
data.reverse()
rows = [
f"**{dsobj.name}** | {ctx.world.show(clean=True)} {ctx.world.icon}"
]
urls = []
for url_type in ["ingame", "guest", "twstats"]:
url = getattr(dsobj, f"{url_type}_url")
urls.append(f"[{url_type.capitalize()}]({url})")
rows.append(" | ".join(urls))
points = f"**Punkte:** `{utils.seperator(dsobj.points)}` | **Rang:** `{dsobj.rank}`"
if hasattr(dsobj, 'tribe_id'):
tribe = await self.bot.fetch_tribe(ctx.server, dsobj.tribe_id)
desc = tribe.mention if tribe else "None"
villages = f"**Stamm:** {desc}"
else:
villages = f"**Mitglieder:** `{dsobj.member}`"
villages += f" | **Dörfer:** `{utils.seperator(dsobj.villages)}`"
rows.extend(["", points, villages, "", "**Besiegte Gegner:**"])
bash_rows = OrderedDict()
for index, stat in enumerate(
['all_bash', 'att_bash', 'def_bash', 'sup_bash']):
if index == 3 and isinstance(dsobj, utils.Tribe):
value = await dsobj.fetch_supbash(ctx)
rank_value = None
else:
value = getattr(dsobj, stat)
rank_stat = f"{stat.split('_')[0]}_rank"
rank_value = getattr(dsobj, rank_stat)
stat_title = self.bot.msg['statTitle'][stat]
represent = f"{stat_title}: `{sep(value)}`"
if rank_value:
represent += f" | Rang: `{rank_value}`"
bash_rows[represent] = value
clean = sorted(bash_rows.items(), key=lambda l: l[1], reverse=True)
rows.extend([line[0] for line in clean])
profile = discord.Embed(description="\n".join(rows))
profile.colour = discord.Color.blue()
image_url = await self.fetch_profile_picture(dsobj)
if image_url is not None:
profile.set_thumbnail(url=image_url)
filled = [0] * (29 - len(data)) + [d.points for d in data]
plot_data = pd.DataFrame({'x_coord': range(29), 'y_coord': filled})
config = {
'color':
'#3498db',
'linewidth':
5,
'path_effects':
[patheffects.SimpleLineShadow(linewidth=8),
patheffects.Normal()]
}
figure = self.create_figure()
if not data:
plt.ylim(top=50, bottom=-3)
figure.plot('x_coord', 'y_coord', data=plot_data, **config)
figure.grid(axis='y', zorder=1, alpha=0.3)
buf = io.BytesIO()
plt.savefig(buf, format='png', dpi=100, transparent=True)
buf.seek(0)
plt.close()
file = discord.File(buf, "example.png")
profile.set_image(url="attachment://example.png")
await ctx.send(embed=profile, file=file)
def plot_predictions(eval_data_dict,
model_registrar,
robot_node,
hyperparams,
device,
dt,
max_speed,
color_dict=None,
num_samples=100,
data_id=2,
t_predict=56,
radius_of_influence=3.0,
node_circle_size=0.3,
focus_on=None,
focus_window_height=6,
line_alpha=0.7,
line_width=0.2,
edge_width=2,
circle_edge_width=0.5,
only_predict=None,
dpi=300,
fig_height=4,
ylim=(0, 50),
xlim=(0, 100),
figsize=None,
tick_fontsize=13,
xlabel='$x$ position (m)',
ylabel='$y$ position (m)',
custom_xticks=None,
custom_yticks=None,
legend_loc=None,
return_frame=False,
return_fig=False,
printing=False,
robot_circle=True,
robot_shift_future=0.0,
robot_shift='x',
add_legend=True,
title=None,
flip_axes=False,
omit_names=False,
axes_labels=True,
rotate_axes_text=0,
save_at=None):
from model.dyn_stg import SpatioTemporalGraphCVAEModel
from utils.scene_utils import create_batch_scene_graph
if color_dict is None:
# This changes colors per run.
color_dict = defaultdict(dict)
if dt is None:
raise ValueError(
'You must supply a time delta, the argument dt cannot be None!')
if figsize is None:
aspect_ratio = float(xlim[1] - xlim[0]) / (ylim[1] - ylim[0])
figsize = (fig_height * aspect_ratio, fig_height)
max_time = eval_data_dict['input_dict'][robot_node][data_id, :].shape[0]
predict_horizon = hyperparams['prediction_horizon']
if t_predict < hyperparams['minimum_history_length']:
raise ValueError('ERROR: t_predict must be >= %d' %
hyperparams['minimum_history_length'])
elif t_predict + predict_horizon >= max_time:
raise ValueError('ERROR: t_predict must be <= %d' %
(max_time - predict_horizon - 1))
###################
### Predictions ###
###################
tic = timeit.default_timer()
tic0 = timeit.default_timer()
hyperparams['state_dim'] = eval_data_dict['input_dict'][robot_node].shape[
2]
hyperparams['pred_dim'] = len(eval_data_dict['pred_indices'])
hyperparams['pred_indices'] = eval_data_dict['pred_indices']
hyperparams['nodes_standardization'] = eval_data_dict[
"nodes_standardization"]
hyperparams["labels_standardization"] = eval_data_dict[
"labels_standardization"]
kwargs_dict = {
'dynamic_edges':
hyperparams['dynamic_edges'],
'edge_state_combine_method':
hyperparams['edge_state_combine_method'],
'edge_influence_combine_method':
hyperparams['edge_influence_combine_method']
}
# Create the aggregate scene_graph for all the data, allowing
# for batching, just like the old one. Then, for speed tests
# we'll show how much faster this method is than keeping the
# full version. Can show graphs of forward inference time vs problem size
# with two lines (using aggregate graph, using online-computed graph).
input_dict = {
k: v[[data_id]]
for k, v in eval_data_dict['input_dict'].items()
}
label_dict = {k: v[[data_id]] for k, v in eval_data_dict['labels'].items()}
robot_future = eval_data_dict['input_dict'][robot_node][[data_id],
t_predict +
1:t_predict +
predict_horizon +
1]
if robot_shift_future != 0.0:
idx = 4 if robot_shift == 'x' else 5
print('Shifting %s by %.2f!' % (robot_shift, robot_shift_future))
robot_future[..., idx] += robot_shift_future
robot_future[..., idx - 2] = cumtrapz(
robot_future[..., idx], axis=1, initial=0,
dx=dt) + robot_future[0, 0, idx - 2]
robot_future[..., idx - 4] = cumtrapz(
robot_future[..., idx - 2], axis=1, initial=0,
dx=dt) + robot_future[0, 0, idx - 4]
with torch.no_grad():
test_stg = SpatioTemporalGraphCVAEModel(robot_node, model_registrar,
hyperparams, kwargs_dict, None,
device)
test_agg_scene_graph = create_batch_scene_graph(
input_dict,
float(hyperparams['edge_radius']),
use_old_method=(hyperparams['dynamic_edges'] == 'no'))
if hyperparams['dynamic_edges'] == 'yes':
test_agg_scene_graph.compute_edge_scaling(
hyperparams['edge_addition_filter'],
hyperparams['edge_removal_filter'])
test_stg.set_scene_graph(test_agg_scene_graph)
test_inputs = {
k: torch.from_numpy(v).float()
for k, v in input_dict.items() if v.size > 0
}
test_labels = {
k: torch.from_numpy(v).float()
for k, v in label_dict.items()
}
test_inputs[str(robot_node) +
"_future"] = torch.from_numpy(robot_future).float()
test_inputs['traj_lengths'] = torch.tensor([t_predict])
if hyperparams['dynamic_edges'] == 'yes':
test_inputs['edge_scaling_mask'] = torch.from_numpy(
test_agg_scene_graph.edge_scaling_mask).float()
toc0 = timeit.default_timer()
if printing:
print("constructing feed_dict took: ", toc0 - tic0,
" (s), running pytorch!")
tic0 = timeit.default_timer()
outputs = test_stg.predict(test_inputs,
hyperparams['prediction_horizon'],
num_samples)
toc0 = timeit.default_timer()
outputs = {k: v.cpu().numpy() for k, v in outputs.items()}
if printing:
print("done running pytorch!, took (s): ", toc0 - tic0)
toc = timeit.default_timer()
if printing:
print("total time taken (s): ", toc - tic)
########################
### Data Preparation ###
########################
prefixes_dict = dict()
futures_dict = dict()
nodes = test_agg_scene_graph.nodes
prefix_earliest_idx = max(0, t_predict - predict_horizon)
for node in nodes:
if robot_node == node:
continue
node_data = input_dict[node]
if printing:
print('node', node)
print('node_data.shape', node_data.shape)
prefixes_dict[node] = node_data[[0], prefix_earliest_idx:t_predict + 1,
0:2]
futures_dict[node] = node_data[[0], t_predict + 1:t_predict +
predict_horizon + 1]
if printing:
print('node', node)
print('prefixes_dict[node].shape', prefixes_dict[node].shape)
print('futures_dict[node].shape', futures_dict[node].shape)
# 44.72 km/h = 40.76 ft/s (ie. that's the max value that a coordinate can be)
output_pos = dict()
sampled_zs = dict()
for node in nodes:
if robot_node == node:
continue
key = str(node) + '/y'
z_key = str(node) + '/z'
output_pos[node] = integrate_trajectory(outputs[key], [0, 1],
futures_dict[node][0, 0],
[0, 1],
dt,
output_limit=max_speed,
velocity_in=True)
sampled_zs[node] = outputs[z_key]
if printing:
print('prefixes_dict[node].shape', prefixes_dict[node].shape)
print('futures_dict[node].shape', futures_dict[node].shape)
print('output_pos[node].shape', output_pos[node].shape)
print('sampled_zs[node].shape', sampled_zs[node].shape)
######################
### Visualizations ###
######################
fig, ax = plt.subplots(figsize=figsize)
not_added_prefix = True
not_added_future = True
not_added_samples = True
for node_name in prefixes_dict:
if focus_on is not None and node_name != focus_on:
continue
prefix = prefixes_dict[node_name][0]
future = futures_dict[node_name][0]
predictions = output_pos[node_name][:, 0]
z_values = sampled_zs[node_name][:, 0]
prefix_all_zeros = not np.any(prefix)
future_all_zeros = not np.any(future)
if prefix_all_zeros and future_all_zeros:
continue
if not (xlim[0] <= prefix[-1, 0] <=
xlim[1]) or not (ylim[0] <= prefix[-1, 1] <= ylim[1]):
continue
if np.any([prefix[-1, 0], prefix[-1, 1]]):
# Prefix trails
prefix_start_idx = first_nonzero(np.sum(prefix, axis=1),
axis=0,
invalid_val=-1)
if not_added_prefix:
ax.plot(prefix[prefix_start_idx:, 0],
prefix[prefix_start_idx:, 1],
'k--',
label='History')
not_added_prefix = False
else:
ax.plot(prefix[prefix_start_idx:, 0], prefix[prefix_start_idx:,
1], 'k--')
# Predicted trails
if only_predict is None or (only_predict is not None
and node_name == only_predict):
if not_added_samples:
# plt.plot([] , [], 'r', label='Sampled Futures')
not_added_samples = False
for sample_num in range(output_pos[node_name].shape[0]):
z_value = tuple(z_values[sample_num])
if z_value not in color_dict[node_name]:
color_dict[node_name][
z_value] = "#%06x" % random.randint(0, 0xFFFFFF)
ax.plot(predictions[sample_num, :, 0],
predictions[sample_num, :, 1],
color=color_dict[node_name][z_value],
linewidth=line_width,
alpha=line_alpha)
# Future trails
future_start_idx = first_nonzero(np.sum(future, axis=1),
axis=0,
invalid_val=-1)
future_end_idx = future.shape[0] - first_nonzero(
np.sum(future, axis=1)[::-1], axis=0, invalid_val=-1)
if not_added_future:
ax.plot(future[future_start_idx:future_end_idx, 0],
future[future_start_idx:future_end_idx, 1],
'w--',
path_effects=[
pe.Stroke(linewidth=edge_width, foreground='k'),
pe.Normal()
],
label='Actual Future')
not_added_future = False
else:
ax.plot(future[future_start_idx:future_end_idx, 0],
future[future_start_idx:future_end_idx, 1],
'w--',
path_effects=[
pe.Stroke(linewidth=edge_width, foreground='k'),
pe.Normal()
])
# Current Node Position
circle = plt.Circle(
(prefix[-1, 0], prefix[-1, 1]),
node_circle_size,
facecolor='b' if 'Home' in node_name.type else 'g',
edgecolor='k',
lw=circle_edge_width,
zorder=3)
ax.add_artist(circle)
# if focus_on:
# ax.set_title(node_name)
# else:
# ax.text(prefix[-1, 0] + 0.4, prefix[-1, 1], node_name, zorder=4)
if not omit_names:
ax.text(prefix[-1, 0] + 0.4,
prefix[-1, 1],
node_name,
zorder=4)
# Robot Node
if focus_on is None:
prefix_earliest_idx = max(0, t_predict - predict_horizon)
robot_prefix = eval_data_dict['input_dict'][robot_node][
data_id, prefix_earliest_idx:t_predict + 1, 0:2]
prefix_start_idx = first_nonzero(np.sum(robot_prefix, axis=1),
axis=0,
invalid_val=-1)
# robot_future = eval_data_dict[robot_node][data_id, t_predict + 1 : t_predict + predict_horizon + 1, 0:2]
robot_future = robot_future[0, :, 0:2].copy()
prefix_all_zeros = not np.any(robot_prefix)
future_all_zeros = not np.any(robot_future)
if not (prefix_all_zeros and future_all_zeros) and (
(xlim[0] <= robot_prefix[-1, 0] <= xlim[1]) and
(ylim[0] <= robot_prefix[-1, 1] <= ylim[1])):
ax.plot(robot_prefix[prefix_start_idx:, 0],
robot_prefix[prefix_start_idx:, 1], 'k--')
ax.plot(robot_future[:, 0],
robot_future[:, 1],
'w--',
path_effects=[
pe.Stroke(linewidth=edge_width, foreground='k'),
pe.Normal()
])
circle = plt.Circle(
(robot_prefix[-1, 0], robot_prefix[-1, 1]),
node_circle_size,
facecolor='b' if 'Home' in robot_node.type else 'g',
edgecolor='k',
lw=circle_edge_width,
zorder=3)
ax.add_artist(circle)
# Radius of influence
if robot_circle:
circle = plt.Circle((robot_prefix[-1, 0], robot_prefix[-1, 1]),
radius_of_influence,
fill=False,
color='r',
linestyle='--',
zorder=3)
ax.plot([], [], 'r--', label='Edge Radius')
ax.add_artist(circle)
if not omit_names:
ax.text(robot_prefix[-1, 0] + 0.4,
robot_prefix[-1, 1],
robot_node,
zorder=4)
if focus_on is None:
ax.set_ylim(ylim)
ax.set_xlim(xlim)
else:
y_radius = focus_window_height
x_radius = aspect_ratio * y_radius
ax.set_ylim((prefix[-1, 1] - y_radius, prefix[-1, 1] + y_radius))
ax.set_xlim((prefix[-1, 0] - x_radius, prefix[-1, 0] + x_radius))
if add_legend:
if legend_loc is not None:
leg = ax.legend(loc=legend_loc, handlelength=4)
else:
leg = ax.legend(loc='best', handlelength=4)
for line in leg.get_lines():
line.set_linewidth(2.25)
for text in leg.get_texts():
text.set_fontsize(14)
if title is not None:
ax.set_title(title)
if axes_labels:
ax.set_xlabel(xlabel, fontsize=tick_fontsize)
ax.set_ylabel(ylabel, fontsize=tick_fontsize)
if rotate_axes_text != 0:
if custom_xticks is not None:
plt.xticks(custom_xticks,
rotation=rotate_axes_text,
fontsize=tick_fontsize)
else:
plt.xticks(rotation=rotate_axes_text, fontsize=tick_fontsize)
if custom_yticks is not None:
plt.yticks(custom_yticks,
rotation=rotate_axes_text,
fontsize=tick_fontsize)
else:
plt.yticks(rotation=rotate_axes_text, fontsize=tick_fontsize)
else:
if custom_xticks is not None:
plt.xticks(custom_xticks, fontsize=tick_fontsize)
else:
plt.xticks(fontsize=tick_fontsize)
if custom_yticks is not None:
plt.yticks(custom_yticks, fontsize=tick_fontsize)
else:
plt.yticks(fontsize=tick_fontsize)
fig.tight_layout()
if return_fig:
return fig
if return_frame:
buffer_ = StringIO()
plt.savefig(buffer_, format="png", transparent=True, dpi=dpi)
buffer_.seek(0)
data = np.asarray(Image.open(buffer_))
plt.close(fig)
return data
if save_at is not None:
plt.savefig(save_at, dpi=300, transparent=True)
plt.show()
plt.close(fig)
def create_figure(self,
frameno=0,
binning=1,
dpi=None,
stretch='log',
vmin=1,
vmax=5000,
cmap='gray',
data_col='FLUX',
annotate=True,
time_format='ut',
show_flags=False,
label=None):
"""Returns a matplotlib Figure object that visualizes a frame.
Parameters
----------
frameno : int
Image number in the target pixel file.
binning : int
Number of frames around `frameno` to co-add. (default: 1).
dpi : float, optional [dots per inch]
Resolution of the output in dots per Kepler CCD pixel.
By default the dpi is chosen such that the image is 440px wide.
vmin : float, optional
Minimum cut level (default: 1).
vmax : float, optional
Maximum cut level (default: 5000).
cmap : str, optional
The matplotlib color map name. The default is 'gray',
can also be e.g. 'gist_heat'.
raw : boolean, optional
If `True`, show the raw pixel counts rather than
the calibrated flux. Default: `False`.
annotate : boolean, optional
Annotate the Figure with a timestamp and target name?
(Default: `True`.)
show_flags : boolean, optional
Show the quality flags?
(Default: `False`.)
label : str
Label text to show in the bottom left corner of the movie.
Returns
-------
image : array
An array of unisgned integers of shape (x, y, 3),
representing an RBG colour image x px wide and y px high.
"""
# Get the flux data to visualize
flx = self.flux_binned(frameno=frameno,
binning=binning,
data_col=data_col)
# Determine the figsize and dpi
shape = list(flx.shape)
shape = [shape[1], shape[0]]
if dpi is None:
# Twitter timeline requires dimensions between 440x220 and 1024x512
# so we make 440 the default
dpi = 440 / float(shape[0])
# libx264 require the height to be divisible by 2, we ensure this here:
shape[0] -= ((shape[0] * dpi) % 2) / dpi
# Create the figureand display the flux image using matshow
fig = pl.figure(figsize=shape, dpi=dpi)
# Display the image using matshow
ax = fig.add_subplot(1, 1, 1)
if self.verbose:
print('{} vmin/vmax = {}/{} (median={})'.format(
data_col, vmin, vmax, np.nanmedian(flx)))
if stretch == 'linear':
stretch_fn = visualization.LinearStretch()
elif stretch == 'sqrt':
stretch_fn = visualization.SqrtStretch()
elif stretch == 'power':
stretch_fn = visualization.PowerStretch(1.0)
elif stretch == 'log':
stretch_fn = visualization.LogStretch()
elif stretch == 'asinh':
stretch_fn = visualization.AsinhStretch(0.1)
else:
raise ValueError('Unknown stretch: {0}.'.format(stretch))
transform = (stretch_fn +
visualization.ManualInterval(vmin=vmin, vmax=vmax))
flx_transform = 255 * transform(flx)
# Make sure to remove all NaNs!
flx_transform[~np.isfinite(flx_transform)] = 0
ax.imshow(flx_transform.astype(int),
aspect='auto',
origin='lower',
interpolation='nearest',
cmap=cmap,
norm=NoNorm())
if annotate: # Annotate the frame with a timestamp and target name?
fontsize = 3. * shape[0]
margin = 0.03
# Print target name in lower left corner
if label is None:
label = self.objectname
txt = ax.text(margin,
margin,
label,
family="monospace",
fontsize=fontsize,
color='white',
transform=ax.transAxes)
txt.set_path_effects([
path_effects.Stroke(linewidth=fontsize / 6.,
foreground='black'),
path_effects.Normal()
])
# Print a timestring in the lower right corner
txt2 = ax.text(1 - margin,
margin,
self.timestamp(frameno, time_format=time_format),
family="monospace",
fontsize=fontsize,
color='white',
ha='right',
transform=ax.transAxes)
txt2.set_path_effects([
path_effects.Stroke(linewidth=fontsize / 6.,
foreground='black'),
path_effects.Normal()
])
# Print quality flags in upper right corner
if show_flags:
flags = self.quality_flags(frameno)
if len(flags) > 0:
txt3 = ax.text(margin,
1 - margin,
'\n'.join(flags),
family="monospace",
fontsize=fontsize * 1.3,
color='white',
ha='left',
va='top',
transform=ax.transAxes,
linespacing=1.5,
backgroundcolor='red')
txt3.set_path_effects([
path_effects.Stroke(linewidth=fontsize / 6.,
foreground='black'),
path_effects.Normal()
])
ax.set_xticks([])
ax.set_yticks([])
ax.axis('off')
fig.subplots_adjust(left=0.0, right=1.0, top=1.0, bottom=0.0)
fig.canvas.draw()
return fig
def plot_predictions_during_training(test_stg,
inputs,
num_predicted_timesteps,
num_samples,
dt,
max_speed,
color_dict=None,
data_id=None,
t_predict=56,
focus_on=None,
node_circle_size=0.3,
focus_window_height=6,
line_alpha=0.7,
line_width=0.2,
edge_width=2,
circle_edge_width=0.5,
only_predict=None,
dpi=300,
fig_height=4,
return_frame=False,
return_fig=True,
printing=False,
robot_circle=True,
add_legend=True,
title=None,
flip_axes=False,
omit_names=False,
axes_labels=True,
rotate_axes_text=0,
save_at=None):
if color_dict is None:
# This changes colors per run.
color_dict = defaultdict(dict)
if dt is None:
raise ValueError(
'You must supply a time delta, the argument dt cannot be None!')
robot_node = test_stg.robot_node
figsize = (5, 5)
traj_lengths = inputs['traj_lengths'].cpu().numpy().astype(int)
predict_horizon = num_predicted_timesteps
if data_id is None:
data_id = np.random.choice([
idx for idx, traj_len in enumerate(traj_lengths)
if t_predict + predict_horizon < traj_len
])
max_time = inputs[robot_node][data_id, :].shape[0]
traj_length = traj_lengths[data_id]
if t_predict < test_stg.hyperparams['minimum_history_length']:
raise ValueError('ERROR: t_predict must be >= %d' %
test_stg.hyperparams['minimum_history_length'])
elif t_predict + predict_horizon >= traj_length:
raise ValueError('ERROR: t_predict must be <= %d' %
(traj_length - predict_horizon - 1))
###################
### Predictions ###
###################
inputs = {k: v[[data_id]] for k, v in inputs.items()}
robot_future = inputs[robot_node][[0], t_predict + 1:t_predict +
predict_horizon + 1]
inputs[str(robot_node) + "_future"] = robot_future
inputs['traj_lengths'] = torch.tensor([t_predict])
with torch.no_grad():
tic0 = timeit.default_timer()
outputs = test_stg.predict(inputs, num_predicted_timesteps,
num_samples)
toc0 = timeit.default_timer()
outputs = {k: v.cpu().numpy() for k, v in outputs.items()}
if printing:
print("done running pytorch!, took (s): ", toc0 - tic0)
########################
### Data Preparation ###
########################
prefixes_dict = dict()
futures_dict = dict()
nodes = list(test_stg.nodes)
prefix_earliest_idx = max(0, t_predict - predict_horizon)
for node in nodes:
if robot_node == node:
continue
node_data = inputs[node].cpu().numpy()
if printing:
print('node', node)
print('node_data.shape', node_data.shape)
prefixes_dict[node] = node_data[[0], prefix_earliest_idx:t_predict + 1,
0:2]
futures_dict[node] = node_data[[0], t_predict +
1:min(t_predict + predict_horizon +
1, traj_length)]
if printing:
print('node', node)
print('prefixes_dict[node].shape', prefixes_dict[node].shape)
print('futures_dict[node].shape', futures_dict[node].shape)
# 44.72 km/h = 40.76 ft/s (ie. that's the max value that a coordinate can be)
output_pos = dict()
sampled_zs = dict()
for node in nodes:
if robot_node == node:
continue
key = str(node) + '/y'
z_key = str(node) + '/z'
output_pos[node] = integrate_trajectory(outputs[key], [0, 1],
futures_dict[node][0, 0],
[0, 1],
dt,
output_limit=max_speed,
velocity_in=True)
sampled_zs[node] = outputs[z_key]
if printing:
print('prefixes_dict[node].shape', prefixes_dict[node].shape)
print('futures_dict[node].shape', futures_dict[node].shape)
print('output_pos[node].shape', output_pos[node].shape)
print('sampled_zs[node].shape', sampled_zs[node].shape)
######################
### Visualizations ###
######################
fig, ax = plt.subplots(figsize=figsize)
not_added_prefix = True
not_added_future = True
not_added_samples = True
for node_name in prefixes_dict:
if focus_on is not None and node_name != focus_on:
continue
prefix = prefixes_dict[node_name][0]
future = futures_dict[node_name][0]
predictions = output_pos[node_name][:, 0]
z_values = sampled_zs[node_name][:, 0]
prefix_all_zeros = not np.any(prefix)
future_all_zeros = not np.any(future)
if prefix_all_zeros and future_all_zeros:
continue
if np.any([prefix[-1, 0], prefix[-1, 1]]):
# Prefix trails
prefix_start_idx = first_nonzero(np.sum(prefix, axis=1),
axis=0,
invalid_val=-1)
if not_added_prefix:
ax.plot(prefix[prefix_start_idx:, 0],
prefix[prefix_start_idx:, 1],
'k--',
label='History')
not_added_prefix = False
else:
ax.plot(prefix[prefix_start_idx:, 0], prefix[prefix_start_idx:,
1], 'k--')
# Predicted trails
if only_predict is None or (only_predict is not None
and node_name == only_predict):
if not_added_samples:
# plt.plot([] , [], 'r', label='Sampled Futures')
not_added_samples = False
for sample_num in range(output_pos[node_name].shape[0]):
z_value = tuple(z_values[sample_num])
if z_value not in color_dict[node_name]:
color_dict[node_name][
z_value] = "#%06x" % random.randint(0, 0xFFFFFF)
ax.plot(predictions[sample_num, :, 0],
predictions[sample_num, :, 1],
color=color_dict[node_name][z_value],
linewidth=line_width,
alpha=line_alpha)
# Future trails
future_start_idx = first_nonzero(np.sum(future, axis=1),
axis=0,
invalid_val=-1)
future_end_idx = future.shape[0] - first_nonzero(
np.sum(future, axis=1)[::-1], axis=0, invalid_val=-1)
if not_added_future:
ax.plot(future[future_start_idx:future_end_idx, 0],
future[future_start_idx:future_end_idx, 1],
'w--',
path_effects=[
pe.Stroke(linewidth=edge_width, foreground='k'),
pe.Normal()
],
label='Actual Future')
not_added_future = False
else:
ax.plot(future[future_start_idx:future_end_idx, 0],
future[future_start_idx:future_end_idx, 1],
'w--',
path_effects=[
pe.Stroke(linewidth=edge_width, foreground='k'),
pe.Normal()
])
# Current Node Position
circle = plt.Circle(
(prefix[-1, 0], prefix[-1, 1]),
node_circle_size,
facecolor='b' if 'Home' in node_name.type else 'g',
edgecolor='k',
lw=circle_edge_width,
zorder=3)
ax.add_artist(circle)
# if focus_on:
# ax.set_title(node_name)
# else:
# ax.text(prefix[-1, 0] + 0.4, prefix[-1, 1], node_name, zorder=4)
if not omit_names:
ax.text(prefix[-1, 0] + 0.4,
prefix[-1, 1],
node_name,
zorder=4)
# Robot Node
if focus_on is None:
prefix_earliest_idx = max(0, t_predict - predict_horizon)
robot_prefix = inputs[robot_node][0, prefix_earliest_idx:t_predict + 1,
0:2].cpu().numpy()
robot_future = inputs[robot_node][
0, t_predict + 1:min(t_predict + predict_horizon + 1, traj_length),
0:2].cpu().numpy()
prefix_all_zeros = not np.any(robot_prefix)
future_all_zeros = not np.any(robot_future)
if not (prefix_all_zeros and future_all_zeros):
ax.plot(robot_prefix[:, 0], robot_prefix[:, 1], 'k--')
ax.plot(robot_future[:, 0],
robot_future[:, 1],
'w--',
path_effects=[
pe.Stroke(linewidth=edge_width, foreground='k'),
pe.Normal()
])
circle = plt.Circle(
(robot_prefix[-1, 0], robot_prefix[-1, 1]),
node_circle_size,
facecolor='b' if 'Home' in robot_node.type else 'g',
edgecolor='k',
lw=circle_edge_width,
zorder=3)
ax.add_artist(circle)
# Radius of influence
if robot_circle:
circle = plt.Circle((robot_prefix[-1, 0], robot_prefix[-1, 1]),
test_stg.hyperparams['edge_radius'],
fill=False,
color='r',
linestyle='--',
zorder=3)
ax.plot([], [], 'r--', label='Edge Radius')
ax.add_artist(circle)
if not omit_names:
ax.text(robot_prefix[-1, 0] + 0.4,
robot_prefix[-1, 1],
robot_node,
zorder=4)
if focus_on is not None:
y_radius = focus_window_height
x_radius = aspect_ratio * y_radius
ax.set_ylim((prefix[-1, 1] - y_radius, prefix[-1, 1] + y_radius))
ax.set_xlim((prefix[-1, 0] - x_radius, prefix[-1, 0] + x_radius))
if add_legend:
ax.legend(loc='best')
if title is not None:
ax.set_title(title)
string_splitter = ' '
if omit_names:
string_splitter = '\n'
if axes_labels:
ax.set_xlabel('Longitudinal Court Position ($l$)')
ax.set_ylabel('Lateral Court%sPosition ($w$)' % string_splitter)
if rotate_axes_text != 0:
plt.xticks(rotation=rotate_axes_text)
plt.yticks(rotation=rotate_axes_text)
fig.tight_layout()
if return_fig:
return fig
if return_frame:
buffer_ = StringIO()
plt.savefig(buffer_, format="png", transparent=True, dpi=dpi)
buffer_.seek(0)
data = np.asarray(Image.open(buffer_))
plt.close(fig)
return data
if save_at is not None:
plt.savefig(save_at, dpi=300, transparent=True)
plt.show()
plt.close(fig)
def plot_spectrum_heatmap(self,
plot_spec1=True,
frange=[],
title="Audio Comparison",
cmap="plasma",
background_color="white",
background_alpha=0.5):
"""
Plots a heatmap and spectrogram showing the relative hot and cool spots of thw two compared AudioAnalyzer class instances.
A number of options are available to customize the appearance of the generated plot.
"""
# DATAFRAME SETUP
if plot_spec1:
df = self.original_df
else:
df = self.modified_df
df['ratio_amplitude'] = self.ratio_df.scaled_amplitude
df['attenuated_scaled'] = df.scaled_amplitude
df['boosted_scaled'] = df.scaled_amplitude
if len(frange):
plot_df = df.loc[(df.bins >= frange[0] / 1000)
& (df.bins <= frange[1] / 1000)]
ratio_df = self.ratio_df.loc[
(self.ratio_df.bins >= frange[0] / 1000)
& (self.ratio_df.bins <= frange[1] / 1000)]
else:
plot_df = df
ratio_df = self.ratio_df
# FIGURE SETUP
fig = plt.figure(figsize=(20, 10))
ax1 = fig.add_subplot(211, facecolor="white")
# ax1 = plt.subplot2grid((8,1), (0,0), rowspan=5, facecolor="white", fig=fig)
ax2 = fig.add_subplot(211, facecolor="#00000000")
# ax2 = plt.subplot2grid((8,1), (0,0), rowspan=2, facecolor="#00000000", fig=fig)
# fig2 = plt.figure(figsize=(32, 8))
# cbaxes = fig2.add_subplot(32,1,1)
cbaxes = plt.subplot2grid((16, 1), (10, 0))
cbaxes.set_title("Scaled Amplitude Ratio", size=14)
# HEATMAP PLOT
sns.heatmap(data=ratio_df.set_index('bins').transpose(),
cbar=True,
cbar_ax=cbaxes,
cbar_kws={"orientation": "horizontal"},
cmap=cmap,
alpha=0.95,
zorder=1,
ax=ax1,
vmin=0.0,
vmax=1.0)
ax1.set_xlabel("")
ax1.set_xticks([])
ax1.set_ylabel("")
ax1.set_yticks([])
# FREQUENCY PLOT
sns.lineplot(data=plot_df,
x="bins",
y="scaled_amplitude",
color='black',
zorder=10,
ax=ax2,
path_effects=[
path_effects.SimpleLineShadow(),
path_effects.Normal()
])
ax2.fill_between(x=plot_df.bins,
y1=plot_df.scaled_amplitude,
color='white',
alpha=0.0)
ax2.fill_between(x=plot_df.bins,
y1=plot_df.scaled_amplitude,
y2=1.0,
color=background_color,
alpha=background_alpha)
ax2.set_xlabel("Frequency (kHz)", size=28)
ax2.set_ylabel("Scaled Amplitude", size=28)
ax2.margins(0)
fig.suptitle(title, size=36, y=0.95)
def solar_corr(data,
labels,
center,
ax=False,
moon_orbit=0.25,
base_circle_size=50,
calc_corr=True,
orbits=10,
show_window=True,
image_path="solar.png",
save_png=True,
title="Solar Correlation Map",
selected=[],
show_labels=True):
labels = np.array(labels)
center_idx, center_idx_bool = label_to_idx(labels, center)
plot_idx = 23
all_idx = np.logical_not(center_idx_bool)
positive = transform_to_positive_corrs(
data, center_idx) if calc_corr else transform_to_positive(
data, center_idx)
corr_dist = transform_to_correlation_dist(data) if calc_corr else data
sun_corr_dist = corr_dist[center_idx]
colors = np.linspace(0, 1, num=len(sun_corr_dist))
cordinate_to_correlation = {}
step = 1.0 / orbits
last_orbit = 0.1
fig = plt.gcf()
if not ax:
fig.set_size_inches(20, 20)
labels_idx = np.array([center_idx])
# matplotlib.rcParams.update({'font.size': 14})
all_labels = []
all_circles = []
color_map = plt.get_cmap("Paired")
color_map_circle = plt.get_cmap("Greys", 10)
color_map_tab10 = plt.get_cmap("tab20")
if not ax:
ax = fig.add_subplot(111)
ax.xaxis.set_visible(False)
ax.yaxis.set_visible(False)
if not ax:
ax.set_position([0.01, 0.01, 0.98, 0.98]) # set a new position
# place sun:
all_circles.append(
ax.scatter(0,
0,
color=color_map_circle(7),
s=base_circle_size * 2,
label=labels[center_idx],
zorder=zorder_planet))
# ax.text(0, 0.25, str(labels[center_idx]), verticalalignment="center", horizontalalignment='center', color=color_map_circle(7), zorder=zorder_label)
last_orbit_had_values = False
min_orbit = 0
for orbit in range(1, orbits + 1):
new_orbit = step * orbit + 0.1
idx = (sun_corr_dist >= (1 - last_orbit)) & (sun_corr_dist >
(1 - new_orbit)) & all_idx
idx_int = np.where(idx)[0]
last_orbit = new_orbit
if (sum(idx) == 0 and not last_orbit_had_values):
min_orbit = orbit
continue
else:
last_orbit_had_values = True
orbit = orbit - min_orbit
corr_dists = []
for index in idx_int:
corr_dists = np.append(corr_dists, corr_dist[center_idx][index])
sort_args = np.argsort(corr_dists)
idx_int = idx_int[sort_args]
labels_idx = np.append(labels_idx, idx_int)
planets = sum(idx)
angles = get_angles(orbit, planets, ax, True)
print(orbit)
print(angles)
print("IDX: " + str(sum(idx)) + " current orbit " + str(new_orbit) +
" " + "last orbit: " + str(last_orbit))
last_idx = -1
# place planets
while np.any(idx):
idx_int = np.where(idx)[0]
remaining = sum(idx)
# current_planet = planets - remaining
current_planet = 0
print(current_planet)
# breakpoint()
current_idx = idx_int[current_planet]
angle = angles[planets - remaining]
x = get_x(angle, orbit)
y = get_y(angle, orbit)
# current_idx = idx_int[current_planet]
color = colors[current_idx]
# plt.scatter(x, y, color=color_map(color), s=100, label=labels[current_idx])
cordinate_to_correlation[(x, y)] = {
"is_planet": True,
"corr_sun": corr_dist[center_idx, current_idx]
}
planet_idx = current_idx
planet_corr = corr_dist[planet_idx]
# ax.text(x-0.35, y+0.2, "{0:.3f}".format(planet_corr[center_idx]))
col = "#03C03C" if positive[planet_idx] else "#FF6961"
if orbit == orbits:
col = "grey"
# ax.text(x + 0.15, y + 0.15, str(labels[planet_idx]), verticalalignment="bottom", horizontalalignment='left',
# color=col, fontsize='small')
moon_idx = (planet_corr >= 0.65) & idx
moon_idx_int = np.where(moon_idx)[0]
moons = sum(moon_idx)
moon_angles = get_angles(0, moons, ax, False)
# add orbit around planet if it has moons
if moons > 1:
circle = plt.Circle((x, y),
moon_orbit,
color='lightgrey',
alpha=0.8,
fill=True,
zorder=zorder_moonorbit)
ax.add_artist(circle)
all_circles.append(circle)
else:
pointcol = color_map_tab10(
2) if labels[planet_idx] in selected else color_map_tab10(
0)
labelcol = color_map_tab10(
2) if labels[planet_idx] in selected else color_map_tab10(
0)
idx[planet_idx] = False
all_idx[planet_idx] = False
all_circles.append(
ax.scatter(x,
y,
color=pointcol,
s=base_circle_size,
label=labels[current_idx],
zorder=zorder_planet))
# all_labels.append(ax.text(x + 0.15 if x > 0 else x - 0.15, y + 0.15 if y > 0 else y - 0.15, str(labels[planet_idx]), verticalalignment="center", horizontalalignment='right' if x < 0 else 'left',
# color=col, fontsize='small'))
if show_labels:
all_labels.append(
ax.text(x,
y,
str(labels[planet_idx]),
verticalalignment="center",
horizontalalignment='right',
color=labelcol,
zorder=zorder_label,
path_effects=[
path_effects.Stroke(linewidth=3,
foreground='white'),
path_effects.Normal()
]))
continue
if (current_idx != last_idx):
print(labels[planet_idx])
print("Drawing Moons " + str(current_idx) + " moons " +
str(sum(moon_idx)))
last_idx = current_idx
while np.any(moon_idx):
remaining_moons = sum(moon_idx)
current_moon = moons - remaining_moons
current_moon_idx = moon_idx_int[current_moon]
angle = moon_angles[current_moon]
m_x = get_x(angle, moon_orbit) + x
m_y = get_y(angle, moon_orbit) + y
pointcol = color_map_tab10(2) if labels[
current_moon_idx] in selected else color_map_tab10(0)
labelcol = color_map_tab10(
2) if labels[planet_idx] in selected else color_map_tab10(
0)
all_circles.append(
ax.scatter(m_x,
m_y,
color=pointcol,
s=base_circle_size,
label=labels[current_moon_idx],
zorder=zorder_planet))
cordinate_to_correlation[(m_x, m_y)] = {
"is_planet": False,
"corr_sun": corr_dist[center_idx][current_moon_idx]
}
col = "#03C03C" if positive[current_moon_idx] else "#FF6961"
if orbit == orbits:
col = "grey"
#all_labels.append(ax.text(m_x + 0.1 if m_x > x else m_x - 0.1, m_y + 0.1 if m_y > y else m_y - 0.1, str(labels[current_moon_idx]), verticalalignment="center",
# horizontalalignment='right' if m_x < x else 'left', fontsize='small', color=col))
if show_labels:
all_labels.append(
ax.text(
m_x,
m_y,
str(labels[current_moon_idx]),
verticalalignment="center",
horizontalalignment='right' if m_x < x else 'left',
color=labelcol,
zorder=zorder_label,
path_effects=[
path_effects.Stroke(linewidth=3,
foreground='white'),
path_effects.Normal()
]))
moon_idx[current_moon_idx] = False
idx[current_moon_idx] = False
all_idx[current_moon_idx] = False
# last_orbit = new_orbit
print("Drawing circle")
circlecol = color_map_circle((1 - ((orbit - 1) * step)) / 2)
circle = plt.Circle((0, 0),
orbit,
color=circlecol,
fill=False,
zorder=zorder_orbit)
ax.add_artist(circle)
if 1 - float(orbit + min_orbit) / 10 > 0:
orbit_t = ax.text(0,
-orbit + 0.1,
"{0:.1f}".format(1 -
float(orbit + min_orbit) / 10),
verticalalignment="bottom",
horizontalalignment="center",
color=circlecol,
zorder=zorder_orbit)
all_circles.append(orbit_t)
labels_pos = np.array(labels)[labels_idx]
recs = []
# ax = plt.gca()
if not ax:
ax.axis("equal")
# ax.margins(x=-0.3, y=-0.3)
# ax.axis([-5, 5, -5, 5])
# plt.axis([-10, 10, -10, 10])
legend_elements = [
Line2D([0], [0],
linestyle='none',
marker='o',
color=color_map_tab10(0),
label='candidate',
markersize=10),
Line2D([0], [0],
linestyle='none',
marker='o',
color=color_map_circle(7),
label='document',
markersize=10)
]
if len(selected) > 0:
legend_elements.append(
Line2D([0], [0],
linestyle='none',
marker='o',
color=color_map_tab10(2),
label='selected candidate',
markersize=10))
ax.legend(handles=legend_elements, loc='upper left').set_zorder(102)
# plt.subplots_adjust(top=0.95)
if save_png:
plt.savefig(image_path)
if show_window:
# only require mplcursors if we need an interactive plot
# import mplcursors
# cooordinate_to_correlation[(sel.target.x, sel.target.y)]["corr_sun"])
# cursors = mplcursors.cursor(hover=True)
# @cursors.connect("add")
def _(sel):
sel.annotation.set(position=(15, -15))
# Note: Needs to be set separately due to matplotlib/matplotlib#8956.
sel.annotation.get_bbox_patch().set(fc="lightgrey")
sel.annotation.arrow_patch.set(arrowstyle="simple",
fc="white",
alpha=0)
sel.annotation.set_text("Correlation to sun \n{}".format(
cordinate_to_correlation[(sel.target[0],
sel.target[1])]["corr_sun"]))
if show_labels:
adjust_text(all_labels,
add_objects=all_circles,
va="center",
ha="left",
ax=ax,
zorder=zorder_annotations,
horizontalalignment='left',
verticalalignment='center',
arrowprops=dict(connectionstyle="angle3",
arrowstyle='-',
color='darkgrey'))
# for item in all_labels:
# item.set_fontsize(10)
if not ax:
plt.show()
def plot_animations(animations, joint_parents, scale_max, scale_min,
save=False, save_overlayed=False,
dataset_name=None, subset_name=None, fill=6, overwrite=False):
if save:
if not os.path.exists('videos'):
os.makedirs('videos')
dir_name = os.path.join('videos', dataset_name)
if not os.path.exists(dir_name):
os.makedirs(dir_name)
if subset_name is not None:
dir_name = os.path.join(dir_name, subset_name)
if not os.path.exists(dir_name):
os.makedirs(dir_name)
total_animations = len(animations)
joint_colors = list(sorted(colors.cnames.keys()))[::-1]
total_colors = len(joint_colors)
num_frames = len(animations[0])
for ai, anim in enumerate(animations):
if save:
save_file_name = os.path.join(dir_name, str(ai).zfill(fill) + '.mp4')
if not overwrite and os.path.exists(save_file_name):
continue
fig = plt.figure(figsize=(12, 8))
ax = p3.Axes3D(fig)
ax.set_xlim3d(scale_min[0], scale_max[0])
ax.set_zlim3d(scale_min[1], scale_max[1])
ax.set_ylim3d(scale_min[2], scale_max[2])
ax.set_xticks([], False)
ax.set_yticks([], False)
ax.set_zticks([], False)
ax.patch.set_alpha(0.)
lines = [ax.plot([0, 0], [0, 0], [0, 0], color=joint_colors[ai % total_colors],
lw=2,
path_effects=[pe.Stroke(linewidth=3, foreground='black'),
pe.Normal()])[0] for _ in range(anim.shape[1])]
# ani = animation.FuncAnimation(fig, animate_joints, frames=num_frames,
# fargs=(lines, animations[ai], parents),
# interval=100, blit=True, repeat=True)
if save:
animation.FuncAnimation(fig, animate_joints, frames=num_frames,
fargs=(lines, animations[ai], joint_parents),
interval=100, blit=True, repeat=True).save(save_file_name)
print('\rGenerating animations: {0:d}/{1:d} done ({2:.2f}%).'
.format(ai + 1, total_animations, 100. * (ai + 1) / total_animations), end='')
plt.cla()
plt.close()
if save_overlayed:
save_file_name = os.path.join(dir_name, 'overlayed.mp4')
if overwrite or not os.path.exists(save_file_name):
lines = []
fig = plt.figure(figsize=(12, 8))
ax = p3.Axes3D(fig)
ax.set_xlim3d(scale_min[0], scale_max[0])
ax.set_zlim3d(scale_min[1], scale_max[1])
ax.set_ylim3d(scale_min[2], scale_max[2])
ax.set_xticks([], False)
ax.set_yticks([], False)
ax.set_zticks([], False)
for ai, anim in enumerate(animations):
lines.extend([ax.plot([0, 0], [0, 0], [0, 0], color=joint_colors[ai % total_colors],
lw=2,
path_effects=[pe.Stroke(linewidth=3, foreground='black'),
pe.Normal()])[0] for _ in range(anim.shape[1])])
animation.FuncAnimation(fig, animate_joints, frames=num_frames,
fargs=(lines, animations, joint_parents),
interval=100, blit=True, repeat=True).save(save_file_name)
def _draw_outline(o, lw):
o.set_path_effects([
patheffects.Stroke(linewidth=lw, foreground='black'),
patheffects.Normal()
])
def main():
url = 'https://opendata.ecdc.europa.eu/covid19/casedistribution/csv'
# df_ecdc = pd.read_html(url)
df_ecdc = pd.read_csv('csv')
df_owid = pd.read_csv('owid.csv')
days = 14
weeks = 2
for region in (
'Americas',
'Nordic',
'Europe',
'Asia',
'Oceania',
'Africa',
'G7',
'EU',
):
countries = d_regions[region]
x = []
y = []
colors = []
l_total_tests_per_thousand = []
sizes = deathsCumulative = []
labels = []
z = []
# print(df_ecdc)
# print(df_owid)
# print(df_ecdc['countryterritoryCode'].unique())
# exit()
for country in df_ecdc['countryterritoryCode'].unique():
if country not in df_owid['iso_code'].unique():
continue
# if country not in europe + g7:
# continue
# if country not in americas:
# continue
if country not in countries:
continue
casesTotal = df_ecdc[df_ecdc['countryterritoryCode'] == country]['cases_weekly'].sum()
if casesTotal < 100: # Faroe Islands 188, Iceland 1882
print('casesTotal', country, casesTotal)
continue
cases = df_ecdc[df_ecdc['countryterritoryCode'] == country]['cases_weekly']
deaths = df_ecdc[df_ecdc['countryterritoryCode'] == country]['deaths_weekly']
x2 = cases.head(1 * weeks).sum()
x1 = cases.head(2 * weeks).tail(1 * weeks).sum()
# if country == 'LTU':
# continue # negative values???
# print(cases.to_string())
# exit()
# if country in ('CYP',):
# continue # no testing?
y2 = deaths.head(1 * weeks).sum()
y1 = deaths.head(2 * weeks).tail(1 * weeks).sum()
# if x1 == 0 or y1 == 0:
# continue
total_tests_per_thousand = df_owid[df_owid['iso_code'] == country]['total_tests_per_thousand']
if total_tests_per_thousand.max() == 0:
continue
label = df_owid[df_owid['iso_code'] == country]['location'].iloc[0]
# changeCasesWeekly = 100 * (x2 - x1) / x1
# changeDeathsWeekly = 100 * (y2 - y1) / y1
# x1 = cases.sum() - cases.head(7).sum()
# x2 = cases.sum()
x1 = cases.head(2 * weeks).tail(1 * weeks).sum()
x2 = cases.head(1 * weeks).sum()
if x1 < 0 or x2 < 0:
continue
if x1 == 0:
changeCasesWeekly = 0
else:
changeCasesWeekly = 100 * (x2 - x1) / x1
# Skip outliers.
if changeCasesWeekly > 200:
# Small absolute change.
if y1 < 50 or y2 < 50:
changeCasesWeekly = 200
else:
pass
# print('changeCasesWeekly', country, changeCasesWeekly)
# continue
# y1 = deaths.sum() - deaths.head(7).sum()
# y2 = deaths.sum()
x1 = deaths.head(2 * weeks).tail(1 * weeks).sum()
x2 = deaths.head(1 * weeks).sum()
if y1 == 0: # Faroe Islands have zero deaths
changeDeathsWeekly = 0
else:
changeDeathsWeekly = 100 * (y2 - y1) / y1
# Skip when deaths are negative:
# https://www.theguardian.com/world/2020/aug/12/coronavirus-death-toll-in-england-revised-down-by-more-than-5000
if y1 < 0 or y2 < 0:
continue
# Skip outliers.
if changeDeathsWeekly > 200:
# Few absolute changes.
if y1 < 50 or y2 < 50:
changeDeathsWeekly = 200
else:
pass
# print('changeDeathsWeekly', country, changeDeathsWeekly)
# continue
# z2 = total_tests_per_thousand.max()
# # Skip if no testing.
# if z2 == 0 or np.isnan(z2):
# if country in ('FRO',):
# change = 0
# else:
# continue
# else:
# for i in range(7, 21):
# z1 = total_tests_per_thousand.iloc[-i]
# if z1 == z2:
# continue
# if not np.isnan(z1):
# change = 100 * (z2 - z1) / z1
# break
# else:
# change = 0
# # print(country, z2)
# # print(total_tests_per_thousand.to_string())
# # exit()
v1 = total_tests_per_thousand.tail(3 * days).head(1 * days).max()
v2 = total_tests_per_thousand.tail(2 * days).head(1 * days).max()
v3 = total_tests_per_thousand.tail(1 * days).max()
z2 = v3 - v2
z1 = v2 - v1
if z1 == 0:
change = 0
else:
change = 100 * (z2 - z1) / z1
z.append(change)
# z.append(100 * (z2 - z1) / z1)
l_total_tests_per_thousand.append(total_tests_per_thousand.max())
x.append(changeCasesWeekly)
y.append(changeDeathsWeekly)
labels.append(label)
# sizes.append(5 * math.sqrt(deaths))
deathsTotal = df_ecdc[df_ecdc['countryterritoryCode'] == country]['deaths_weekly'].sum()
# size = 10 * deathsTotal ** (1/3)
size = max(20, 10 * deathsTotal ** (1/3))
sizes.append(size)
# print(country, changeCasesWeekly, changeDeathsWeekly, size)
# for _ in l_total_tests_per_thousand:
# colors.append(_ / max(l_total_tests_per_thousand))
colors = z
fig, ax = plt.subplots()
fig.set_size_inches(16 / 2, 9 / 2)
for t in reversed(sorted(zip(sizes, x, y, colors, labels))):
sizes.append(t[0])
x.append(t[1])
y.append(t[2])
colors.append(t[3])
labels.append(t[4])
sizes = sizes[len(sizes)//2:]
x = x[len(x)//2::]
y = y[len(y)//2::]
colors = colors[len(colors)//2::]
labels = labels[len(labels)//2::]
paths = ax.scatter(
x, y,
c = colors,
s = sizes,
marker = 'o',
# label = labels,
edgecolor = 'black',
linewidth = 0.1,
# font = {
# # 'family' : 'normal',
# # 'weight' : 'bold',
# 'size' : 'small',
# },
alpha = 0.5,
cmap = 'viridis',
# vmin = min(l_total_tests_per_thousand),
# vmax = max(l_total_tests_per_thousand),
vmin = min(0, min(colors)),
vmax = max(0, max(colors)),
# vmax = 25,
)
# ax.axhline(0, color='black', linewidth=0.5, linestyle='--')
# ax.axvline(0, color='black', linewidth=0.5, linestyle='--')
cbar = fig.colorbar(paths)
# cbar.set_label('Total tests per thousand')
# cbar.set_label('Weekly change in total tests (%)')
# cbar.set_label(f'{days} day change in weekly tests (%)')
cbar.set_label('Change in weekly tests (%)')
texts = []
for xi, yi, label in zip(x, y, labels):
texts.append(ax.text(
xi, yi, label,
size='xx-small',
## ha='left', va='bottom',
ha='center', va='center',
color='white',
path_effects=[
path_effects.Stroke(linewidth=1, foreground='black'),
path_effects.Normal(),
],
))
# adjust_text(texts, arrowprops=dict(arrowstyle='->', color='black'))
adjust_text(texts)
# legend_elements = []
# print(colors)
# print(max(colors))
# print(l_total_tests_per_thousand)
# print(max(l_total_tests_per_thousand))
# print(min(l_total_tests_per_thousand))
# exit()
# for total_tests_per_thousand in [0, ]:
# label = forwardPE
# if forwardPE == 30:
# label = '30+'
# legend_elements.append(
# Line2D(
# [0], [0], marker='o',
# color = 'white', # don't show line
# label=label,
# markerfacecolor=color_forwardPE(forwardPE),
# markersize=10,
# ))
# legend_color = ax.legend(
# handles=legend_elements,
# loc='upper right',
# title=args.color,
# # bbox_to_anchor=(0.75, 1),
# bbox_to_anchor=(0.95, 1),
# )
# # produce a legend with a cross section of sizes from the scatter
# handles, labels = scatter.legend_elements(
# prop="sizes", alpha=0.5,
# func=lambda s: s / 3.01,
# )
# labels[-1] = '5.0+'
# labels = labels[0::2]
# handles = handles[0::2]
# legend_size = ax.legend(
# handles, labels, loc="upper right",
# title=args.size,
# # func=lambda s: np.sqrt(s) / 4,
# )
# ax.add_artist(legend_size)
# ax.set_xlabel('Weekly change in total cases (%)')
# ax.set_ylabel('Weekly change in total fatalities (%)')
# ax.set_xlabel(f'{weeks} week change in weekly cases (%)')
# ax.set_ylabel(f'{weeks} week change in weekly fatalities (%)')
ax.set_xlabel(f'Change in weekly cases (%)')
ax.set_ylabel(f'Change in weekly fatalities (%)')
ax.set_title(region)
# ax.set_xlim(0, 75) # El Salvador
# ax.set_ylim(0, 65) # Mexico
# ax.set_xlim(0, 100) # Ghana
# ax.set_ylim(0, 120) # Senegal
# ax.set_xlim(0, 5 + 5 * max((25, max(x), max(y))) // 5)
# ax.set_ylim(0, 5 + 5 * max((25, max(x), max(y))) // 5)
# ax.set_xlim(0, 25) # Canada
# ax.set_ylim(0, 30) # Canada
# ax.set_xlim(0, min(100, 2 + 2 * max((20, max(x))) // 2))
# ax.set_ylim(0, min(100, 2 + 2 * max((20, max(y))) // 2))
ax.axvline(x=0, ls='--', color='.1', lw=0.5)
ax.axhline(y=0, ls='--', color='.1', lw=0.5)
path = 'plot_bubble_{}.png'.format(region)
fig.savefig(path, dpi=200)
print(path)
fig.savefig('plot_bubble_{}_{}.png'.format(region, date.today().isoformat()), dpi=200)
return
