def plot_ripple_grid(self, num_x=3, num_y=None, return_list=True):
if num_y is None:
num_y = int(math.ceil(len(self.riptimes) / float(num_x)))
plt_grp_size = num_x * num_y
plt_num_grps = int(math.ceil(self.riptimes.get_num_events()/plt_grp_size))
plot_list = []
rip_ids = self.riptimes.index.get_level_values('event')
rip_plt_grps = [[rip_ids[(grp_id * plt_grp_size) + entry_ind] for entry_ind in
range(min([len(rip_ids) - plt_grp_size * grp_id, plt_grp_size]))]
for grp_id in range(plt_num_grps)]
if (len(rip_plt_grps) > 1) and (return_list is False):
raise VisualizationConfigError("Can't set return_list=False when grid cannot hold all plots.")
if return_list:
for rip_plt_grp in rip_plt_grps:
lay = hv.Layout([self.plot_ripple_all(rip_id) for rip_id in rip_plt_grp]).cols(num_x)
plot_list.append(lay)
return plot_list
else:
lay = hv.Layout({rip_id: self.plot_ripple_all(rip_id) for rip_id in rip_plt_grps[0]}).cols(num_x)
return lay
def plot_view(self):
data = self.df[self.feature.value]
data = data.loc[data.first_valid_index():]
if self.log_scale.value:
data = pd.Series(np.log(data.values), index=data.index)
data.name = f"{self.feature.value} - log of closing price"
else:
data.name = f"{self.feature.value} - closing price"
df_ma_15 = data.rolling(window=15).mean()
df_ma_30 = data.rolling(window=30).mean()
df_ma_15.name = "moving average - 15 days"
df_ma_30.name = "moving average - 30 days"
tag_plot = data.hvplot.line(title=self.feature.value,
xlabel="Timestamp",
height=self.plot_height,
width=self.plot_width)
ma_15 = df_ma_15.hvplot.line(title=self.feature.value,
xlabel="Timestamp",
height=self.plot_height,
width=self.plot_width)
ma_30 = df_ma_30.hvplot.line(title=self.feature.value,
xlabel="Timestamp",
height=self.plot_height,
width=self.plot_width)
min_ = self.tag_bounds[self.feature.value][0]
max_ = self.tag_bounds[self.feature.value][1]
if self.log_scale.value:
min_, max_ = data.min(), data.max()
histogram = data.hvplot.hist(bins=100,
bin_range=(min_, max_),
muted_alpha=0,
legend="top",
height=400,
width=200,
title="Histogram")
right_col = [histogram]
frame = data.describe().reset_index()
description_table = hv.Table(frame).opts(height=250, width=400)
second_plot = hv.Layout(histogram + description_table).cols(2)
plots = hv.Layout(((tag_plot * ma_15 * ma_30) << histogram) +
description_table).cols(1)
return plots
def write_histogram_for_annotation_worktime_by_user(self, df: pandas.DataFrame) -> None:
"""
教師付者ごとに教師付時間のヒストグラムを出力する。
Args:
df: タスク一覧のDataFrame
"""
if len(df) == 0:
logger.info("タスク一覧が0件のため出力しません。")
return
output_file_worktime = f"{self.histogram_outdir}/ヒストグラム-1回目の教師付者ごと-教師付時間"
logger.debug(f"{output_file_worktime}.html を出力します。")
output_file_first_worktime = f"{self.histogram_outdir}/ヒストグラム-1回目の教師付者ごと-1回目の教師付時間"
logger.debug(f"{output_file_first_worktime}.html を出力します。")
first_annotation_user_id_list = df["first_annotation_user_id"].dropna().unique().tolist()
if len(first_annotation_user_id_list) == 0:
logger.info("教師付したタスクが1つもないので、出力しません。")
return
histograms_worktime = []
histograms_first_worktime = []
for user_id in first_annotation_user_id_list:
filtered_df = df[df["first_annotation_user_id"] == user_id]
username = filtered_df.iloc[0]["first_annotation_username"]
histograms_worktime.append(
self._create_histogram_by_user(
filtered_df, "annotation_worktime_hour", "教師付時間[hour]", user_id=user_id, username=username
)
)
histograms_first_worktime.append(
self._create_histogram_by_user(
filtered_df, "first_annotation_worktime_hour", "1回目の教師付時間[hour]", user_id=user_id, username=username
)
)
layout_worktime = (
hv.Layout(histograms_worktime).cols(3).opts(hv.opts.Histogram(width=500), hv.opts.Layout(shared_axes=True))
)
hv.renderer("bokeh").save(layout_worktime, output_file_worktime)
layout_first_worktime = (
hv.Layout(histograms_first_worktime)
.cols(3)
.opts(hv.opts.Histogram(width=500), hv.opts.Layout(shared_axes=True))
)
hv.renderer("bokeh").save(layout_first_worktime, output_file_first_worktime)
def fermi_surface_slices(arr: xr.DataArray,
n_slices=9,
ev_per_slice=0.02,
bin=0.01,
out=None,
**kwargs):
import holoviews as hv # pylint: disable=import-error
slices = []
for i in range(n_slices):
high = -ev_per_slice * i
low = high - bin
image = hv.Image(arr.sum([
d for d in arr.dims
if d not in ['theta', 'beta', 'phi', 'eV', 'kp', 'kx', 'ky']
]).sel(eV=slice(low, high)).sum('eV'),
label='%g eV' % high)
slices.append(image)
layout = hv.Layout(slices).cols(3)
if out is not None:
renderer = hv.renderer('matplotlib').instance(fig='svg', holomap='gif')
filename = path_for_plot(out)
renderer.save(layout, path_for_holoviews(filename))
return filename
else:
return layout
def plotQC(df, value, title, size=10, jitter=0.35, factor_reduce=0.5):
df_i = df.dropna(subset=[value])
df_i = df_i.reset_index(drop=True)
key_dimensions = [(value, title)]
value_dimensions = [('Gene', 'Gene'), ('Metadata_X', 'Position')]
macro = hv.Table(df_i, key_dimensions, value_dimensions)
options = dict(color_index='Position',
legend_position='left',
jitter=jitter,
width=1000,
height=600,
scaling_method='width',
scaling_factor=2,
size_index=2,
show_grid=True,
tools=['hover', 'box_select', 'lasso_select'],
line_color='k',
cmap='Category20',
size=size,
nonselection_color='lightskyblue')
quality_scatter = macro.to.scatter('Gene', [title]).options(**options)
sel = streams.Selection1D(source=quality_scatter)
image_name = df_i.loc[0, "img_name_raw"]
img = cv2.imread(image_name, 0)
h, w = img.shape
w = int(factor_reduce * w)
h = int(factor_reduce * h)
pad = int(2.2 * w)
def selection_callback(index):
if not index:
return hv.Div("")
divtext = f'<table width={pad} border=1 cellpadding=10 align=center valign=center>'
for i, j in grouped(index, 2):
value_s = '{:f}'.format(df_i[value][i])
value_s2 = '{:f}'.format(df_i[value][j])
divtext += '<tr>'
divtext += f'<td align=center valign=center><br> {i} Value: {value_s}</br></td>' + "\n"
divtext += f'<td align=center valign=center><br> {j} Value: {value_s2}</br></td>' + "\n"
divtext += '</tr><tr>'
divtext += f'<td align=center valign=center><img src={df_i.loc[i, "img_name_raw"]} width={w} height={h}></td>'
divtext += f'<td align=center valign=center><img src={df_i.loc[j, "img_name_raw"]} width={w} height={h}></td>'
divtext += '</tr>'
if len(index) % 2 == 1:
value_s = '{:f}'.format(df_i[value][index[-1]])
divtext += '<tr>'
divtext += f'<td align=center valign=center><br> {index[-1]} Value: {value_s}</br></td>' + "\n"
divtext += f'<td align=center valign=center><br> </br></td>' + "\n"
divtext += '</tr><tr>'
divtext += f'<td align=center valign=center><img src={df_i.loc[index[-1], "img_name_raw"]} width={w} height={h}></td>'
divtext += f'<td align=center valign=center></td>'
divtext += '</tr>'
divtext += '</table>'
return hv.Div(str(divtext))
div = hv.DynamicMap(selection_callback, streams=[sel])
hv.streams.PlotReset(source=quality_scatter,
subscribers=[lambda reset: sel.event(index=[])])
return hv.Layout(quality_scatter + div).cols(1), sel
def main(data_sequence_folder: str, limit: int, start: int, out: str):
root = Path(data_sequence_folder)
img_folder_path = root.joinpath("imgs/")
npz_filepath = root.joinpath("rendered.npz")
data = np.load(npz_filepath)
datasource = {key: data[key] for key in data.files}
images_filepaths = list(img_folder_path.glob("*.png"))
images_filepaths.sort()
limit = min(start + limit, len(images_filepaths) - 1)
with_slides = {}
for idx, filepath in enumerate(tqdm(images_filepaths[start:limit])):
dataframe = dict([(key, str(value[start + idx]))
for key, value in datasource.items()])
image = hv.RGB.load_image(str(filepath))
image.opts(title=f"Frame #{idx+1}")
table = hv.Div(pformat(dataframe).replace("\n", "</br>"))
fig = image + table
with_slides[idx + 1] = fig
data.close()
hmap = hv.HoloMap(with_slides, "frame")
hmap = hmap.collate()
path_info = hv.Div(f"Sequence from {str(img_folder_path.parent)}")
layout = hv.Layout([path_info] + [hmap])
hv.save(layout, "holomap.html")
def plot_exp_val(a, d):
a_bar = hv.Bars(exp_val(a), label='A-Exp-Val')
d_bar = hv.Bars(exp_val(d), label='D-Exp-Val')
opts = dict(Bars=dict(plot=dict(
xrotation=45, legend_position='left', width=750, tools=['hover']),
style=dict(cmap='Set1')))
return hv.Layout([a_bar, d_bar]).opts(opts)
def swatches(*args, group=None, not_group=None, only_aliased=False, cols=None, **kwargs):
"""Show swatches for given names or names in group"""
args = args or all_original_names(group=group, not_group=not_group,
only_aliased=only_aliased)
if not cols:
cols = 3 if len(args) >= 3 else 1
backends = hv.Store.loaded_backends()
if 'matplotlib' in backends:
if 'aspect' not in kwargs:
kwargs['aspect'] = 12 // cols
if 'fig_size' not in kwargs:
kwargs['fig_size'] = 500 // cols
if 'bokeh' in backends:
if 'height' not in kwargs:
kwargs['height'] = 100
if 'width' not in kwargs:
kwargs['width'] = (9 * kwargs['height']) // cols
images = [swatch(arg, **kwargs) if isinstance(arg, str) else
swatch(*arg, **kwargs) for
arg in args]
plot = hv.Layout(images).opts(plot=dict(transpose=True)).cols(int(np.ceil(len(images)*1.0/cols)))
if 'matplotlib' in backends:
plot.opts(opts.Layout(backend='matplotlib', sublabel_format=None,
fig_size=kwargs.get('fig_size', 150)))
return plot
def swatches(names=None, cols=None, **kwargs):
"""Show swatches for all names or given names"""
if not names:
names = sorted([name for name in palette.keys()])
if not cols:
cols = 2 if len(names) >= 2 else 1
backends = hv.Store.loaded_backends()
if 'matplotlib' in backends:
if 'aspect' not in kwargs:
kwargs['aspect'] = 12 // cols
if 'fig_size' not in kwargs:
kwargs['fig_size'] = 500 // cols
if 'bokeh' in backends:
if 'height' not in kwargs:
kwargs['height'] = 100
if 'width' not in kwargs:
kwargs['width'] = (9 * kwargs['height']) // cols
images = [swatch(name, **kwargs) for name in names]
plot = hv.Layout(images).opts(plot=dict(transpose=True)).cols(int(np.ceil(len(images)*1.0/cols)))
if 'matplotlib' in backends:
plot.opts(opts.Layout(backend='matplotlib', sublabel_format=None,
fig_size=kwargs.get('fig_size', 150)))
return plot
def displayVideo(rowID=1):
# Open database
rowID = int(rowID)
db = Database()
db.open()
# import detection table
df = pd.read_sql('select * from audio_detections', con=db.connection)
# Name of the table
tablename = 'video_data'
# time of the detection
t1, t2 = getDetecTimes(rowID, df)
# ID of file for that detection
ID = getRecordID(db, tablename, t1)
# Get info for that record
info = getVideoRecord(db, tablename, ID)
#faxis, taxis, S, df3 = getVideoFrame(info, t1,t2)
filename = os.path.join(info['dirpath'], info['filename'])
frameTime = t1 - info['startdate_unix']
video = cv2.VideoCapture(filename)
video.set(0,
frameTime * 1000) # set pointer to requested frame time (in ms)
grabbed, frame = video.read()
frame_GS = cv2.cvtColor(frame, cv2.COLOR_BGR2GRAY)
video.release()
img = hv.Image(frame_GS)
return hv.Layout([img.opts(cmap='gray', xaxis=None, yaxis=None)])
def write_histogram_for_annotation_count_by_label(self, df: pandas.DataFrame) -> None:
"""
アノテーションラベルごとのアノテーション数をヒストグラムで出力する。
"""
if len(df) == 0:
logger.info("タスク一覧が0件のため出力しない")
return
renderer = hv.renderer("bokeh")
output_file = f"{self.histogram_outdir}/ヒストグラム-ラベルごとのアノテーション数"
logger.debug(f"{output_file}.html を出力します。")
histograms = []
label_columns = [e for e in df.columns if e.startswith("label_")]
for column in label_columns:
label_name = column[len("label_") :]
histogram_name = HistogramName(
column=column, x_axis_label=f"'{label_name}'のアノテーション数", title=f"{label_name}"
)
hist = self._create_histogram(df, histogram_name=histogram_name)
histograms.append(hist)
# 軸範囲が同期しないようにする
layout = hv.Layout(histograms).options(shared_axes=False).cols(3)
renderer.save(layout, output_file)
def show_plot2(self):
tn = self.table_selector2
l = []
grid_style = {
"grid_line_color": "olive",
"minor_grid_line_color": None
}
def_opt = dict(gridstyle=grid_style, show_grid=True)
for i, y in enumerate(self.y_selec2):
p = self.dfs[tn].hvplot(kind=self.plot_kind,
x='msg_ts',
y=y,
rot=20,
xformatter=XFORMATTER,
responsive=True,
min_height=150,
min_width=300)
if i == 0:
p.opts(xaxis='top', **def_opt)
else:
p.opts(xaxis=None, **def_opt)
l.append(p)
o = hv.Layout(l).cols(1)
return pn.pane.HoloViews(o,
sizing_mode="stretch_both",
min_width=600,
min_height=800)
def violin(adata: AnnData, keys: Union[str, List[str], Tuple[str]], by: str = None,
width: int = 300, cmap: Union[str, List[str], Tuple[str]] = None, cols: int = None,
use_raw: bool = None, **kwds) -> hv.core.element.Element:
"""
Generate a violin plot.
Args:
adata: Annotated data matrix.
keys: Keys for accessing variables of adata.var_names, field of adata.var, or field of adata.obs
by: Group plot by specified observation.
width: Plot width.
cmap: Color map name (hv.plotting.list_cmaps()) or a list of hex colors. See http://holoviews.org/user_guide/Styling_Plots.html for more information.
cols: Number of columns for laying out multiple plots
use_raw: Use `raw` attribute of `adata` if present.
"""
if cols is None:
cols = 3
adata_raw = __get_raw(adata, use_raw)
if cmap is None:
cmap = colorcet.b_glasbey_category10
plots = []
keywords = dict(padding=0.02, cmap=cmap, rot=90)
keywords.update(kwds)
keys = __to_list(keys)
df = __get_df(adata, adata_raw, keys + ([] if by is None else [by]))
__fix_color_by_data_type(df, by)
for key in keys:
p = df.hvplot.violin(key, width=width, by=by, violin_color=by, **keywords)
plots.append(p)
return hv.Layout(plots).cols(cols)
def plot_stats_distribution(data: pd.DataFrame, plot_cols: list) -> hv.Layout:
hist_plots = {}
for col in plot_cols:
hist_plots[col] = data[col].hvplot.hist(
normed=True) * data[col].hvplot.kde()
stats_distribution = hv.Layout(list(hist_plots.values())).cols(1)
return stats_distribution
def activity_plots(
data: Union[pd.DataFrame, None, ],
x_series: Optional[List[str]] = None,
y_series: Optional[List[str]] = None,
) -> hv.Layout:
"""A layout of plots
Args:
data (pd.DataFrame): The Activity Data
x_series (Optional[List[str]]): The series to show on the x-axis. Defaults to \
DEFAULT_X_SERIES.
y_series (Optional[List[str]]): The series to show on the y-axis. Defaults to \
DEFAULT_Y_SERIES.
Returns:
hv.Layout: A layout of plots
"""
if data is None or data.empty:
return None
if not x_series:
x_series = DEFAULT_X_SERIES
if not y_series:
y_series = DEFAULT_Y_SERIES
layout = hv.Layout()
for xss in x_series:
for yss in y_series:
layout.items.append(activity_plot(
data,
xss,
yss,
))
return layout
def dist_compare_grid(
df1,
df2,
columns=None,
max_bar_categories: int = 40,
grid_size: Tuple[int, int] = (900, 900),
):
if columns is None:
columns = [c for c in df1.columns if c in df2.columns]
else:
for c in columns:
if c not in df1.columns:
raise ValueError("%s is not in df1.columns" % str(c))
if c not in df2.columns:
raise ValueError("%s is not in df2.columns" % str(c))
grid_cols = int(np.ceil(np.sqrt(len(columns))))
grid_rows = int(np.ceil(len(columns) / grid_cols))
plots = [
dist_compare_plot(df1[c], df2[c], max_bar_categories).opts(title=c)
for c in columns
]
grid = hv.Layout(plots).opts(shared_axes=False, normalize=False)
grid.cols(grid_cols)
# set sizes
subplot_size = (int(grid_size[0] / grid_cols),
int(grid_size[1] / grid_rows))
grid.opts(
opts.Histogram(width=subplot_size[0], height=subplot_size[1]),
opts.Bars(width=subplot_size[0], height=subplot_size[1]),
)
return grid
def test_holoviews_link_within_pane(document, comm):
from bokeh.models.tools import RangeTool
from holoviews.plotting.links import RangeToolLink
c1 = hv.Curve([])
c2 = hv.Curve([])
RangeToolLink(c1, c2)
pane = Pane(Pane(hv.Layout([c1, c2]), backend='bokeh'))
column = pane.get_root(document, comm=comm)
assert len(column.children) == 1
subcolumn = column.children[0]
assert isinstance(subcolumn, BkColumn)
assert len(subcolumn.children) == 2
toolbar, subsubcolumn = subcolumn.children
assert isinstance(subsubcolumn, GridBox)
assert len(subsubcolumn.children) == 2
(p1, _, _), (p2, _, _) = subsubcolumn.children
assert isinstance(p1, Figure)
assert isinstance(p2, Figure)
range_tool = subsubcolumn.select_one({'type': RangeTool})
assert isinstance(range_tool, RangeTool)
assert range_tool.x_range == p2.x_range
def marker(x, y):
x_dim = {image.kdims[0].label: x}
y_dim = {image.kdims[1].label: y}
crosssection1 = image.sample(**x_dim).opts(norm=dict(framewise=True))
crosssection1y = image.sample(**y_dim).opts(norm=dict(framewise=True))
return hv.Layout(image * hv.VLine(x) * hv.HLine(y) + crosssection1 +
crosssection1y).cols(2).opts(norm=dict(axiwise=True))
def test_holoviews_link_within_pane(document, comm):
from bokeh.models.tools import RangeTool
from holoviews.plotting.links import RangeToolLink
c1 = hv.Curve([])
c2 = hv.Curve([])
RangeToolLink(c1, c2)
pane = Pane(hv.Layout([c1, c2]))
column = pane._get_root(document, comm=comm)
assert len(column.children) == 1
subcolumn = column.children[0]
assert isinstance(subcolumn, BkColumn)
assert len(subcolumn.children) == 2
toolbar, subsubcolumn = subcolumn.children
assert isinstance(subsubcolumn, BkColumn)
assert len(subsubcolumn.children) == 1
row = subsubcolumn.children[0]
assert isinstance(row, BkRow)
assert len(row.children) == 2
p1, p2 = row.children
assert isinstance(p1, Figure)
assert isinstance(p2, Figure)
range_tool = row.select_one({'type': RangeTool})
assert isinstance(range_tool, RangeTool)
range_tool.x_range = p2.x_range
def plotNselect_tSNE(df_feat, features, size=10, perplexity=80, ncomp=2):
df_i = df_feat.dropna()
df_i = df_i.reset_index(drop=True)
Y = TSNE(perplexity=perplexity,
n_components=ncomp).fit_transform(df_i[features])
options = dict(legend_position='left',
width=1000,
height=600,
scaling_method='width',
scaling_factor=2,
size_index=2,
show_grid=True,
tools=['hover', 'box_select', 'lasso_select'],
line_color='k',
cmap='Accent',
size=size,
nonselection_color='lightskyblue')
quality_scatter = hv.Scatter(Y).options(**options)
sel = streams.Selection1D(source=quality_scatter)
image_name = df_i.loc[0, "img_name_raw"]
img = cv2.imread(image_name, 0)
h, w = img.shape
w = int(0.8 * w)
h = int(0.8 * h)
pad = int(2.2 * w)
def selection_callback(index):
if not index:
return hv.Div("")
divtext = f'<table width={pad} border=1 cellpadding=10 align=center valign=center>'
for i, j in grouped(index, 2):
value_s = '{:f}'.format(df_i[value][i])
value_s2 = '{:f}'.format(df_i[value][j])
divtext += '<tr>'
divtext += f'<td align=center valign=center><br> {i} Value: {value_s}</br></td>' + "\n"
divtext += f'<td align=center valign=center><br> {j} Value: {value_s2}</br></td>' + "\n"
divtext += '</tr><tr>'
divtext += f'<td align=center valign=center><img src={df_i.loc[i, "img_name_raw"]} width={w} height={h}></td>'
divtext += f'<td align=center valign=center><img src={df_i.loc[j, "img_name_raw"]} width={w} height={h}></td>'
divtext += '</tr>'
if len(index) % 2 == 1:
value_s = '{:f}'.format(df_i[value][index[-1]])
divtext += '<tr>'
divtext += f'<td align=center valign=center><br> {index[-1]} Value: {value_s}</br></td>' + "\n"
divtext += f'<td align=center valign=center><br> </br></td>' + "\n"
divtext += '</tr><tr>'
divtext += f'<td align=center valign=center><img src={df_i.loc[index[-1], "img_name_raw"]} width={w} height={h}></td>'
divtext += f'<td align=center valign=center></td>'
divtext += '</tr>'
divtext += '</table>'
return hv.Div(str(divtext))
div = hv.DynamicMap(selection_callback, streams=[sel])
hv.streams.PlotReset(source=quality_scatter,
subscribers=[lambda reset: sel.event(index=[])])
return hv.Layout(quality_scatter + div).cols(1), sel
def layout_(self, chart_objs, cols=3):
"""
Returns a Holoview Layout from chart objects
"""
try:
return hv.Layout(chart_objs).cols(cols)
except Exception as e:
self.err(e, self.layout_, "Can not build layout")
def chart_for_metric(state:Dict, metric:str, viz_opts=opts()):
bar_charts = []
for g in state[M1][metric].keys():
chart_data = [(state[model]["label"], state[model][metric][g]) for model in state.keys()]
bar_chart = hv.Bars(chart_data, hv.Dimension(f'Models for {g}'), " ").opts(common_opts).opts(viz_opts)
bar_charts.append(bar_chart)
return hv.Layout(bar_charts).opts(shared_axes=False, title=metric).cols(1) # TODO: Title disturbs the layout
def combined(self, lon, lat):
"""Combines the temperature and precipitation holoviews objects.
Parameters
----------
lon : int or float
The longitutde of the point.
lat : int or float
The latitude of the point.
Returns
-------
out : holoviews Layout or Overlay
Layout or overlay depends on how the object was initialized.
Raises
------
ValueError
If either longitude or latitude or both are out of bounds.
See Also
--------
out_of_bounds : Checks if longitude and latitude are out of bounds.
"""
out_of_bounds(lon, lat, 'ClimvisHVPlot.combined')
self.reinitialize(lon, lat, self._overlay)
real_coords = real_lon_lat(lon, lat)
real_lon = real_coords['lon']
real_lat = real_coords['lat']
# Creating the holoviews Curve and Bars objects for temperature and
# precipitation respectively
tmp = hv.Curve(annual_cycle_for_hv(lon, lat, variable='tmp'),
label='Real lon, lat: {} {}'.format(
real_lon, real_lat)).opts(color='red',
tools=['hover'])
pre = hv.Bars(annual_cycle_for_hv(
lon, lat, variable='pre'), ).opts(tools=['hover'])
# Formatting xlables and ylabels
if self._overlay:
out = hv.Overlay([pre, tmp.relabel('')],
label='Real lon, lat: {} {}'.format(
real_lon, real_lat))
out.opts(xlabel='Month',
ylabel='Prec. and Temp. '
'(°C and mm mth^-1)')
else:
out = hv.Layout([
tmp.opts(xlabel='Month', ylabel='Temperature (°C)'),
pre.opts(xlabel='Month', ylabel='Precipitation (mm mth^-1)')
])
return out
def filter_layout(butler, tract=9813, description='mag_modelfit_CModel', style='psfMagHist',
visit=None, kind='coadd', scale=0.66, columns=3):
if tract==9813:
filters = cosmos_filters
else:
filters = wide_filters
return hv.Layout([get_plot(butler, tract, f, description, style, kind, scale=scale)
for f in filters]).cols(columns)
def grid_plot_experiments(comet_api: comet_ml.API, experiments: APIExperiments, p1_name: str, p2_name: str,
metrics: List[str] = ['train_acc', 'dev_acc', 'test_acc'], parameters: List[str] = [],
fig_size: int = 220) -> hv.core.layout.Layout:
targets_data = _download_data(comet_api, experiments, p1_name, p2_name, metrics, parameters)
layout = hv.Layout()
for k, v in targets_data.items():
layout += hv.HeatMap(v, kdims=[p1_name, p2_name], vdims=k).sort().opts(title=k, cmap='greens').redim.range(z=(0, None))
return layout.opts(fig_size=fig_size, framewise=True)
def hr(self):
if self._hr is None:
layout = []
opts = dict(invert_yaxis=True, tools=["hover"])
for b1, b2 in band_pairs(self.bands):
kdims = ["{}-{}".format(b1, b2), "{}_mag".format(b1)]
layout.append(hv.Points(self.ds, kdims=kdims, vdims=self.ds.kdims).options(**opts))
self._hr = hv.Layout(layout)
return self._hr
def time_series(self):
empty_curve = hv.Curve([]).options(xaxis=None,
yaxis=None,
show_frame=True,
height=200,
width=800)
print('Plotting time series')
tx_path = self.filenames[0]
rx_path = self.filenames[1]
#rx_path = []
#print(tx_path,rx_path)
if tx_path and rx_path:
#print('tx and rx!')
# get plot time limits
fi = z3dio.get_file_info(tx_path[0])
[tstart, tend] = timeio.get_start_and_end_times_mountain(
fi, include_final_second=True, astype='timestamp')
#tstart=pd.Timestamp(tstart.replace(tzinfo=None))
#tend=pd.Timestamp(tend.replace(tzinfo=None))
d1 = viz.plot_ts(tx_path[0], time_range=[tstart, tend])
d1rd = d1.redim(signal='TX Signal')
#d2 = viz.plot_ts(rx_path[0])
d2 = viz.plot_ts(rx_path[0], time_range=[tstart, tend])
d2rd = d2.redim(signal='RX Signal')
d1rd.opts(height=200, width=800)
d2rd.opts(height=200, width=800)
q = hv.Layout(d1rd + d2rd).cols(1)
#print('I did it')
elif rx_path:
#print('only rx.')
d2 = viz.plot_ts(rx_path[0])
d2rd = d2.redim(signal='RX Signal')
#print('redimensioned!')
#print(type(d2rd))
q = hv.Layout((empty_curve, d2rd.opts(height=200,
width=800))).cols(1)
#print('I did it')
else:
#print('I got nuthin.')
q = hv.Layout((empty_curve, empty_curve)).cols(1)
#print('Shootin back a q atchu')
#print(type(q))
return q
def show_images(self, image_urls, labels=None, col_num=4):
images = []
for index, url in enumerate(image_urls):
img = self.url_to_image(url)
if img is None:
continue
img_ = hv.Image(img, label=labels[index]) if labels is not None else hv.Image(img)
images.append(img_)
obj = hv.Layout(images).cols(col_num).display('all')
return obj
def __call__(self, dset, **params):
self.p = param.ParamOverrides(self, params)
return hv.Layout([
scattersky(dset,
filter_stream=self.p.filter_stream,
xdim=self.p.xdim,
ydim=ydim,
height=self.p.height,
width=self.p.width) for ydim in self._get_ydims(dset)
]).cols(3).opts(plot={'merge_tools': False})
def plot_unit(uid, scl):
trace = (hv.Curve(Y_r[uid, :], kdims='frame #').opts(framewise=True) *
(hv.Curve(C[uid, :], kdims='frame #').opts(
color=denoised_color, framewise=True))).opts(
aspect=3, frame_height=200)
A_scl = norm(Ad[:, :, uid], (scl, 1))
im_hsv_scl = im_hsv.copy()
im_hsv_scl[:, :, 2] = im_hsv[:, :, 2] * A_scl
im_u = (hv.HSV(im_hsv_scl, kdims=['height',
'width']).opts(aspect='equal',
frame_height=200))
return hv.Layout([im_u] + [trace]).cols(1) #im_u + trace
