view = data.loc[chosen_timeline == chosen_slider.value]
print 'Parameter button option ' + str(new) + ' selected.'
global param_choice
if str(new) == "0":
param_choice = data['resolution2']
if str(new) == "1":
param_choice = data['percentageofpote1']
if str(new) == "2":
param_choice = data['cloud_score_aver2']
if str(new) == "3":
param_choice = data['gelbstoffmax0']
colors = ["#%02x%02x%02x" % (int(255/(r+1)), 100, 100) for r in param_choice]
x = view['scene_lat']
y = view['scene_lon']
source.data = dict(x=x, y=y, c=colors)
param_button_group.on_click(param_radio_handler)
#OK
def time_radio_handler(new):
global param_choice
global inputs
global chosen_slider
global chosen_timeline
print 'Time button option ' + str(new) + ' selected.'
if str(new) == "0":
chosen_slider = year_slider
chosen_timeline = data['year']
if str(new) == "1":
chosen_slider = month_slider
chosen_timeline = data['yearmonth']
if str(new) == "2":
def clear_plot():
source_data.data = dict(x=[], y=[])
pred_data.data = dict(x=[], y=[])
source_bars.data = dict(y=[], right=[])
pred_line.data = dict(y=[], x=[])
tsne.data = dict(y=[], x=[])
def update_plot_signature(attr, old, new):
# print(attr, old, new)
update_plot()
# Disable controls initially
change_model()
plot_run.on_click(update_plot)
plot_clear.on_click(clear_plot)
ctl_model.on_click(change_model)
ctl_feat_reduce.on_click(update_plot)
ctl_kernel.on_click(update_plot)
# Page Layout
col_inputs = column(plot_ctls, ctl_inputs, disp_disclaimer)
row_plots = row(plot_mood_scatter, plot_mood_bar)
row_page = row(col_inputs, column(row_plots, plot_feature_scatter), column(disp_features, disp_score), width=1200)
curdoc().add_root(row_page)
curdoc().title = "Daylio Data Display"
top_five_data_source.data = top_five_dict
bot_five = df.sort_values(card_type).head(5)[[
'STATION', card_type, 'LINES'
]]
bot_five_dict = dict(stations=bot_five['STATION'],
lines=bot_five['LINES'],
percents=bot_five[card_type],
rank=list(range(1, 6)))
bot_five_data_source.data = bot_five_dict
## Add widgets and corresponding callback functions
price_period_buttons = RadioButtonGroup(
active=0, labels=['Period 1', 'Period 2', 'Period 3', 'Period 4'])
price_period_buttons.on_click(callback_change_dataframe)
metrocard_type_buttons = RadioButtonGroup(
active=0, labels=['Full Fare', '7-Day Unlimited', '30-Day Unlimited'])
metrocard_type_buttons.on_click(callback_change_dataframe)
line_list = [
'ALL', 'A', 'B', 'C', 'D', 'E', 'F', 'G', 'J', 'L', 'M', 'N', 'Q', 'R',
'S', 'Z', '1', '2', '3', '4', '5', '6', '7'
]
subway_line_select = Select(title="Subway Line:",
value="ALL",
options=line_list)
subway_line_select.on_change("value", callback_subway_line_filter)
## Add table showing price hike information
'Weakness', 'Atrophy', 'Cramps',
'Fasciculations', "Gait changes"])
# onset radio button
def onset_loc_handler(new):
print ('Radio button option' + str(new) + ' selected.')
pp_onset = Paragraph(text="""Onset Neuron Group""", width=250, height=15)
onset_loc = RadioButtonGroup(labels=["Bulbar", "Spinal", "Both", "*Unk"], active=3)
#onset_loc.on_click(onset_loc_handler)
# riluzole radio button
def riluzole_handler(new):
print ('Radio button option ' + str(new) + ' selected.')
pp_riluzole = Paragraph(text="""Subject used Riluzole""", width=250, height=15)
riluzole = RadioButtonGroup(labels=["No", "Yes", "*Unk"], active=2)
riluzole.on_click(onset_loc_handler)
# caucasian radio button
def caucasian_handler(new):
print ('Radio button option ' + str(new) + ' selected.')
pp_caucasian = Paragraph(text="""Race Caucasian""", width=250, height=15)
caucasian = RadioButtonGroup(labels=["No", "Yes", "*Unk"], active=2)
caucasian.on_click(caucasian_handler)
# sex radio button
def sex_handler(new):
print ('Radio button option ' + str(new) + ' selected.')
pp_sex = Paragraph(text="""Sex""", width=250, height=15)
sex = RadioButtonGroup(labels=["Female", "Male", "*Unk"], active=2)
sex.on_click(sex_handler)
plt.legend.label_text_font_size = "18px"
plt.legend.click_policy="mute"
# Make and format tooltip
hover = HoverTool(tooltips=[
("# of Institutions", '@num_insts')
])
plt.add_tools(hover)
# Format axes and labels
plt.xaxis.major_label_orientation = np.pi/4
plt.xaxis.axis_label_text_font_size = "18px"
plt.xaxis.major_label_text_font_size = "18px"
plt.yaxis.axis_label = "Number of Female Students / Institution"
plt.yaxis.axis_label_text_font_size = "18px"
plt.yaxis.major_label_text_font_size = "18px"
# Get rid of stupid Bokeh logo
plt.toolbar.logo = None
# Set callback function for the radio button group
radio_button_group.on_click(gather_data)
# Define layout of glyphs on the page
layout = column(div_title, row(div_RadGroup, radio_button_group), plt, p1, p2, p3)
curdoc().add_root(layout)
# Set title
curdoc().title = "Visualization 3"
##### COLOR BAND MAPPINGS
redText = PreText(text="""Red:""", width=60, height=15)
redBandMapping = RadioButtonGroup(labels=possible_bands, active=2, name="Red")
greenText = PreText(text="""Green:""", width=60, height=15)
greenBandMapping = RadioButtonGroup(labels=possible_bands,
active=1,
name="Green")
blueText = PreText(text="""Blue:""", width=60, height=15)
blueBandMapping = RadioButtonGroup(labels=possible_bands,
active=0,
name="Blue")
##### COLOR BAND MAPPING INTERACTIONS
redBandMapping.on_click(change_band_red)
greenBandMapping.on_click(change_band_green)
blueBandMapping.on_click(change_band_blue)
##### BUTTON TO MATERIALISE CHANGES
renderButton = Button(label="Confirm Mappings", button_type="success")
renderButton.on_click(render)
##### TIME SLIDER
time_slider = Slider(start=1,
end=12,
value=1,
step=1,
title="Image Number(between 1 and 12)")
""")
oo = column(children=[exptime])
pp = column(children=[distance, radius, semimajor, exozodi])
qq = column(children=[instruction0, text_input, instruction1, format_button_group, instruction2, link_box])
observation_tab = Panel(child=oo, title='Observation')
planet_tab = Panel(child=pp, title='Planet')
download_tab = Panel(child=qq, title='Download')
for w in [text_input]:
w.on_change('value', change_filename)
format_button_group.on_click(i_clicked_a_button)
inputs = Tabs(tabs=[ planet_tab, observation_tab, download_tab ])
curdoc().add_root(row(children=[inputs, snr_plot]))
#curdoc().theme = Theme(json=yaml.load("""
#attrs:
# Figure:
# background_fill_color: '#2F2F2F'
# border_fill_color: '#2F2F2F'
# outline_line_color: '#444444'
# Axis:
# axis_line_color: "white"
# axis_label_text_color: "white"
# major_label_text_color: "green"
def do_layout(self):
"""
generates the overall layout by creating all the widgets, buttons etc and arranges
them in rows and columns
:return: None
"""
self.source = self.generate_source()
tab_plot = self.generate_plot(self.source)
multi_select = MultiSelect(title="Option (Multiselect Ctrl+Click):",
value=self.active_country_list,
options=countries,
height=500)
multi_select.on_change('value', self.update_data)
tab_plot.on_change('active', self.update_tab)
radio_button_group_per_capita = RadioButtonGroup(
labels=["Total Cases", "Cases per Million"],
active=0 if not self.active_per_capita else 1)
radio_button_group_per_capita.on_click(self.update_capita)
radio_button_group_scale = RadioButtonGroup(
labels=[Scale.log.name.title(),
Scale.linear.name.title()],
active=self.active_y_axis_type.value)
radio_button_group_scale.on_click(self.update_scale_button)
radio_button_group_df = RadioButtonGroup(labels=[
Prefix.confirmed.name.title(),
Prefix.deaths.name.title(),
Prefix.recovered.name.title(),
],
active=int(
self.active_case_type))
radio_button_group_df.on_click(self.update_data_frame)
refresh_button = Button(label="Refresh Data",
button_type="default",
width=150)
refresh_button.on_click(load_data_frames)
export_button = Button(label="Export Url",
button_type="default",
width=150)
export_button.on_click(self.export_url)
slider = Slider(start=1,
end=30,
value=self.active_window_size,
step=1,
title="Window Size for rolling average")
slider.on_change('value', self.update_window_size)
radio_button_average = RadioButtonGroup(
labels=[Average.mean.name.title(),
Average.median.name.title()],
active=self.active_average)
radio_button_average.on_click(self.update_average_button)
plot_variables = [
self.active_plot_raw, self.active_plot_average,
self.active_plot_trend
]
plots_button_group = CheckboxButtonGroup(
labels=["Raw", "Averaged", "Trend"],
active=[i for i, x in enumerate(plot_variables) if x])
plots_button_group.on_click(self.update_shown_plots)
world_map = self.create_world_map()
link_div = Div(
name="URL",
text=
fr'Link <a target="_blank" href="{self.url}">Link to this Plot</a>.',
width=300,
height=10,
align='center')
footer = Div(
text=
"""Covid-19 Dashboard created by Andreas Weichslgartner in April 2020 with python, bokeh, pandas,
numpy, pyproj, and colorcet. Source Code can be found at
<a href="https://github.com/weichslgartner/covid_dashboard/">Github</a>.""",
width=1600,
height=10,
align='center')
self.generate_table_cumulative()
columns = [
TableColumn(field="name", title="Country"),
TableColumn(field="number_rolling",
title="daily avg",
formatter=NumberFormatter(format="0.")),
TableColumn(field="number_daily",
title="daily raw",
formatter=NumberFormatter(format="0."))
]
top_top_14_new_header = Div(text="Highest confirmed (daily)",
align='center')
top_top_14_new = DataTable(source=self.top_new_source,
name="Highest confirmed(daily)",
columns=columns,
width=300,
height=380)
self.generate_table_new()
columns = [
TableColumn(field="name", title="Country"),
TableColumn(field="number",
title="confirmed(cumulative)",
formatter=NumberFormatter(format="0."))
]
top_top_14_cum_header = Div(text="Highest confirmed (cumulative)",
align='center')
top_top_14_cum = DataTable(source=self.top_total_source,
name="Highest confirmed(cumulative)",
columns=columns,
width=300,
height=380)
self.layout = layout([
row(
column(tab_plot, world_map),
column(top_top_14_new_header, top_top_14_new,
top_top_14_cum_header, top_top_14_cum),
column(link_div, row(refresh_button, export_button),
radio_button_group_df, radio_button_group_per_capita,
plots_button_group, radio_button_group_scale, slider,
radio_button_average, multi_select),
),
row(footer)
])
curdoc().add_root(self.layout)
curdoc().title = "Bokeh Covid-19 Dashboard"
for j in gpa_list:
if j == i and years_list[
count_total] == '2017' and dept_student_list[
count_total] == new:
count_part = count_part + 1
count_total = count_total + 1
list_2017_new.append(count_part)
data = {}
data['gpa'] = gpa
data['2015'] = list_2015_new
data['2016'] = list_2016_new
data['2017'] = list_2017_new
source.data = data
btnGroupLetters.on_click(functools.partial(onclick, name='Letters'))
refresh.on_click(functools.partial(onclick, name='refresh'))
btnGroupTitle.on_click(functools.partial(onclick, name='Title'))
btnGroupDept.on_click(functools.partial(onclick, name='Dept'))
dept_select.on_change('value', onTableMasterSelect)
layout_query = layout([
[widgetbox(btnGroupLetters, width=1000)],
[widgetbox(btnGroupTitle),
widgetbox(btnGroupDept)],
[
widgetbox(title_input),
widgetbox(paragraph, optionGroup, width=100),
widgetbox(dept_input)
],
[widgetbox(refresh, width=100)],
p_title.axis.visible = None
# put Cylance Logo in
# p_logo = figure(toolbar_location=None, tools = "lasso_select", x_range=(0,1), y_range=(0,1), plot_width=520, plot_height=200)
# img = mpimg.imread("cylance_logo.png")
# p_logo.image_url(url=["cylance_logo.png"], x=0, y=0)
# p_logo.background_fill_color = "black"
# p_logo.border_fill_color = "black"
# p_logo.grid.grid_line_color = "black"
# p_logo.outline_line_color = "black"
# radio button group for uploading file
radio_group = RadioButtonGroup(labels=["NO-SPLIT", "SPLIT", "START"], button_type="success")
radio_group.width = 500
radio_group.on_click(_fit_util)
# text for console output
text_input = TextInput(value="", title="CONSOLE")
text_input.width = 500
cluster_stats = Div(
render_as_text=False,
text=generate_display_string("", name="Cluster Statistics", height=100)
)
cluster_stats.width = 500
cluster_stats.height = 100
cluster_commonality = Div(
render_as_text=False,
text=generate_display_string("")
p_title.axis.visible = None
# put Cylance Logo in
# p_logo = figure(toolbar_location=None, tools = "lasso_select", x_range=(0,1), y_range=(0,1), plot_width=520, plot_height=200)
# img = mpimg.imread("cylance_logo.png")
# p_logo.image_url(url=["cylance_logo.png"], x=0, y=0)
# p_logo.background_fill_color = "black"
# p_logo.border_fill_color = "black"
# p_logo.grid.grid_line_color = "black"
# p_logo.outline_line_color = "black"
# radio button group for uploading file
radio_group = RadioButtonGroup(labels=["NO-SPLIT", "SPLIT", "START"],
button_type="success")
radio_group.width = 500
radio_group.on_click(_fit_util)
# text for console output
text_input = TextInput(value="", title="CONSOLE")
text_input.width = 500
cluster_stats = Div(render_as_text=False,
text=generate_display_string("",
name="Cluster Statistics",
height=100))
cluster_stats.width = 500
cluster_stats.height = 100
cluster_commonality = Div(render_as_text=False,
text=generate_display_string(""))
cluster_commonality.width = 500
def main():
"""
The main function only describes both graphical and comunication parts of the app.
It creates and initializes all necessary widgets. At the end the function calls
doc.add_root to display the objects on a browser
:return:
"""
# Quasi constant
FrequencyRange = np.logspace(0, 5, 1000)
doc = curdoc()
# ========================== GRAPHICAL PART ================================
# CREATE ALL PLOTS:
Input = figure(title="", tools="", width=500, height=500)
Graph = VibroP_GraphObject([
"Wave Velocities", "Wave Velocities plus Limit Frequencies",
"Modes in Band", "Modal Density", "Modal Overlap Factor",
"Maximum Element Size (FEM)"
],
FrequencyRange,
Width=950,
Height=650)
Graph.defineContainers([
"WaveVelocity", "WaveVElocityLimitFreq", "ModesInBand", "ModalDensity",
"ModalOverlapFactor", "MaxElementSize"
"EigenFrequency"
])
# CREATE TABLES:
# ........................ Elastic Modulus table ...........................
ELASTIC_MODULUS_TITEL = Div(text="""ELASTIC MODULUS:""")
ElasticModulus = VibroP_InteractiveTable(TableName="ELASTIC MODULUS",
Rows=1,
Columns=3)
ElasticModulus.setTitels([[EMODUL_X, EMODUL_Y, EMODUL_Z]])
OrthotropicData = [["1.10E+10", "3.67E+08", "3.67E+08"]]
IsotropicData = [["1.10E+10", "1.10E+10", "1.10E+10"]]
ElasticModulus.setValues(OrthotropicData)
ElasticModulus.addBuffer(BufferName="DefaultIsotropic",
BufferData=IsotropicData)
ElasticModulus.addBuffer(BufferName="DefaultOrthotropic",
BufferData=OrthotropicData)
ElasticModulus.addBuffer(BufferName="GeneralIsotropic",
BufferData=IsotropicData)
ElasticModulus.addBuffer(BufferName="GeneralOrthotropic",
BufferData=OrthotropicData)
ElasticModulus.addBuffer(BufferName="Input", BufferData=OrthotropicData)
# ........................ Shear Modulus table .............................
SHEAR_MODULUS_TITEL = Div(text="""SHEAR MODULUS:""")
ShearModulus = VibroP_InteractiveTable(TableName="SHEAR MODULUS",
Rows=1,
Columns=3)
ShearModulus.setTitels([[EMODUL_XY, EMODUL_XZ, EMODUL_YZ]])
OrthotropicData = [["6.90E+08", "6.90E+08", "6.90E+07"]]
IsotropicData = [["6.90E+08", "6.90E+08", "6.90E+08"]]
ShearModulus.setValues(OrthotropicData)
ShearModulus.addBuffer(BufferName="DefaultIsotropic",
BufferData=IsotropicData)
ShearModulus.addBuffer(BufferName="DefaultOrthotropic",
BufferData=OrthotropicData)
ShearModulus.addBuffer(BufferName="GeneralIsotropic",
BufferData=IsotropicData)
ShearModulus.addBuffer(BufferName="GeneralOrthotropic",
BufferData=OrthotropicData)
ShearModulus.addBuffer(BufferName="Input", BufferData=OrthotropicData)
# ........................ Poissons ratios ................................
POISSON_RATIO_TITEL = Div(text="""POISSON'S RATIOS:""")
PoissonRatios = VibroP_InteractiveTable(TableName="POISSON'S RATIOS",
Rows=2,
Columns=3)
PoissonRatios.setTitels(
[[POISSON_RATIO_XY, POISSON_RATIO_XZ, POISSON_RATIO_YZ],
[
POISSON_RATIO_YX + "\t(auto)", POISSON_RATIO_ZX + "\t(auto)",
POISSON_RATIO_ZY + "\t(auto)"
]])
PoissonRatios.setDisabled(1, 0, True)
PoissonRatios.setDisabled(1, 1, True)
PoissonRatios.setDisabled(1, 2, True)
DataIsotropic = [["0.42", "0.42", "0.42"], ["0.42", "0.42", "0.42"]]
DataOrthotropic = [["0.42", "0.42", "0.3"], ["0.014", "0.014", "0.3"]]
PoissonRatios.setValues(DataOrthotropic)
PoissonRatios.addBuffer(BufferName="DefaultIsotropic",
BufferData=DataIsotropic)
PoissonRatios.addBuffer(BufferName="DefaultOrthotropic",
BufferData=DataOrthotropic)
PoissonRatios.addBuffer(BufferName="GeneralIsotropic",
BufferData=DataIsotropic)
PoissonRatios.addBuffer(BufferName="GeneralOrthotropic",
BufferData=DataOrthotropic)
PoissonRatios.addBuffer(BufferName="Input", BufferData=DataOrthotropic)
# ........................ Material Properties table .......................
MATERIALS_TITEL = Div(text="""FURTHER MATERIAL PROPERTIES:""")
MaterialProperties = VibroP_InteractiveTable(
TableName="MATERIAL PROPERTIES", Rows=1, Columns=2)
MaterialProperties.setTitels([["Density", "Loss Factor"]])
Data = [["450.0", "0.012"]]
MaterialProperties.setValues(Data)
MaterialProperties.setValues(Data)
MaterialProperties.addBuffer(BufferName="DefaultIsotropic",
BufferData=Data)
MaterialProperties.addBuffer(BufferName="DefaultOrthotropic",
BufferData=Data)
MaterialProperties.addBuffer(BufferName="General", BufferData=Data)
MaterialProperties.addBuffer(BufferName="Input", BufferData=Data)
# ........................ Geometry table .......................
GEOMETRY_TITEL = Div(text="""GEOMETRY:""")
GeometryProperties = VibroP_InteractiveTable(TableName="GEOMETRY",
Rows=1,
Columns=3)
GeometryProperties.setTitels(
[["Length", "Width", "Thicknesses of the layers*"]])
Data = [["2.5", "3.0", "0.027"]]
GeometryProperties.setValues(Data)
GeometryProperties.setValues(Data)
GeometryProperties.addBuffer(BufferName="DefaultIsotropic",
BufferData=Data)
GeometryProperties.addBuffer(BufferName="DefaultOrthotropic",
BufferData=Data)
GeometryProperties.addBuffer(BufferName="General", BufferData=Data)
GeometryProperties.addBuffer(BufferName="Input", BufferData=Data)
ElasticModulus.fillTableWithBufferData("DefaultOrthotropic")
ShearModulus.fillTableWithBufferData("DefaultOrthotropic")
PoissonRatios.fillTableWithBufferData("DefaultOrthotropic")
MaterialProperties.fillTableWithBufferData("DefaultOrthotropic")
GeometryProperties.fillTableWithBufferData("DefaultOrthotropic")
Tables = {
"ElasticModulus": ElasticModulus,
"ShearModulus": ShearModulus,
"PoissonRatios": PoissonRatios,
"MaterialProperties": MaterialProperties,
"GeometryProperties": GeometryProperties
}
# CREATE BUTTONS:
SetDefaultButton = Button(label="Default",
button_type="success",
width=100)
ApplyButton = Button(label="Apply", button_type="success", width=100)
# PrintReport = Button( label = "Print Report",
# button_type = "primary",
# width = 100 )
ShowInput = Button(label="Show Input", button_type="success", width=100)
ModeRadioButtons = RadioButtonGroup(
labels=["Orthotropic Material", "Isotropic Material"],
width=500,
active=0)
LayersInfo = VibroP_Message(Color="black",
Size=2,
MessageHeader="Number of layers: ")
WarningMessage = VibroP_Message(Color="red",
Size=3,
MessageHeader="Warning: ")
Info = Div(text="*Thicknesses of top to center layer separated by "
"semicolon or space: <br>"
" Symmetric cross section with odd number of layers"
" and crosswise layup assumed.",
render_as_text=False,
width=500,
height=40)
Scheme = Div(
text=
"<img src='/Vibroacoustic_plates/static/images/scheme.png' width=464 height=220>",
width=464,
height=220)
Description = Div(
text=
"The application \"Vibroacoustics of Plates\" can be classified in two steps: <br><br>"
"<b>1.</b> Insert the physical properties of a homogenous plate or of a single layer"
" in the case of a layered plate (default values are given) on the left and press <i>'Apply'</i>. <br><br>"
"<b>Notice</b> that in the case of a layered plate, a symmetric cross section"
" with an odd number of layers and a crosswise layup is assumed (cf. scheme)."
" Therefore, the thicknesses of the top to the center layer have to be inserted."
" The material properties are homogenized through the thickness."
" Thus, the input data of the single layer"
" is overwritten by homogenized material parameters of the plate after pressing <i>'Apply'</i>."
" The input data of the single layers can be checked by pressing the"
" button <i>'Show Input'</i>. <br><br>"
"<b>2.</b> On the right, dynamic properties of the plate and of"
" its wave types are plotted. These can be studied"
" using e.g. the zoom function and saved as .png.<br><br>"
" Please refer to the following publication for further explanations and references:<br><br>"
" Winter, C.: Frequency Dependent Modeling for the Prediction of the Sound Transmission in Timber Constructions. (2018).",
render_as_text=False,
width=1000,
height=50)
Title = Div(text="<b><h1> Vibroacoustics of Plates</b><h1>",
render_as_text=False,
width=900,
height=80)
# SPECIFY THE LAYOUT:
Buttons = row(
row(Spacer(width=50), ApplyButton, Spacer(width=50), ShowInput,
Spacer(width=50), SetDefaultButton))
Headline = row(column(Title, Description), Spacer(width=50), Scheme)
LeftSide = column(
ModeRadioButtons,
Spacer(height=20), ELASTIC_MODULUS_TITEL, ElasticModulus.Table,
Spacer(height=20), SHEAR_MODULUS_TITEL, ShearModulus.Table,
Spacer(height=20), POISSON_RATIO_TITEL, PoissonRatios.Table,
Spacer(height=20), MATERIALS_TITEL, MaterialProperties.Table,
Spacer(height=20), GEOMETRY_TITEL,
GeometryProperties.Table, LayersInfo.Widget, Spacer(height=10), Info,
Spacer(height=20), WarningMessage.Widget)
RightSide = column(Graph.Widget, Spacer(height=50), Buttons,
Spacer(height=100))
# ========================= COMMUNICATION PART =============================
# Set up callback function for the "Apply" button
ApplyButton.on_click(
partial(updateData, Tables, Graph, LayersInfo, WarningMessage))
# Set up callback function for all radion buttons that are responsible
# for changing the mode, namely: Isotropic and Orthotropic material properties
ModeRadioButtons.on_click(
partial(updateMode, Tables, WarningMessage, Graph))
# Set up callback function for all radion buttons that are responsible
# for plotting different graphs
Graph.GraphRadioButtons.on_click(partial(updateGraph, Graph))
# Set up callback function for all the "Default" button that are responsible
# for assigning the default data to all entries
SetDefaultButton.on_click(
partial(setDefaultSettings, Tables, Graph, LayersInfo, WarningMessage))
ShowInput.on_click(partial(showInput, Tables, LayersInfo))
# ================= RUN SIMULATION WITH DEFAULT DATA =====================
updateData(Tables, Graph, LayersInfo, WarningMessage)
# RUN ALL WIDGETS
doc.add_root(Headline)
doc.add_root(
column(Spacer(height=150),
row(LeftSide, Spacer(width=50), RightSide, Spacer(width=50))))
height=140)
tab_table_monitor_service = Panel(child=spectrum_table_monitor_service,
title="Moitor service")
tabs_monitor_service = Tabs(tabs=[tab_table_monitor_service])
iframe_text_2 = """<iframe src="http://172.16.16.12/WishfulWebPortal/only_usrp.html" height="350" width="1000" scrolling="no" frameBorder="0" ></iframe>"""
div = Div(text=iframe_text_2, width=600, height=270)
div_text = """"""
div_blank = Div(text=div_text, width=600, height=20)
button_group_channel_trace = RadioButtonGroup(
labels=["OFF", "2.412MHz", "2.437MHz", "2.462MHz", "2.484MHz"],
active=0,
width=400)
button_group_channel_trace.on_click(set_channel_trace_channel)
# tab_channel_trace_button = Panel(child=button_group_channel_trace, title="Channel")
# tabs_wifi = Tabs(tabs=[ tab_channel_trace_button ])
l1 = layout([[div_blank, button_group_channel_trace], [div]],
sizing_mode='fixed')
tab_channel_trace = Panel(child=div, title="Channel Trace")
tabs_channel_trace = Tabs(tabs=[tab_channel_trace])
div_blank_2 = Div(text=div_text, width=100, height=250)
plots = [[[tabs_channel_trace],
[
div_blank, button_group_channel_trace, div_blank_2,
tabs_monitor_service
], [tabs_active_networks_table]]]
# create buttons and add callbacks
# reset data
button_reset = Button(label='Reset', button_type='primary')
button_reset.on_click(lambda: callbacks.callback_button_reset(source, surface))
# add data on double tap
p.on_event(
DoubleTap, lambda event: callbacks.callback_add_dot_on_double_tap(
event, state, source))
# update model
button_update = Button(label='Train model', button_type='success')
button_update.on_click(lambda: callbacks.callback_button_update(
source, classifiers, state, surface))
# choose class
button_class = RadioButtonGroup(labels=['Class 0', 'Class 1'], active=0)
button_class.on_click(lambda event: callbacks.callback_change_current_state(
event, state.current_level))
# choose classifier
button_model = RadioButtonGroup(
labels=['Log. Reg.', 'Naive Bayes', 'SVC', 'RF'], active=0)
button_model.on_click(lambda event: callbacks.callback_change_current_state(
event, state.current_model))
# create document
curdoc().add_root(
column(p, row(button_class, button_model), row(button_update,
button_reset), table))
department=[6, 0, 3, 2],
credit=[4, 8, 3, 0],
instructor=[5, 2, 6, 4]
)
columns = [
TableColumn(field="course_ID", title="Course ID"),
TableColumn(field="title", title="Title"),
TableColumn(field="department", title="Department"),
TableColumn(field="credit", title="Credit"),
TableColumn(field="instructor", title="Instructor")
]
data_source = ColumnDataSource(table_data)
table1 = DataTable(source=data_source, columns=columns, width=1000, height=1000)
# callbacks
btnGroupPosition1.on_click(partial(onClick, 'Position1'))
## Change Plot -- layout2
# widgets
btnGroupPosition2 = RadioButtonGroup(labels=['All', 'Top', 'Jug', 'Mid', 'ADC', 'Sup'], active=0)
btnGroupType1 = RadioButtonGroup(labels=['Win Rate', 'Pick Rate', 'Ban Rate'], active=0)
# callbacks
btnGroupPosition2.on_click(partial(onClick, 'Position2'))
btnGroupType1.on_click(partial(onClick, 'Type1'))
oo = column(children=[
exptime, diameter, resolution, temperature, ntherm, dtmax, gain,
ground_based
])
pp = column(children=[template, magnitude])
qq = column(children=[
instruction0, text_input, instruction1, format_button_group, instruction2,
link_box
])
#ii = column(children=[inner, outer, dtmax])
#ee = column(children=[want_snr])
observation_tab = Panel(child=oo, title='Observation')
planet_tab = Panel(child=pp, title='Target')
#instrument_tab = Panel(child=ii, title='Instrumentation')
download_tab = Panel(child=qq, title='Download')
for w in [text_input]:
w.on_change('value', change_filename)
format_button_group.on_click(i_clicked_a_button)
for ww in [template]:
ww.on_change('value', update_data)
for gg in [ground_based]:
gg.on_change('value', update_data)
inputs = Tabs(tabs=[planet_tab, observation_tab, download_tab])
curdoc().add_root(row(inputs, ptabs))
def slider_change(attr, old, new):
global interval
interval = (10 * max_interval + min_interval + new * (min_interval - max_interval)) / 9
if play:
curdoc().remove_periodic_callback(update)
curdoc().add_periodic_callback(update, interval)
def button_group_click(new):
global play
if new == 0: # play
play = True
curdoc().add_periodic_callback(update, interval)
else:
play = False
curdoc().remove_periodic_callback(update)
def button_click():
global X, step
step = 1
X = np.copy(X_init)
redraw()
slider.on_change("value", slider_change)
button_group.on_click(button_group_click)
button.on_click(button_click)
session.show(row(wb, p1, p2))
session.loop_until_closed()
class Dashboard:
"""Explorepy dashboard class"""
def __init__(self, n_chan, mode="signal"):
self.n_chan = n_chan
self.y_unit = DEFAULT_SCALE
self.offsets = np.arange(1, self.n_chan + 1)[:, np.newaxis].astype(float)
self.chan_key_list = ['Ch' + str(i + 1) for i in range(self.n_chan)]
self.exg_mode = 'EEG'
self.rr_estimator = None
self.win_length = WIN_LENGTH
self.mode = mode
# Init ExG data source
exg_temp = np.zeros((n_chan, 2))
exg_temp[:, 0] = self.offsets[:, 0]
exg_temp[:, 1] = np.nan
init_data = dict(zip(self.chan_key_list, exg_temp))
init_data['t'] = np.array([0., 0.])
self.exg_source = ColumnDataSource(data=init_data)
# Init ECG R-peak source
init_data = dict(zip(['r_peak', 't'], [np.array([None], dtype=np.double), np.array([None], dtype=np.double)]))
self.r_peak_source = ColumnDataSource(data=init_data)
# Init ORN data source
init_data = dict(zip(ORN_LIST, np.zeros((9, 1))))
init_data['t'] = [0.]
self.orn_source = ColumnDataSource(data=init_data)
# Init table sources
self.heart_rate_source = ColumnDataSource(data={'heart_rate': ['NA']})
self.firmware_source = ColumnDataSource(data={'firmware_version': ['NA']})
self.battery_source = ColumnDataSource(data={'battery': ['NA']})
self.temperature_source = ColumnDataSource(data={'temperature': ['NA']})
self.light_source = ColumnDataSource(data={'light': ['NA']})
self.battery_percent_list = []
self.server = None
# Init fft data source
init_data = dict(zip(self.chan_key_list, np.zeros((self.n_chan, 1))))
init_data['f'] = np.array([0.])
self.fft_source = ColumnDataSource(data=init_data)
# Init impedance measurement source
init_data = {'channel': [CHAN_LIST[i] for i in range(0, self.n_chan)],
'impedance': ['NA' for i in range(self.n_chan)],
'row': ['1' for i in range(self.n_chan)],
'color': ['black' for i in range(self.n_chan)]}
self.imp_source = ColumnDataSource(data=init_data)
def start_server(self):
"""Start bokeh server"""
validation = validate(False)
self.server = Server({'/': self._init_doc}, num_procs=1)
self.server.start()
def start_loop(self):
"""Start io loop and show the dashboard"""
self.server.io_loop.add_callback(self.server.show, "/")
self.server.io_loop.start()
def _init_doc(self, doc):
self.doc = doc
self.doc.title = "Explore Dashboard"
# Create plots
self._init_plots()
# Create controls
m_widgetbox = self._init_controls()
# Create tabs
exg_tab = Panel(child=self.exg_plot, title="ExG Signal")
orn_tab = Panel(child=column([self.acc_plot, self.gyro_plot, self.mag_plot], sizing_mode='fixed'),
title="Orientation")
fft_tab = Panel(child=self.fft_plot, title="Spectral analysis")
imp_tab = Panel(child=self.imp_plot, title="Impedance")
if self.mode == "signal":
self.tabs = Tabs(tabs=[exg_tab, orn_tab, fft_tab], width=1200)
elif self.mode == "impedance":
self.tabs = Tabs(tabs=[imp_tab], width=1200)
self.doc.add_root(row([m_widgetbox, self.tabs]))
self.doc.add_periodic_callback(self._update_fft, 2000)
self.doc.add_periodic_callback(self._update_heart_rate, 2000)
@gen.coroutine
def update_exg(self, time_vector, ExG):
"""update_exg()
Update ExG data in the visualization
Args:
time_vector (list): time vector
ExG (np.ndarray): array of new data
"""
# Update ExG data
ExG = self.offsets + ExG / self.y_unit
new_data = dict(zip(self.chan_key_list, ExG))
new_data['t'] = time_vector
self.exg_source.stream(new_data, rollover=2 * EEG_SRATE * WIN_LENGTH)
@gen.coroutine
def update_orn(self, timestamp, orn_data):
"""Update orientation data
Args:
timestamp (float): timestamp of the sample
orn_data (float vector): Vector of orientation data with shape of (9,)
"""
new_data = dict(zip(ORN_LIST, np.array(orn_data)[:, np.newaxis]))
new_data['t'] = [timestamp]
self.orn_source.stream(new_data, rollover=2 * WIN_LENGTH * ORN_SRATE)
@gen.coroutine
def update_info(self, new):
"""Update device information in the dashboard
Args:
new(dict): Dictionary of new values
"""
for key in new.keys():
data = {key: new[key]}
if key == 'firmware_version':
self.firmware_source.stream(data, rollover=1)
elif key == 'battery':
self.battery_percent_list.append(new[key][0])
if len(self.battery_percent_list) > N_MOVING_AVERAGE:
del self.battery_percent_list[0]
value = int(np.mean(self.battery_percent_list) / 5) * 5
if value < 1:
value = 1
self.battery_source.stream({key: [value]}, rollover=1)
elif key == 'temperature':
self.temperature_source.stream(data, rollover=1)
elif key == 'light':
data[key] = [int(data[key][0])]
self.light_source.stream(data, rollover=1)
else:
print("Warning: There is no field named: " + key)
@gen.coroutine
def _update_fft(self):
""" Update spectral frequency analysis plot
"""
# Check if the tab is active and if EEG mode is active
if (self.tabs.active != 2) or (self.exg_mode != 'EEG'):
return
exg_data = np.array([self.exg_source.data[key] for key in self.chan_key_list])
# Check if the length of data is enough for FFT
if exg_data.shape[1] < EEG_SRATE * 4.5:
return
fft_content, freq = get_fft(exg_data)
data = dict(zip(self.chan_key_list, fft_content))
data['f'] = freq
self.fft_source.data = data
@gen.coroutine
def _update_heart_rate(self):
"""Detect R-peaks and update the plot and heart rate"""
if self.exg_mode == 'EEG':
self.heart_rate_source.stream({'heart_rate': ['NA']}, rollover=1)
return
if self.rr_estimator is None:
self.rr_estimator = HeartRateEstimator()
# Init R-peaks plot
self.exg_plot.circle(x='t', y='r_peak', source=self.r_peak_source,
fill_color="red", size=8)
ecg_data = (np.array(self.exg_source.data['Ch1'])[-500:] - self.offsets[0]) * self.y_unit
time_vector = np.array(self.exg_source.data['t'])[-500:]
# Check if the peak2peak value is bigger than threshold
if (np.ptp(ecg_data) < V_TH[0]) or (np.ptp(ecg_data) > V_TH[1]):
print("P2P value larger or less than threshold!")
return
peaks_time, peaks_val = self.rr_estimator.estimate(ecg_data, time_vector)
peaks_val = (np.array(peaks_val)/self.y_unit) + self.offsets[0]
if peaks_time:
data = dict(zip(['r_peak', 't'], [peaks_val, peaks_time]))
self.r_peak_source.stream(data, rollover=50)
# Update heart rate cell
estimated_heart_rate = self.rr_estimator.heart_rate
data = {'heart_rate': [estimated_heart_rate]}
self.heart_rate_source.stream(data, rollover=1)
@gen.coroutine
def update_imp(self, imp):
if self.mode == "impedance":
color = []
imp_str = []
for x in imp:
if x > 500:
color.append("black")
imp_str.append("Open")
elif x > 100:
color.append("red")
imp_str.append(str(round(x, 0))+" K\u03A9")
elif x > 50:
color.append("orange")
imp_str.append(str(round(x, 0))+" K\u03A9")
elif x > 10:
color.append("yellow")
imp_str.append(str(round(x, 0))+" K\u03A9")
elif x > 5:
imp_str.append(str(round(x, 0)) + " K\u03A9")
color.append("green")
else:
color.append("green")
imp_str.append("<5K\u03A9") # As the ADS is not precise in low values.
data = {"impedance": imp_str,
'channel': [CHAN_LIST[i] for i in range(0, self.n_chan)],
'row': ['1' for i in range(self.n_chan)],
'color': color
}
self.imp_source.stream(data, rollover=self.n_chan)
else:
raise RuntimeError("Trying to compute impedances while the dashboard is not in Impedance mode!")
@gen.coroutine
def _change_scale(self, attr, old, new):
"""Change y-scale of ExG plot"""
new, old = SCALE_MENU[new], SCALE_MENU[old]
old_unit = 10 ** (-old)
self.y_unit = 10 ** (-new)
for ch, value in self.exg_source.data.items():
if ch in CHAN_LIST:
temp_offset = self.offsets[CHAN_LIST.index(ch)]
self.exg_source.data[ch] = (value - temp_offset) * (old_unit / self.y_unit) + temp_offset
self.r_peak_source.data['r_peak'] = (np.array(self.r_peak_source.data['r_peak'])-self.offsets[0]) *\
(old_unit / self.y_unit) + self.offsets[0]
@gen.coroutine
def _change_t_range(self, attr, old, new):
"""Change time range"""
self._set_t_range(TIME_RANGE_MENU[new])
@gen.coroutine
def _change_mode(self, new):
"""Set EEG or ECG mode"""
self.exg_mode = MODE_LIST[new]
def _init_plots(self):
"""Initialize all plots in the dashboard"""
self.exg_plot = figure(y_range=(0.01, self.n_chan + 1 - 0.01), y_axis_label='Voltage', x_axis_label='Time (s)',
title="ExG signal",
plot_height=600, plot_width=1270,
y_minor_ticks=int(10),
tools=[ResetTool()], active_scroll=None, active_drag=None,
active_inspect=None, active_tap=None)
self.mag_plot = figure(y_axis_label='Magnetometer [mgauss/LSB]', x_axis_label='Time (s)',
plot_height=230, plot_width=1270,
tools=[ResetTool()], active_scroll=None, active_drag=None,
active_inspect=None, active_tap=None)
self.acc_plot = figure(y_axis_label='Accelerometer [mg/LSB]',
plot_height=190, plot_width=1270,
tools=[ResetTool()], active_scroll=None, active_drag=None,
active_inspect=None, active_tap=None)
self.acc_plot.xaxis.visible = False
self.gyro_plot = figure(y_axis_label='Gyroscope [mdps/LSB]',
plot_height=190, plot_width=1270,
tools=[ResetTool()], active_scroll=None, active_drag=None,
active_inspect=None, active_tap=None)
self.gyro_plot.xaxis.visible = False
self.fft_plot = figure(y_axis_label='Amplitude (uV)', x_axis_label='Frequency (Hz)', title="FFT",
x_range=(0, 70), plot_height=600, plot_width=1270, y_axis_type="log")
self.imp_plot = self._init_imp_plot()
# Set yaxis properties
self.exg_plot.yaxis.ticker = SingleIntervalTicker(interval=1, num_minor_ticks=10)
# Initial plot line
for i in range(self.n_chan):
self.exg_plot.line(x='t', y=CHAN_LIST[i], source=self.exg_source,
line_width=1.5, alpha=.9, line_color="#42C4F7")
self.fft_plot.line(x='f', y=CHAN_LIST[i], source=self.fft_source, legend=CHAN_LIST[i] + " ",
line_width=2, alpha=.9, line_color=FFT_COLORS[i])
for i in range(3):
self.acc_plot.line(x='t', y=ORN_LIST[i], source=self.orn_source, legend=ORN_LIST[i] + " ",
line_width=1.5, line_color=LINE_COLORS[i], alpha=.9)
self.gyro_plot.line(x='t', y=ORN_LIST[i + 3], source=self.orn_source, legend=ORN_LIST[i + 3] + " ",
line_width=1.5, line_color=LINE_COLORS[i], alpha=.9)
self.mag_plot.line(x='t', y=ORN_LIST[i + 6], source=self.orn_source, legend=ORN_LIST[i + 6] + " ",
line_width=1.5, line_color=LINE_COLORS[i], alpha=.9)
# Set x_range
self.plot_list = [self.exg_plot, self.acc_plot, self.gyro_plot, self.mag_plot]
self._set_t_range(WIN_LENGTH)
self.exg_plot.ygrid.minor_grid_line_color = 'navy'
self.exg_plot.ygrid.minor_grid_line_alpha = 0.05
# Set the formatting of yaxis ticks' labels
self.exg_plot.yaxis[0].formatter = PrintfTickFormatter(format="Ch %i")
# Autohide toolbar/ Legend location
for plot in self.plot_list:
plot.toolbar.autohide = True
plot.background_fill_color = "#fafafa"
if len(plot.legend) != 0:
plot.legend.location = "bottom_left"
plot.legend.orientation = "horizontal"
plot.legend.padding = 2
def _init_imp_plot(self):
p = figure(plot_width=600, plot_height=200, x_range=CHAN_LIST[0:self.n_chan],
y_range=[str(1)], toolbar_location=None)
p.circle(x='channel', y="row", radius=.3, source=self.imp_source, fill_alpha=0.6, color="color",
line_color='color', line_width=2)
text_props = {"source": self.imp_source, "text_align": "center",
"text_color": "black", "text_baseline": "middle", "text_font": "helvetica",
"text_font_style": "bold"}
x = dodge("channel", -0.1, range=p.x_range)
r = p.text(x=x, y=dodge('row', -.4, range=p.y_range), text="impedance", **text_props)
r.glyph.text_font_size = "10pt"
r = p.text(x=x, y=dodge('row', -.3, range=p.y_range), text="channel", **text_props)
r.glyph.text_font_size = "12pt"
p.outline_line_color = None
p.grid.grid_line_color = None
p.axis.axis_line_color = None
p.axis.major_tick_line_color = None
p.axis.major_label_standoff = 0
p.axis.visible = False
return p
def _init_controls(self):
"""Initialize all controls in the dashboard"""
# EEG/ECG Radio button
self.mode_control = RadioButtonGroup(labels=MODE_LIST, active=0)
self.mode_control.on_click(self._change_mode)
self.t_range = Select(title="Time window", value="10 s", options=list(TIME_RANGE_MENU.keys()), width=210)
self.t_range.on_change('value', self._change_t_range)
self.y_scale = Select(title="Y-axis Scale", value="1 mV", options=list(SCALE_MENU.keys()), width=210)
self.y_scale.on_change('value', self._change_scale)
# Create device info tables
columns = [TableColumn(field='heart_rate', title="Heart Rate (bpm)")]
self.heart_rate = DataTable(source=self.heart_rate_source, index_position=None, sortable=False,
reorderable=False,
columns=columns, width=200, height=50)
columns = [TableColumn(field='firmware_version', title="Firmware Version")]
self.firmware = DataTable(source=self.firmware_source, index_position=None, sortable=False, reorderable=False,
columns=columns, width=200, height=50)
columns = [TableColumn(field='battery', title="Battery (%)")]
self.battery = DataTable(source=self.battery_source, index_position=None, sortable=False, reorderable=False,
columns=columns, width=200, height=50)
columns = [TableColumn(field='temperature', title="Temperature (C)")]
self.temperature = DataTable(source=self.temperature_source, index_position=None, sortable=False,
reorderable=False, columns=columns, width=200, height=50)
columns = [TableColumn(field='light', title="Light (Lux)")]
self.light = DataTable(source=self.light_source, index_position=None, sortable=False, reorderable=False,
columns=columns, width=200, height=50)
# Add widgets to the doc
m_widgetbox = widgetbox([self.mode_control, self.y_scale, self.t_range, self.heart_rate,
self.battery, self.temperature, self.light, self.firmware], width=220)
return m_widgetbox
def _set_t_range(self, t_length):
"""Change time range of ExG and orientation plots"""
for plot in self.plot_list:
self.win_length = int(t_length)
plot.x_range.follow = "end"
plot.x_range.follow_interval = t_length
plot.x_range.range_padding = 0.
plot.x_range.min_interval = t_length
#dropdown_split.js_on_click(CustomJS(code="console.log('dropdown_split: ' + this.value, this.toString())"))
checkbox_group = CheckboxGroup(labels=["Option 1", "Option 2", "Option 3"], active=[0, 1])
checkbox_group.on_click(lambda value: print('checkbox_group: %s' % value))
checkbox_group.js_on_click(CustomJS(code="console.log('checkbox_group: ' + this.active, this.toString())"))
radio_group = RadioGroup(labels=["Option 1", "Option 2", "Option 3"], active=0)
radio_group.on_click(lambda value: print('radio_group: %s' % value))
radio_group.js_on_click(CustomJS(code="console.log('radio_group: ' + this.active, this.toString())"))
checkbox_button_group = CheckboxButtonGroup(labels=["Option 1", "Option 2", "Option 3"], active=[0, 1])
checkbox_button_group.on_click(lambda value: print('checkbox_button_group: %s' % value))
checkbox_button_group.js_on_click(CustomJS(code="console.log('checkbox_button_group: ' + this.active, this.toString())"))
radio_button_group = RadioButtonGroup(labels=["Option 1", "Option 2", "Option 3"], active=0)
radio_button_group.on_click(lambda value: print('radio_button_group: %s' % value))
radio_button_group.js_on_click(CustomJS(code="console.log('radio_button_group: ' + this.active, this.toString())"))
widgetBox = WidgetBox(children=[
button, button_disabled,
toggle_inactive, toggle_active,
dropdown, dropdown_disabled, #dropdown_split,
checkbox_group, radio_group,
checkbox_button_group, radio_button_group,
])
document = curdoc()
document.add_root(widgetBox)
if __name__ == "__main__":
session = push_session(document)
def createClusterFigure(doc):
active_gene = None
print('Starting Document....')
if doc.session_context.request.arguments is not None:
args = doc.session_context.request.arguments
dataPath = doc.session_context.db_path
if dataPath != 'None':
dataSet = sc.read_h5ad(dataPath)
else:
dataSet = sc.read_h5ad('/app/ProcessedData.h5ad')
geneList = [(args[x][0].decode())for x in args.keys() if 'Gene' in x]
if 'None' not in geneList and len(geneList) is not 0:
print(geneList[0])
active_gene = geneList[0]
def makePlot(doc, active_gene, adata):
cdsDict = {}
cdsDict['x'] = adata.obsm['X_umap'][:, 0]
cdsDict['y'] = adata.obsm['X_umap'][:, 1]
single_gene_colors = []
# Color by Cluster
color_Dict = dict(zip(adata.obs['louvain'].cat.categories, adata.uns['louvain_colors']))
colors = [
color_Dict[cluster] for cluster in adata.obs['louvain'] if cluster in color_Dict.keys()
]
cdsDict['color'] = colors
# Color by n_genes
gene_colors = []
for x, y, z, _ in 255 * mpl.cm.viridis(mpl.colors.Normalize()(adata.obs['n_genes'].tolist())):
gene_colors.append("#%02x%02x%02x" % (int(x), int(y), int(z)))
cdsDict['gene_colors'] = gene_colors
if active_gene is not None:
# Sort matrix by gene columnthen normalize the count values
geneExpression = adata.X[:, adata.var.index == active_gene].flatten()
single_gene_colors = []
for x, y, z, _ in 255 * mpl.cm.viridis(mpl.colors.Normalize()(geneExpression)):
single_gene_colors.append("#%02x%02x%02x" % (int(x), int(y), int(z)))
if len(single_gene_colors) == 2638:
cdsDict['single_gene'] = single_gene_colors
source = ColumnDataSource(cdsDict)
# source = ColumnDataSource(dict( x=adata.obsm['X_umap'][:, 0], y=adata.obsm['X_umap'][:, 1], color=colors, gene_colors=gene_colors, single_gene=single_gene_colors))
title = 'T-SNE visualization of sequences'
geneTitle = 'n_genes'
plotDict = {}
plot_lda = figure(plot_width=800, plot_height=600, title=title, tools="pan,wheel_zoom,box_zoom,reset,hover,previewsave", x_axis_type=None, y_axis_type=None, min_border=1)
plot_lda.scatter(x='x', y='y', legend='label', source=source, color='color',
alpha=0.8, size=5)
plotDict['tsne'] = plot_lda
genePlot = figure(plot_width=800, plot_height=600, title=geneTitle, tools="pan,wheel_zoom,box_zoom,reset,hover,previewsave", x_axis_type=None, y_axis_type=None, min_border=1)
genePlot.scatter(x='x', y='y', legend='label', source=source, color='gene_colors',
alpha=0.8, size=5)
plotDict['nGene'] = genePlot
if 'single_gene' in cdsDict.keys():
singleGene = figure(plot_width=800, plot_height=600, title=active_gene, tools="pan,wheel_zoom,box_zoom,reset,hover,previewsave", x_axis_type=None, y_axis_type=None, min_border=1)
singleGene.scatter(x='x', y='y', legend='label', source=source, color='single_gene', alpha=0.8, size=5)
plotDict['sGene'] = singleGene
return plotDict
def update(new):
active_gene = geneList[new]
sgCol.children[0] = makePlot(doc, active_gene, dataSet)['sGene']
plotDict = makePlot(doc, active_gene, dataSet)
# hover tools
hover = plotDict['tsne'].select(dict(type=HoverTool))
hover.tooltips = {"content": "Sequence: @seq, CCS: @ccs, Charge: @charge "}
plotDict['tsne'].legend.location = "top_left"
button_group = RadioButtonGroup(labels=geneList)
button_group.on_click(update)
tabList = []
if 'sGene' in plotDict.keys():
controls = widgetbox([button_group], width=800)
sgCol = column(plotDict['sGene'], controls)
sgTab = Panel(child=sgCol, title="Single Gene")
tabList.append(sgTab)
tsneTab = Panel(child=plotDict['tsne'], title="Louvain")
tabList.append(tsneTab)
nGeneTab = Panel(child=plotDict['nGene'], title="nGene")
tabList.append(nGeneTab)
tabs = Tabs(tabs=tabList)
doc.add_root(tabs)
return doc
# ------------------------------------------------------------------------------
# ------------- Create the gridplot containing 9 sensors scatter plot ----------
# ------------------------------------------------------------------------------
CDSs = []
for i in range(len(sensors)):
data = {'x': range(2208), 'y': Readings[i][0]}
for j in range(len(chems)):
data[chems[j]] = Readings[i][j]
CDS = ColumnDataSource(data=data)
CDSs.append(CDS)
# Create 4 panels, each with 9 figures, one for each sensor
chem_select = RadioButtonGroup(labels=chems, active=0)
chem_select.on_click(chem_callback)
figures = []
for j in range(len(sensors)):
fig = figure(plot_width=300,
plot_height=300,
y_range=[0, 10],
tools=['wheel_zoom', 'pan', 'reset'],
title="Sensor " + str(j + 1))
dots = fig.circle(x='x', y='y', source=CDSs[j])
fig.xaxis.ticker = []
fig.xaxis.axis_label = "Time"
fig.yaxis.axis_label = "Sensor Reading"
figures.append(fig)
dropdown = Dropdown(label="Dropdown button", type="warning", menu=menu)
dropdown.on_click(dropdown_handler)
menu = [("Item 1", "foo"), ("Item 2", "bar"), None, ("Item 3", "baz")]
split = Dropdown(label="Split button", type="danger", menu=menu, default_action="baz")
split.on_click(split_handler)
checkbox_group = CheckboxGroup(labels=["Option 1", "Option 2", "Option 3"], active=[0, 1])
checkbox_group.on_click(checkbox_group_handler)
radio_group = RadioGroup(labels=["Option 1", "Option 2", "Option 3"], active=0)
radio_group.on_click(radio_group_handler)
checkbox_button_group = CheckboxButtonGroup(labels=["Option 1", "Option 2", "Option 3"], active=[0, 1])
checkbox_button_group.on_click(checkbox_button_group_handler)
radio_button_group = RadioButtonGroup(labels=["Option 1", "Option 2", "Option 3"], active=0)
radio_button_group.on_click(radio_button_group_handler)
vbox = VBox(children=[button, toggle, dropdown, split, checkbox_group, radio_group, checkbox_button_group, radio_button_group])
document.add(vbox)
session.store_document(document)
if __name__ == "__main__":
link = session.object_link(document.context)
print("Please visit %s to see the plots" % link)
view(link)
print("\npress ctrl-C to exit")
session.poll_document(document)
def showall_handler():
for w in visibility_widgets:
w.active = list(range(len(w.labels)))
layout.children[0] = create_figure()
def hideall_handler():
for w in visibility_widgets:
w.active = []
layout.children[0] = create_figure()
modelboxes.on_click(handler)
datasetboxes.on_click(handler)
filterboxes.on_click(handler)
showall.on_click(showall_handler)
hideall.on_click(hideall_handler)
modelsort.on_click(handler)
datasetsort.on_click(handler)
filtersort.on_click(handler)
legendtext = ('\n'*8 + 'Solid: SVM Score\nOutline: RF Score\n\n' +
'Green: UK\nPink: US\nOrange: Mixed\n' +
'Purple: Reverse Split\nBlue: Split\n\n' +
'Circle: Complete\nDiamond: Filtered')
controls = widgetbox([PreText(text='Choose Visible Items')] +
visibility_widgets + [showall, hideall] +
[PreText(text='Choose What to Sort Kmers by')] +
sort_widgets +
[PreText(text=legendtext)])
layout = row(create_figure(), controls)
curdoc().add_root(layout)
default_value="baz")
split.on_click(split_handler)
checkbox_group = CheckboxGroup(labels=["Option 1", "Option 2", "Option 3"],
active=[0, 1])
checkbox_group.on_click(checkbox_group_handler)
radio_group = RadioGroup(labels=["Option 1", "Option 2", "Option 3"], active=0)
radio_group.on_click(radio_group_handler)
checkbox_button_group = CheckboxButtonGroup(
labels=["Option 1", "Option 2", "Option 3"], active=[0, 1])
checkbox_button_group.on_click(checkbox_button_group_handler)
radio_button_group = RadioButtonGroup(
labels=["Option 1", "Option 2", "Option 3"], active=0)
radio_button_group.on_click(radio_button_group_handler)
vbox = VBox(children=[
button, toggle, dropdown, split, checkbox_group, radio_group,
checkbox_button_group, radio_button_group
])
document = Document()
document.add_root(vbox)
session = push_session(document)
session.show()
if __name__ == "__main__":
session.loop_until_closed()
readsUpload.on_change('value', upload_reads_data)
fastaUploadTitle = Div(text='Fusion fragments aligned to original reads file (.bed, optional)')
fastaUpload = FileInput(accept=".bed", name='fareads')
informUser = Div(text='updates will appear here', name='informUser')
tableSource.selected.on_change('indices', table_click_callback)
buttonSource = ColumnDataSource(data=dict(press=[0], figs=[2]))
def buttonClick(attr):
hiddenButtonSource.data.update(ColumnDataSource({"selected":[attr]}).data)
table_click_callback(0, 0, 0)
def saveClick(attr):
# currLayout = curdoc().get_model_by_name('mainLayout').children
# curdoc().get_model_by_name()
# for i in length of plots:
# export_png(curdoc().get_model_by_name("p"+string(length)), filename="plot0.png")
export_png(curdoc().get_model_by_name("p0"), filename="plot0.png")
export_png(curdoc().get_model_by_name("p1"), filename="plot1.png")
curdoc().get_model_by_name('informUser').text = 'files saved'
#https://stackoverflow.com/questions/34465697/python-bokeh-radio-button-group
buttons = RadioButtonGroup(labels=['Full View', 'Remapped Alignment View', 'Isoform Full Length View'], active=0)
buttons.on_click(buttonClick)
button = Button(label="Save")
button.on_click(saveClick)
subColumn = column([pageTitle, fusionUploadTitle, fusionUpload, readsUploadTitle, readsUpload, fastaUploadTitle, fastaUpload, buttons, button, informUser, data_table], name='subColumn')
mainLayout = row([subColumn, pl, pr], name='mainLayout')
curdoc().add_root(mainLayout)
unload_file_button = Button(label="Unload", button_type="danger", width=50)
unload_file_button.on_click(unload_file)
# files selection box
files_selector = Select(title="Files:", options=[""])
files_selector.on_change('value', change_data_selector)
# data selection box
data_selector = MultiSelect(title="Data:", options=[], size=12)
data_selector.on_change('value', select_data)
# x axis selection box
x_axis_selector_title = Div(text="""X Axis:""", height=10)
x_axis_selector = RadioButtonGroup(labels=x_axis_options, active=0)
x_axis_selector.on_click(change_x_axis)
# toggle second axis button
toggle_second_axis_button = Button(label="Toggle Second Axis", button_type="success")
toggle_second_axis_button.on_click(toggle_second_axis)
# averaging slider
# This data source is just used to communicate / trigger the real callback
averaging_slider_dummy_source = ColumnDataSource(data=dict(value=[]))
averaging_slider_dummy_source.on_change('data', update_averaging)
averaging_slider = Slider(title="Averaging window", start=1, end=101, step=10, callback_policy='mouseup')
averaging_slider.callback = CustomJS(args=dict(source=averaging_slider_dummy_source), code="""
source.data = { value: [cb_obj.value] }
""")
# group properties checkbox
def SIF_Explorer_tab():
#################################
# Initialize all layers
#################################
# Load from a save file
if path.exists(LAYERS_FILE):
with open(LAYERS_FILE, 'rb') as layers_file:
us_county_layer, us_state_layer, world_grid_2_degree_layer = pickle.load(layers_file)
# Load from scratch
else:
us_county_layer = US_County_Layer()
us_state_layer = US_State_Layer()
world_grid_2_degree_layer = US_World_Grid_2_Degree_Layer()
# Save the layers to file
with open(LAYERS_FILE, 'wb') as layers_file:
layers = (us_county_layer, \
us_state_layer, world_grid_2_degree_layer)
pickle.dump(layers, layers_file)
# Want the custom layer to be new every time
custom_shapes_layer = Custom_Shapes_Layer()
world_grid_dynamic_layer = World_Grid_Dynamic_Layer()
# Set the active layer to be the county layer
active_layer = us_county_layer
#################################
# Set up layer selector
#################################
# Once a new layer is selected, use that layer to refresh the page
# and all data
def refresh_page():
# Get initial map details
xs, ys, names = active_layer.get_map_details()
if type(active_layer) != Custom_Shapes_Layer:
# Obtain and update date boundaries
start_date, end_date = active_layer.get_date_range()
date_range_slider.start = start_date
date_range_slider.end = end_date
# Unpack the current range
range_start, range_end = date_range_slider.value
# Convert to SQL format
range_start = utc_from_timestamp(range_start)
range_end = utc_from_timestamp(range_end)
# Get the initial sif values
sifs = active_layer.get_data_for_date_range(range_start,
range_end)
# Dictionary to hold the data
new_source_dict = dict(
x= xs, y= ys,
name= np.array(names), sifs= np.array(sifs))
# Update all source data values
source.data = new_source_dict
# Turn off custom layer
custom_data_source.data = dict(x= np.array([]), y= np.array([]),
name = np.array([]))
else:
# Turn off the other layers
source.data = dict(x= np.array([]), y= np.array([]),
name= np.array([]), sifs= np.array([]))
# Safeguard - that at least one custom shape is drawn
if (xs.size != 0):
# Dictionary to hold the selected shape data
new_source_dict = dict(
x= xs, y= ys,
name = np.array(names))
custom_data_source.data = new_source_dict
# Trigger for when a new layer is selected
def layer_selected(new):
# We want to modify the overall active layer (not local to this func)
nonlocal active_layer
# Simple dictionary to switch out the active layer
switcher = {
0 : custom_shapes_layer,
1 : us_state_layer,
2 : us_county_layer,
3 : world_grid_2_degree_layer,
4 : world_grid_dynamic_layer,
}
# Swap out the active layer
active_layer = switcher.get(new, active_layer)
# Fetch new dates, shapes, names, etc. and refresh the page
refresh_page()
# Define selection labels
layer_selector = RadioButtonGroup(
labels=["Custom", "US States", "US Counties",
"World", "World (Dynamic)"], active=2)
# Set up layer selection callback
layer_selector.on_click(layer_selected)
#################################
# Set up date range slider
#################################
# Obtain date boundaries
start_date, end_date = active_layer.get_date_range()
# create a callback for when the date slider is changed
def date_range_selected(attr, old, new):
t0 = time.time()
# Unpack the new range
range_start, range_end = new
# Convert to SQL format
range_start = utc_from_timestamp(range_start)
range_end = utc_from_timestamp(range_end)
# Get the new day's data
sifs = active_layer.get_data_for_date_range(range_start, range_end)
# Update the sif values
source.data["sifs"] = np.array(sifs)
# Set the title of the map to reflect the selected date range
p.title.text = "SIF Average: %s to %s" % (range_start, range_end)
print("Took " + str(time.time() - t0) + " seconds to update")
# Create the date slider
date_range_slider = DateRangeSlider(title="Date Range: ",
start=start_date, end=end_date,
value=(START_DATE_INIT,
END_DATE_INIT), step=1)
# Assign the callback for when the date slider changes
date_range_slider.callback_policy = "throttle"
date_range_slider.callback_throttle = 200
date_range_slider.on_change('value_throttled', date_range_selected)
#################################
# Set up the map and its source
#################################
# Get initial map details
xs, ys, names = active_layer.get_map_details()
# Get the initial sif values
sifs = active_layer.get_data_for_date_range(START_DATE_INIT,
END_DATE_INIT)
# Dictionary to hold the data
source=ColumnDataSource(data = dict(
x= np.array(xs),
y= np.array(ys),
name= np.array(names),
sifs= np.array(sifs))
)
# Which tools should be available to the user
TOOLS = "pan,wheel_zoom,reset,hover,save,tap"
# Obtain map provider
tile_provider = get_provider(Vendors.CARTODBPOSITRON_RETINA)
# tile_options = {}
# tile_options['url'] = 'https://mt1.google.com/vt/lyrs=m&x={x}&y={y}&z={z}'
# tile_options['attribution'] = """
# Map tiles by <a href="http://stamen.com">Stamen Design</a>, under
# <a href="http://creativecommons.org/licenses/by/3.0">CC BY 3.0</a>.
# Data by <a href="http://openstreetmap.org">OpenStreetMap</a>,
# under <a href="http://www.openstreetmap.org/copyright">ODbL</a>.
# """
# mq_tile_source = WMTSTileSource(**tile_options)
# Don't want the map to wrap around
tile_provider.wrap_around = False
# Configure the figure
p = figure(
title="SIF Average by County: %s" % end_date, tools=TOOLS,
active_scroll = "wheel_zoom",
x_axis_location=None, y_axis_location=None,
tooltips=[
("Name", "@name"),
("Average SIF", "@sifs")
],
x_axis_type='mercator',
y_axis_type='mercator',
plot_height = 900,
plot_width = 1100,
output_backend="webgl",
x_range=Range1d(-20000000, 20000000, bounds = 'auto'))
# Add the map!
p.add_tile(tile_provider)
p.lod_threshold = None # No downsampling
#p.lod_interval = 150
p.toolbar.logo = None # No logo
p.grid.grid_line_color = None # No grid
# Policy for hovering
p.hover.point_policy = "follow_mouse"
# Color mapper
color_mapper = LinearColorMapper(palette=palette,
low = SIF_MIN, high = SIF_MAX)
color_transform = {'field': 'sifs', 'transform': color_mapper}
# Patch all the information onto the map
patch_renderer = p.patches('x', 'y', source=source,
fill_color=color_transform,
fill_alpha=0.9, line_color="white", line_width=0.1,
selection_fill_alpha = 1.0,
selection_fill_color = color_transform,
nonselection_line_color="black",
nonselection_fill_alpha=0.7,
nonselection_fill_color= color_transform)
p.title.text_font_size = '16pt'
# Add a color bar
ticker = FixedTicker(ticks=[-1,0,1,2])
color_bar = ColorBar(color_mapper=color_mapper, ticker = ticker,
label_standoff=12, border_line_color=None, location=(0,0))
p.add_layout(color_bar, 'right')
# Add zoom in / out tools
zoom_in = ZoomInTool(factor=ZOOM_FACTOR)
zoom_out = ZoomOutTool(factor=ZOOM_FACTOR)
def range_changed(param, old, new):
if (type(active_layer) == World_Grid_Dynamic_Layer):
x1 = p.x_range.start
x2 = p.x_range.end
y1 = p.y_range.start
y2 = p.y_range.end
new_x1, new_y1 = to_lat_lon(y1, x1)
new_x2, new_y2 = to_lat_lon(y2, x2)
if (active_layer.range_changed(new_x1, new_y1, new_x2, new_y2)):
refresh_page()
#convert_shapes_to_mercator(np.array([[x1], [x2]]),
#np.array([[y1], [y2]]))
#print("(%s, %s) to (%s, %s)" % (x1, y1, x2, y2))
#40000000
#
# p.callback_policy = "throttle"
# p.callback_throttle = 200
p.x_range.on_change('end', range_changed)
p.add_tools(zoom_in)
p.add_tools(zoom_out)
#################################
# Set up custom plot data
#################################
# Data source for custom shapes
custom_data_source = ColumnDataSource(data = \
dict(x= np.array([]), y= np.array([]),
name=np.array([])))
# Patch the custom data onto the map
p.patches('x', 'y', source=custom_data_source,
line_color="darkslategray", line_width=1,
fill_alpha=0.3, fill_color="lightgray")
# On geometry selection
# zoom = WheelZoomTool()
# p.on_event()
# p.add_tools(lasso)
# p.on_event(SelectionGeometry, shape_drawn)
#################################
# Set up time series
#################################
def color_gen():
yield from itertools.cycle(time_pltt[10])
color = color_gen()
def shape_drawn(event):
# Check if more than one point
# Otherwise a tap triggers this function
if (type(event.geometry['x']) != float):
# Notify the custom selection layer that this
# shape was selected and obtain relevant info
# custom_shapes_layer.patch_selected(event)
# Change to the custom layer
layer_selector.active = 0
layer_selected(0)
# Notify the layer that this patch was created.
active_layer.patch_created(event)
# Clear all time series
sif_series.renderers = []
# Update the title and get new data from the active layer
sif_series.title.text, time_srs_src_list, names = \
active_layer.patch_clicked(source, None)
# Plot each series returned
for i in range(len(time_srs_src_list)):
sif_series.scatter('date', 'sif',
source=time_srs_src_list[i],
color=time_pltt[10][i])
# Make sure the current shape is drawn
refresh_page()
def patch_clicked(event):
""" When a patch is clicked, update the time series chart. """
# Clear all time series
sif_series.renderers = []
# Update the title and get new data from the active layer
sif_series.title.text, time_srs_src_list, names = \
active_layer.patch_clicked(source, event)
# Plot each series returned
for i in range(len(time_srs_src_list)):
sif_series.scatter('date', 'sif',
source=time_srs_src_list[i],
color=time_pltt[10][i])
# Which tools should be available to the user for the timer series
TOOLS = "pan,wheel_zoom,reset,hover,save"
# Figure that holds the time-series
sif_series = figure(plot_width=750, plot_height=400, x_axis_type='datetime',
tools=TOOLS,
title= "SIF Time-Series (Select a county...)",
active_scroll = "wheel_zoom",
tooltips=[
("Day", "@date"),
("Average SIF", "@sif")
],
x_axis_label = 'Date',
y_axis_label = 'SIF Average',
y_range = (SIF_MIN, SIF_MAX))
# Some font choices
sif_series.title.text_font_size = '16pt'
sif_series.xaxis.axis_label_text_font_size = "12pt"
sif_series.yaxis.axis_label_text_font_size = "12pt"
# Policy for hovering
sif_series.hover.point_policy = "follow_mouse"
# No logo
sif_series.toolbar.logo = None
# When a patch is selected, trigger the patch_time_series function
p.on_event(Tap, patch_clicked)
# On geometry selection
lasso = LassoSelectTool(select_every_mousemove = False)
p.add_tools(lasso)
p.on_event(SelectionGeometry, shape_drawn)
#################################
# TODO: Set up download area
#################################
# def save_data():
# active_layer.save_data()
# print("Button Clicked")
# callback = active_layer.get_save_data_js_callback()
button = Button(label="Save Data", button_type="success")
# button.on_click(active_layer.save_data)
#button.js_on_event(ButtonClick, callback)
#################################
# Set up tab
#################################
# The layout of the view
layout = row(column(p, date_range_slider, layer_selector),
column(sif_series, row(column(), button)))
# Create tab using layout
tab = Panel(child=layout, title = 'US Visualization')
# Return the created tab
return tab
CustomJS(
code="console.log('radio_group: ' + this.active, this.toString())"))
checkbox_button_group = CheckboxButtonGroup(
labels=["Option 1", "Option 2", "Option 3"], active=[0, 1])
checkbox_button_group.on_click(
lambda value: print('checkbox_button_group: %s' % value))
checkbox_button_group.js_on_click(
CustomJS(
code=
"console.log('checkbox_button_group: ' + this.active, this.toString())"
))
radio_button_group = RadioButtonGroup(
labels=["Option 1", "Option 2", "Option 3"], active=0)
radio_button_group.on_click(
lambda value: print('radio_button_group: %s' % value))
radio_button_group.js_on_click(
CustomJS(
code=
"console.log('radio_button_group: ' + this.active, this.toString())"))
widgetBox = WidgetBox(children=[
button,
button_disabled,
toggle_inactive,
toggle_active,
dropdown,
dropdown_disabled, #dropdown_split,
checkbox_group,
radio_group,
checkbox_button_group,
MessageBox.text = msg
return
fpath = os.path.join(fdir, csvfiles[0])
cfg = bu.config()
Config = Paragraph(text=bu.config())
Above = Paragraph(text="You are Here")
Here = Paragraph()
Here.text = CurDir
MessageBox = Paragraph(text="Go")
Timer = Paragraph()
spacer = Paragraph(width=10)
blabels = bu.list_from_path(CurDir)
button_group = RadioButtonGroup(labels=blabels)
button_group.on_click(dir_select)
def dirs_source_callback(attr, old, new):
global dirs_source
oldind = old.get('1d', None)
newind = (new['1d']['indices'][0]
if len(new['1d']['indices']) > 0 else None)
if newind is None:
return
if dirs_source.data['Name'][newind] == '.':
return
newpath = (dirs_source.data['Name'][newind]
if newind is not None else None)
newpath = os.path.join(CurDir, newpath)
