def initStats(self, robot):
statsBox = self.sectionBox()
motorDataBox = sea.vBoxWith(gui.Label("Motor Data"))
self.motorDataTable = gui.Table()
motorNumRow = gui.TableRow(gui.TableItem("Motor Number:"))
motorAmpRow = gui.TableRow(gui.TableItem("Amp Draw:"))
motorTempRow = gui.TableRow(gui.TableItem("Temp:"))
motorMaxAmpRow = gui.TableRow(gui.TableItem("Max Amp Draw:"))
motorMaxTempRow = gui.TableRow(gui.TableItem("Max Temp:"))
self.motorDataTable.append(motorNumRow)
self.motorDataDict["ampRow"] = self.motorDataTable.append(motorAmpRow)
self.motorDataDict["tempRow"] = self.motorDataTable.append(
motorTempRow)
self.motorDataDict["maxAmpRow"] = self.motorDataTable.append(
motorMaxAmpRow)
self.motorDataDict["maxTempRow"] = self.motorDataTable.append(
motorMaxTempRow)
for motorNum in range(6):
motorNumRow.append(gui.TableItem(str(motorNum + 1)))
self.motorDataDict["amp"].append(
motorAmpRow.append(gui.TableItem("")))
self.motorDataDict["temp"].append(
motorTempRow.append(gui.TableItem("")))
self.motorDataDict["maxAmp"].append(
motorMaxAmpRow.append(gui.TableItem("")))
self.motorDataDict["maxTemp"].append(
motorMaxTempRow.append(gui.TableItem("")))
motorDataBox.append(self.motorDataTable)
statsBox.append(motorDataBox)
return statsBox
def create_num_row(self, param_name, description, range_min, range_max,
current_value, callback_cb, step):
row = gui.TableRow()
param_name = gui.Label(param_name,
width=NAME_L_SIZE,
height=FIELD_HEIGHT)
param_name.attributes['title'] = description
min_val = gui.Label(str(range_min),
width=MIN_L_SIZE,
height=FIELD_HEIGHT)
range_slider = gui.Slider(width=SLIDER_SIZE,
height=FIELD_HEIGHT,
defaultValue=current_value,
min=range_min,
max=range_max,
step=step)
range_slider.set_on_change_listener(callback_cb)
max_val = gui.Label(str(range_max),
width=MAX_L_SIZE,
height=FIELD_HEIGHT)
spin_val = gui.SpinBox(width=EDIT2_SIZE,
height=FIELD_HEIGHT,
defaultValue=current_value,
min=range_min,
max=range_max,
step=step)
# https://github.com/dddomodossola/remi/issues/49
# Added 46 as it's dot so we allow floating point values
spin_val.attributes[
spin_val.
EVENT_ONKEYPRESS] = 'return event.charCode >= 48 && event.charCode <= 57 || event.charCode == 46 || event.charCode == 13'
spin_val.set_on_change_listener(callback_cb)
item = gui.TableItem()
item.add_child(0, param_name)
row.add_child(0, item)
item = gui.TableItem()
item.add_child(1, min_val)
row.add_child(1, item)
min_val.style['float'] = 'none'
min_val.style['text-align'] = 'center'
item = gui.TableItem()
item.add_child(2, range_slider)
row.add_child(2, item)
item = gui.TableItem()
item.add_child(3, max_val)
row.add_child(3, item)
max_val.style['float'] = 'none'
max_val.style['text-align'] = 'center'
item = gui.TableItem()
item.add_child(4, spin_val)
row.add_child(4, item)
spin_val.style['display'] = 'block'
spin_val.style['margin'] = '10px auto'
spin_val.style['float'] = 'none'
return row, [range_slider.set_value, spin_val.set_value]
def create_enum_row(self, param_name, description, current_value,
callback_cb, enums):
row = gui.TableRow()
param_name = gui.Label(param_name,
width=NAME_L_SIZE,
height=FIELD_HEIGHT)
param_name.attributes['title'] = description
dropdown = gui.DropDown(width=SLIDER_SIZE, height=FIELD_HEIGHT)
# Fill dropdown
for idx, enum in enumerate(enums):
description_enum = enum['description']
value = enum['value']
name = enum['name']
type_enum = enum['type']
ddi_text = name + " (" + str(value) + ")"
ddi = gui.DropDownItem(ddi_text,
width=EDIT1_SIZE,
height=FIELD_HEIGHT)
ddi.attributes['title'] = description_enum
dropdown.add_child(value, ddi)
if value == current_value:
dropdown.select_by_key(value)
item = gui.TableItem()
item.add_child(0, param_name)
row.add_child(0, item)
# Dummy item
item = gui.TableItem()
item.add_child(1, "")
row.add_child(1, item)
item = gui.TableItem()
item.add_child(2, dropdown)
row.add_child(2, item)
dropdown.style['display'] = 'block'
dropdown.style['margin'] = '0px auto'
dropdown.style['float'] = 'none'
# Dummy item
item = gui.TableItem()
item.add_child(3, "")
row.add_child(3, item)
# Dummy item
item = gui.TableItem()
item.add_child(4, "")
row.add_child(4, item)
dropdown.set_on_change_listener(callback_cb)
# return the row itself and the setter func list
return row, [dropdown.select_by_key]
def add_table_row(self, table, field1, field2, field3):
row = gui.TableRow()
item = gui.TableItem()
item.append(str(id(item)), field1)
row.append(str(id(item)), item)
item = gui.TableItem()
item.append(str(id(item)), field2)
row.append(str(id(item)), item)
item = gui.TableItem()
item.append(str(id(item)), field3)
row.append(str(id(item)), item)
table.append(str(id(row)), row)
def refresh_table(self):
td_style = {'padding': '5px'}
self.table.empty()
date = self.date_picker.get_value()
header = ('Класс', 'Урок', 'Предмет', 'Учитель', 'Удаление')
tr = gui.TableRow()
for col in header:
tr.append(gui.TableTitle(col, style=td_style))
self.table.append(tr)
with self.app.db.from_query(
"SELECT class_no, class_letter, lesson_no, lesson, teacher"
" FROM lesson_replaces WHERE date = ?;", (date, )) as cursor:
rows = cursor.fetchall()
for row in rows:
tr = gui.TableRow()
tr.append(str(row[0]) + row[1])
tr.append(str(row[2]))
tr.append(row[3])
tr.append(row[4])
del_cell = gui.TableItem('[X] Удалить', style=td_style)
def on_del_click(widget, to_drop):
self.app.db.do_query(
'DELETE FROM lesson_replaces WHERE '
' date = ? AND class_no = ? AND class_letter = ? AND'
' lesson_no = ? AND lesson = ? AND teacher = ?;',
to_drop)
self.refresh_table()
tr.append(del_cell)
del_cell.onclick.do(on_del_click, (date, ) + row)
self.table.append(tr)
def on_button_pressed(self):
# Connect to the sqlite database using DB.py
db = DB(filename="/home/pybokeh/Dropbox/data_sets/nba", dbtype="sqlite")
sql = """
select *
from player_game_stats
where
team_name like '{{ name }}';"""
# Get the text the user entered into the textinput widget
token = self.txt.get_text()
# To prevent sql injection attacks, parameterize the sql string
parameter = '%' + token + '%'
params = [
{"name": parameter}
]
# Execute the query and store the results into a pandas dataframe
df = db.query(sql, data=params)
# Get the column names of the query result and the query row_data
column_names = df.columns
row_data = df.values
# Create the table widget with the specified dimensions
self.table = gui.Table(1200, 800)
# Generate the table row containing the table column names
row = gui.TableRow()
for column in column_names:
item = gui.TableTitle() # TableTitle refers to the column header/names
item.append(str(id(item)), str(column))
row.append(str(id(item)), item)
# Now add the row to the table
self.table.append(str(id(row)), row)
# Generate rows that will contain the table data
for _row in row_data:
row = gui.TableRow()
for row_item in _row:
item = gui.TableItem() # TableItem refers to the table data
item.append(str(id(item)), str(row_item))
row.append(str(id(item)), item)
self.table.append(str(id(row)), row)
# Now render / add the bottom container to the master container
self.masterContainer.append('2', self.bottomContainer)
# Now add the table widget to the bottom container
self.bottomContainer.append('1', self.table)
def create_str_row(self, param_name, description, current_value,
callback_cb):
row = gui.TableRow()
param_name = gui.Label(param_name,
width=NAME_L_SIZE,
height=FIELD_HEIGHT)
param_name.attributes['title'] = description
text_input = gui.TextInput(width=SLIDER_SIZE,
height=FIELD_HEIGHT,
single_line=True)
text_input.set_text(current_value)
text_input.set_on_enter_listener(callback_cb)
# set_button = gui.Button(80, DEFAULT_HEIGHT, text="Set")
# set_button.set_on_click_listener(self, callback_cb_name)
item = gui.TableItem()
item.add_child(0, param_name)
row.add_child(0, item)
# Dummy item
item = gui.TableItem()
item.add_child(1, "")
row.add_child(1, item)
item = gui.TableItem()
item.add_child(2, text_input)
row.add_child(2, item)
text_input.style['display'] = 'block'
text_input.style['margin'] = '10px auto'
text_input.style['float'] = 'none'
# Dummy item
item = gui.TableItem()
item.add_child(3, "")
row.add_child(3, item)
item = gui.TableItem()
#item.add_child(4, set_button)
item.add_child(4, "")
row.add_child(4, item)
return row, [text_input.set_text]
def create_bool_row(self, param_name, description, current_value,
callback_cb):
row = gui.TableRow()
param_name = gui.Label(param_name,
width=NAME_L_SIZE,
height=FIELD_HEIGHT)
param_name.attributes['title'] = description
checkbox = gui.CheckBox(width=SLIDER_SIZE,
height=FIELD_HEIGHT,
checked=current_value)
checkbox.set_on_change_listener(callback_cb)
item = gui.TableItem()
item.add_child(0, param_name)
row.add_child(0, item)
# Dummy item
item = gui.TableItem()
item.add_child(1, "")
row.add_child(1, item)
item = gui.TableItem()
item.add_child(2, checkbox)
row.add_child(2, item)
# To center the checkbox
checkbox.style['float'] = 'none'
checkbox.style['margin'] = '0px auto'
checkbox.style['display'] = 'block'
# Dummy item
item = gui.TableItem()
item.add_child(3, "")
row.add_child(3, item)
# Dummy item
item = gui.TableItem()
item.add_child(4, "")
row.add_child(4, item)
return row, [checkbox.set_value]
def Define_TreeTable(self, heads, heads2=None):
''' Define a TreeTable with a heading row
and optionally a second heading row.
'''
display_heads = []
display_heads.append(tuple(heads[2:]))
self.tree_table = TreeTable()
self.tree_table.append_from_list(display_heads, fill_title=True)
if heads2 is not None:
heads2_color = heads2[1]
row_widget = gui.TableRow()
for index, field in enumerate(heads2[2:]):
row_item = gui.TableItem(
text=field, style={'background-color': heads2_color})
row_widget.append(row_item, field)
self.tree_table.append(row_widget, heads2[0])
self.wid.append(self.tree_table)
def append_row(self, value, key=''):
modified_row = gui.TableRow(style={'display': 'table-row'})
fold_items = [''] * (self.fold_level + 1)
for i in range(0, len(fold_items)):
ti = gui.TableItem(fold_items[i])
ti.style['min-width'] = '10px'
modified_row.append(ti, "fold_cell_%s" % i)
for k in value._render_children_list:
modified_row.append(value.children[k], k)
modified_row.children[modified_row._render_children_list[self.fold_level + 1]]. \
attributes['colspan'] = str(self.max_fold_levels - self.fold_level)
modified_row.on_row_item_click.connect(self.on_table_row_click)
if self.fold_level > 0:
self.current_fold_button[str(self.fold_level)].add_nested_row(modified_row)
self.current_row = modified_row
return super(gui.Table, self).append(modified_row, key)
def test_init(self):
widget = gui.TableItem()
assertValidHTML(widget.repr())
def Draw_a_drawing_of_one_sheet(self, nrOfOccs, occs, parent_id):
''' - parent_id: the ID of the whole occurrence(box)
of which the occNames(occurrences) are parts.
'''
outputUID = '640019' # output role
inputUID = '640016' # input role
actorUID = '5036' # actor role (supertype of mechanism)
subOutputs, subOutputUIDs = self.gel_net.Determine_subtype_list(
outputUID)
subInputs, subInputUIDs = self.gel_net.Determine_subtype_list(inputUID)
subActors, subActorUIDs = self.gel_net.Determine_subtype_list(actorUID)
thickness = 2
centerX = [] # X-Center of box[i] on canvas
centerY = [] # Y-Center of box[i] on canvas
midPts = []
boxes_on_sheet = []
lines_on_sheet = []
box_width = 120 # pixels
box_height = 80 # pixels
self.boxW2 = box_width / 2 # 1/2Width of boxes
self.boxH2 = box_height / 2 # 1/2Height of boxes
deltaX = self.screen_width / (nrOfOccs + 1)
deltaY = self.screen_height / (nrOfOccs + 1)
dxC = 8 # corner rounding
dyC = 8
# dx = 8 # shifted start point for line on box
dy = 8
# Initialize inputs, outputs, controls and mechanisms according to IDEF0.
# occCon, occMech, occConUp and 0ccMechUp not yet used, but later exprected
occIn = []
occOut = []
# occCon = []
# occMech = []
occInUp = []
occOutUp = []
# occConUp = []
# occMechUp = []
# Draw boxes (occurrences), return midpts[i] = N(x,y), S(x,y), E(x,y), W(x,y)
for boxNr in range(0, nrOfOccs):
centerX.append(deltaX +
boxNr * deltaX) # X of center of box[i] on canvas
centerY.append(deltaY +
boxNr * deltaY) # Y of center of box[i] on canvas
self.boxID = str(parent_id) + '.' + str(boxNr + 1)
midPts.append(
self.box_type_1(centerX[boxNr], centerY[boxNr],
occs[boxNr].name))
# Debug print('NSEWPts:',boxNr,midPts[boxNr])
self.boxes.append(boxes_on_sheet)
# Initialize number of I/O/C/M down and upwards for each occurrence on sheet
occIn = [0 for i in range(0, nrOfOccs)
] # input stream nr of deltas downward
occOut = [0 for i in range(0, nrOfOccs)]
# occCon = [0 for i in range(0, nrOfOccs)] # control stream nr of deltas right
# occMech = [0 for i in range(0, nrOfOccs)]
occInUp = [0 for i in range(0, nrOfOccs)
] # input stream nr of deltas upward
occOutUp = [0 for i in range(0, nrOfOccs)]
# occConUp = [0 for i in range(0, nrOfOccs)] # control stream nr of deltas left
# occMechUp = [0 for i in range(0, nrOfOccs)]
# Draw lines (streams)
strNr = 0
hor_size = 15 # horizontal half size of the rhombus polygon
vert_size = 25 # vertical half size of the rhombus polygon
left = True # indicator for left or right streamTree.
border = 5
# Search for lines that have no begin/source occurrence (box),
# but only a destination occurrence.
for occur, involved, inv_role_kind, inv_kind_name in self.involv_table:
# Debug print('ioRow[0]:', occur.uid, occur.name, involved.name, inv_role_kind.name)
occUIDFrom = '0'
# If inputStream to occurrence on this sheet, then
if occur in occs and inv_role_kind.uid in subInputUIDs:
# IndexTo is the nr of the occ that has stream as input.
indexTo = occs.index(occur)
# Verify whether found stream is an output of any box on sheet,
# then set out = True
origin = 'external'
for occur_2, involved_2, inv_role_kind_2, inv_kind_name_2 in self.involv_table:
if involved == involved_2 and occur_2 in occs \
and inv_role_kind_2.uid in subOutputUIDs:
origin = 'box'
break
if origin == 'external':
# Input comes from outside the sheet
streamUID = involved.uid
streamName = involved.name
streamKind = inv_kind_name
occIn[indexTo] += 1
occInUp[indexTo] += 1
strNr = strNr + 1
strID = str(strNr)
endPt = midPts[indexTo][3]
beginPt = [border, midPts[indexTo][3][1]]
# Draw rhombus at x,y and determine its end points
x = (beginPt[0] + endPt[0]) / 2
y = beginPt[1]
rhombus = self.RhombusPolygon(x, y, strID, hor_size,
vert_size)
# Draw two straight lines from the left hand side to the rhombus
# and from the rhombus to the box
lConnPt = rhombus[3]
rConnPt = rhombus[2]
line1Pts = [beginPt, lConnPt]
line2Pts = [rConnPt, endPt]
line1 = gui.SvgLine(line1Pts[0][0], line1Pts[0][1],
line1Pts[1][0], line1Pts[1][1])
line1.set_stroke(width=thickness, color='black')
self.sheets[self.sheet_nr].append(line1)
line2 = gui.SvgLine(line2Pts[0][0], line2Pts[0][1],
line2Pts[1][0], line2Pts[1][1])
line2.set_stroke(width=thickness, color='black')
self.sheets[self.sheet_nr].append(line2)
lines_on_sheet.append(line1)
lines_on_sheet.append(line2)
# Add an arrow head to line2
head = SvgPolygon(4)
arrow_height = 20
arrow_width = arrow_height / 3
recess = arrow_height / 5
head.add_arrow_coord(line2, arrow_height, arrow_width,
recess)
head.set_stroke(width=thickness, color='black')
head.set_fill(color='blue')
self.sheets[self.sheet_nr].append(head)
# lines_on_sheet.append(head)
# Record stream in left or right stream table
values = [strID, streamName, streamUID, streamKind]
table_row = gui.TableRow(style={'text-align': 'left'})
for field in values:
item = gui.TableItem(text=field,
style={
'text-align': 'left',
'background-color':
self.occ_color
})
table_row.append(item)
if left is True:
# Debug print('Sheet nr:', self.sheet_nr)
self.left_str_tables[self.sheet_nr].append(table_row)
left = False
else:
self.right_str_tables[self.sheet_nr].append(table_row)
left = True
# Find streams per occurrence (box) on this sheet in involv_table
# involv_table: occur_obj, involved_obj, role_obj (of invObj), invKindName.
# Debug print('subI/O-UIDs:',occs[0].name, subInputUIDs, subOutputUIDs)
for occ, involved, inv_role_kind, inv_kind_name in self.involv_table:
# Debug print(' ioRow2:', occs[0].name, occ.name, involved.name, inv_role_kind.uid)
occUIDTo = '0'
# If outputStream from occurrence on this sheet, then
if occ in occs and inv_role_kind.uid in subOutputUIDs:
# Debug print('**outputStream:', involved.name, inv_role_kind.name)
strNr = strNr + 1
strID = str(strNr)
occUIDFrom = occ.uid
streamUID = involved.uid
streamName = involved.name
streamKind = inv_kind_name
# Verify if found streamUID is input in box on sheet.
# If yes, then occUIDTo is known.
for occ_2, involved_2, inv_role_kind_2, inv_kind_name_2 in self.involv_table:
if streamUID == involved_2.uid and occ_2 in occs \
and inv_role_kind_2.uid in subInputUIDs:
# Debug print('** inputStream:', occ_2.name,
# inv_role_kind_2.name, inv_role_kind_2.name)
occUIDTo = occ_2.uid
# else occUIDTo remains '0'
break
# Determine index (in list of occs) of boxFrom and boxTo
indexFrom = -1
indexTo = -1
for index in range(0, len(occs)):
if occUIDFrom == occs[index].uid:
indexFrom = index
if occUIDTo == occs[index].uid:
indexTo = index
# Determine the sequenceNr of the input and output of the occurrence box
# and adjust Yin and Yout accordingly.
# Draw the stream line from box occUIDFrom to occUIDTo or to edge of sheet.
if indexTo == -1:
# No destination box, thus endPt is on rh side of the sheet.
ddyFrom = (occOut[indexFrom]) * dy
ddyTo = (occIn[indexTo]) * dy
if occOut[indexFrom] == 0:
# if not yet started downward, then middle becomes occupied.
occOutUp[indexFrom] += 1
occOut[indexFrom] += 1
# occOut[indexTo] += 1 # indexTo == -1
# midPts(occNr, East, x / y)
beginPt = [
midPts[indexFrom][2][0],
midPts[indexFrom][2][1] + ddyFrom
]
endPt = [self.screen_width - border, beginPt[1]]
x = (beginPt[0] + endPt[0]) / 2
y = beginPt[1]
# Rhombus on vertical line
rhombus = self.RhombusPolygon(x, y, strID, hor_size,
vert_size)
lConnPt = rhombus[3]
rConnPt = rhombus[2]
line1Pts = [beginPt, lConnPt]
line2Pts = [rConnPt, endPt]
elif indexFrom + 1 < indexTo:
# Destination box is behind next box.
ddyFrom = (occOut[indexFrom]) * dy
ddyTo = (occIn[indexTo]) * dy
occOut[indexFrom] += 1
occOut[indexTo] += 1
beginPt = [
midPts[indexFrom][2][0],
midPts[indexFrom][2][1] + ddyFrom
]
endPt = [
midPts[indexTo][3][0], midPts[indexTo][3][1] + ddyTo
]
mid1Pt = [
(beginPt[0] + midPts[indexFrom + 1][3][0]) / 2 - dxC,
beginPt[1]
]
mid2Pt = [(beginPt[0] + midPts[indexFrom + 1][3][0]) / 2,
beginPt[1] + dyC]
mid3Pt = [(beginPt[0] + midPts[indexFrom + 1][3][0]) / 2,
endPt[1] - dyC]
mid4Pt = [
(beginPt[0] + midPts[indexFrom + 1][3][0]) / 2 + dxC,
endPt[1]
]
x = mid2Pt[0]
y = (mid2Pt[1] + mid3Pt[1]) / 2
rhombus = self.RhombusPolygon(x, y, strID, hor_size,
vert_size)
uConnPt = rhombus[0]
lConnPt = rhombus[1]
line1Pts = [beginPt, mid1Pt, mid2Pt, uConnPt]
line2Pts = [lConnPt, mid3Pt, mid4Pt, endPt]
elif indexFrom + 1 > indexTo:
# Destination box id before source box (or the box itself).
ddyUpFrom = (occOutUp[indexFrom]) * dy
ddyUpTo = (occInUp[indexTo]) * dy
occOutUp[indexFrom] += 1
occOutUp[indexTo] += 1
beginPt = [
midPts[indexFrom][2][0],
midPts[indexFrom][2][1] - ddyUpFrom
]
endPt = [
midPts[indexTo][3][0], midPts[indexTo][3][1] - ddyUpTo
]
mid1Pt = [
(beginPt[0] + midPts[indexFrom + 1][3][0]) / 2 - dxC,
beginPt[1]
]
mid2Pt = [(beginPt[0] + midPts[indexFrom + 1][3][0]) / 2,
beginPt[1] - dyC]
mid3Pt = [(beginPt[0] + midPts[indexFrom + 1][3][0]) / 2,
endPt[1] - box_height + dyC]
mid4Pt = [
(beginPt[0] + midPts[indexFrom + 1][3][0]) / 2 - dxC,
endPt[1] - box_height
]
mid5Pt = [(endPt[0] - box_width / 2) + dxC,
endPt[1] - box_height]
mid6Pt = [(endPt[0] - box_width / 2),
endPt[1] - box_height + dyC]
mid7Pt = [(endPt[0] - box_width / 2), endPt[1] - dyC]
mid8Pt = [(endPt[0] - box_width / 2) + dxC, endPt[1]]
x = mid2Pt[0]
y = (mid2Pt[1] + mid3Pt[1]) / 2
rhombus = self.RhombusPolygon(x, y, strID, hor_size,
vert_size)
uConnPt = rhombus[0]
lConnPt = rhombus[1]
line1Pts = [beginPt, mid1Pt, mid2Pt, lConnPt]
line2Pts = [
uConnPt, mid3Pt, mid4Pt, mid5Pt, mid6Pt, mid7Pt,
mid8Pt, endPt
]
## if mid5Pt[1] < 0:
## self.sheets[self.sheet_nr].yview_scroll(int(-mid5Pt[1]) + 20, 'units')
else:
# Destination box is next box
ddyFrom = (occOut[indexFrom]) * dy
ddyUpTo = (occIn[indexTo]) * dy
occOut[indexFrom] += 1
occOutUp[indexTo] += 1
beginPt = [
midPts[indexFrom][2][0],
midPts[indexFrom][2][1] + ddyFrom
]
endPt = [
midPts[indexTo][3][0], midPts[indexTo][3][1] - ddyUpTo
]
mid1Pt = [(beginPt[0] + endPt[0]) / 2 - dxC, beginPt[1]]
mid2Pt = [(beginPt[0] + endPt[0]) / 2, beginPt[1] + dyC]
mid3Pt = [(beginPt[0] + endPt[0]) / 2, endPt[1] - dyC]
mid4Pt = [(beginPt[0] + endPt[0]) / 2 + dxC, endPt[1]]
x = mid2Pt[0]
y = (mid2Pt[1] + mid3Pt[1]) / 2
rhombus = self.RhombusPolygon(x, y, strID, hor_size,
vert_size)
uConnPt = rhombus[0]
lConnPt = rhombus[1]
line1Pts = [beginPt, mid1Pt, mid2Pt, uConnPt]
line2Pts = [lConnPt, mid3Pt, mid4Pt, endPt]
# Draw polyline 1 from box to rhombus and polyline 2 from rhombus to box
# Debug print(' Stream:', indexFrom, indexTo, line1Pts)
line1 = gui.SvgPolyline(_maxlen=4)
for pt in line1Pts:
line1.add_coord(pt[0], pt[1])
line1.set_stroke(width=thickness, color='black')
self.sheets[self.sheet_nr].append(line1)
line2 = gui.SvgPolyline(_maxlen=8)
for pt in line2Pts:
line2.add_coord(pt[0], pt[1])
line2.set_stroke(width=thickness, color='black')
self.sheets[self.sheet_nr].append(line2)
lines_on_sheet.append(line1)
lines_on_sheet.append(line2)
# Add an arrow head to line2
head2 = SvgPolygon(4)
arrow_height = 20
arrow_width = arrow_height / 3
recess = arrow_height / 5
head2.add_arrow_coord(line2, arrow_height, arrow_width, recess)
head2.set_stroke(width=thickness, color='black')
head2.set_fill(color='blue')
self.sheets[self.sheet_nr].append(head2)
# Record stream in self.left_str_tables
# or in self.right_str_tables[self.sheet_nr](s)
values = [strID, streamName, streamUID, streamKind]
table_row = gui.TableRow(style={'text-align': 'left'})
for field in values:
item = gui.TableItem(text=field,
style={
'text-align': 'left',
'background-color': self.occ_color
})
table_row.append(item)
if left is True:
self.left_str_tables[self.sheet_nr].append(table_row)
left = False
else:
self.right_str_tables[self.sheet_nr].append(table_row)
left = True
self.lines.append(lines_on_sheet)
def main(self, args):
self.debug = args["debug"]
utils.debug_msg(self, "start main")
self.api_url = "http://127.0.0.1:5000/v1/"
self.api_data = {}
self.api_last_updated = 1
self.api_update_interval = 5
self.api_read()
self.settings_up = False
self.edit_keg_up = False
self.delete_keg_up = False
self.co2_list = []
# root object
self.container = gui.VBox(width=480)
self.container.style['margin'] = 'auto'
self.container.style['text-align'] = 'center'
# header
self.header = gui.Table(width=480)
self.header.style['margin'] = 'auto'
self.header.style['text-align'] = 'center'
self.header.style['padding'] = '2em'
# keg table
self.keg_table = gui.Table(width=480)
self.keg_table.style['margin'] = 'auto'
self.keg_table.style['text-align'] = 'center'
self.keg_table.style['padding'] = '2em'
# first row
first_row = gui.TableRow(height=60)
# temperature
t = utils.as_degF(self.api_data.get('temp', 0))
self.temp = gui.Label("%s<br />CO2:%s%%" % (t, '???'))
self.temp.style['padding-bottom'] = '1em'
self.temp.style['white-space'] = 'pre'
table_item = gui.TableItem(width=100, height=30)
table_item.append(self.temp)
first_row.append(table_item)
# title
self.title = gui.Label("HOPLITE")
self.title.style['font-size'] = '2em'
self.title.style['padding-bottom'] = '0.5em'
table_item = gui.TableItem(width=240, height=30)
table_item.append(self.title)
first_row.append(table_item)
# settings button
self.settings_button = gui.Image('/static:settings_16.png', width=16)
self.settings_button.set_on_click_listener(self.show_settings)
self.settings_button.style['padding-bottom'] = '1.6em'
table_item = gui.TableItem(width=100, height=30)
table_item.append(self.settings_button)
first_row.append(table_item)
self.header.append(first_row)
self.container.append(self.header)
self.keg_table = self.build_keg_table()
self.container.append(self.keg_table, 'keg_table')
try:
co2 = self.co2_list[0] #TODO: Handle multiple CO2 sources
except IndexError:
co2 = "???"
self.temp.set_text("%s\nCO2:%s%%" % (t, co2))
utils.debug_msg(self, "end main")
# return of the root widget
return self.container
def build_keg_table(self):
utils.debug_msg(self, "start")
new_table = gui.Table(width=480)
new_table.style['margin'] = 'auto'
new_table.style['text-align'] = 'center'
new_table.style['padding'] = '2em'
w_mode = self.api_data.get('weight_mode', 'as_kg_gross')
# iterate through HX sensors
for index, hx_conf in enumerate(self.api_data['hx_list']):
# keg information
for channel in ['A', 'B']:
try:
keg_name = hx_conf['channels'][channel].get('name', None)
except KeyError:
keg_name = None
try:
if hx_conf['channels'][channel]['co2'] == True:
local_w = hx_conf['channels'][channel]['weight']
local_max = hx_conf['channels'][channel][
'volume'] * 1000
local_tare = hx_conf['channels'][channel]['tare'] * 1000
local_net_w = max((local_w - local_tare), 0)
local_pct = local_net_w / float(local_max)
self.co2_list.append(int(local_pct * 100))
continue
except KeyError:
pass
if keg_name != None:
utils.debug_msg(self, hx_conf['channels'][channel])
keg_label = gui.Label(keg_name, width=100, height=30)
keg_bar = gui.Svg(width=240, height=30)
keg_w = hx_conf['channels'][channel]['weight']
keg_cap = hx_conf['channels'][channel]['volume']
keg_tare = hx_conf['channels'][channel]['tare']
keg_fill_pct = utils.get_keg_fill_percent(
keg_w, keg_cap, keg_tare)
keg_bar_rect = gui.SvgRectangle(0, 0, 240 * keg_fill_pct,
30)
keg_bar_rect.style['fill'] = utils.fill_bar_color(
keg_fill_pct)
keg_bar_outline = gui.SvgRectangle(0, 0, 240, 30)
keg_bar_outline.style['fill'] = 'rgb(0,0,0)'
keg_bar_outline.style['fill-opacity'] = '0'
keg_bar.append(keg_bar_rect)
keg_bar.append(keg_bar_outline)
keg_weight = gui.Label(utils.format_weight(
keg_w,
w_mode,
tare=(keg_tare * 1000),
cap=(keg_cap * 1000)),
width=100,
height=30)
table_row = gui.TableRow(height=30)
for item in [keg_label, keg_bar, keg_weight]:
table_item = gui.TableItem()
table_item.append(item)
table_row.append(table_item)
new_table.append(table_row)
utils.debug_msg(self, "end")
return new_table
def main(self):
self.shmem_read(5)
self.KegLines = list()
self.settings_up = False
# root object
self.container = gui.Table(width=480)
self.container.style['margin'] = 'auto'
self.container.style['text-align'] = 'center'
self.container.style['padding'] = '2em'
# first row
first_row = gui.TableRow(height=60)
# temperature
t = self.h.as_degF(self.ShData['data'].get('temp', 0))
co2 = self.ShData['data'].get('co2', '???')
self.temp = gui.Label("%s<br />CO2:%s%%" % (t, co2))
self.temp.style['padding-bottom'] = '1em'
table_item = gui.TableItem()
table_item.append(self.temp)
first_row.append(table_item)
# title
self.title = gui.Label("HOPLITE")
self.title.style['font-size'] = '2em'
self.title.style['padding-bottom'] = '0.5em'
table_item = gui.TableItem()
table_item.append(self.title)
first_row.append(table_item)
# settings button
self.settings_button = gui.Image('/res/settings_16.png', width=16)
self.settings_button.set_on_click_listener(self.show_settings_menu)
self.settings_button.style['padding-bottom'] = '1.6em'
table_item = gui.TableItem()
table_item.append(self.settings_button)
first_row.append(table_item)
self.container.append(first_row)
w_mode = self.ShData['config'].get('weight_mode', 'as_kg_gross')
# iterate through HX sensors
for index, hx_conf in enumerate(self.ShData['config']['hx']):
hx_weight = self.ShData['data']['weight'][index]
self.KegLines.insert(index, list())
self.KegLines[index].insert(0, None)
self.KegLines[index].insert(1, None)
# keg information
for subindex, channel in enumerate(['A', 'B']):
try:
keg_name = hx_conf['channels'][channel].get('name', None)
except KeyError:
keg_name = None
if keg_name != None:
keg_label = gui.Label(keg_name, width=100, height=30)
keg_bar = gui.Svg(240, 30)
keg_w = hx_weight[subindex]
keg_cap = hx_conf['channels'][channel]['size'][0]
keg_tare = hx_conf['channels'][channel]['size'][1]
keg_fill_pct = self.get_keg_fill_percent(
keg_w, keg_cap, keg_tare)
keg_bar_rect = gui.SvgRectangle(0, 0, 240 * keg_fill_pct,
30)
keg_bar_rect.style['fill'] = self.h.fill_bar_color(
keg_fill_pct)
keg_bar_outline = gui.SvgRectangle(0, 0, 240, 30)
keg_bar_outline.style['fill'] = 'rgb(0,0,0)'
keg_bar_outline.style['fill-opacity'] = '0'
keg_bar.append(keg_bar_rect)
keg_bar.append(keg_bar_outline)
keg_weight = gui.Label(self.h.format_weight(
keg_w, (keg_tare * 1000),
mode=w_mode,
cap=(keg_cap * 1000)),
width=100,
height=30)
try:
self.KegLines[index].insert(
subindex, [keg_label, keg_bar_rect, keg_weight])
except KeyError:
self.KegLines.insert(
index, [keg_label, keg_bar_rect, keg_weight])
table_row = gui.TableRow(height=30)
for item in [keg_label, keg_bar, keg_weight]:
table_item = gui.TableItem()
table_item.append(item)
table_row.append(table_item)
self.container.append(table_row)
# return of the root widget
return self.container
def Display_TreeTable(self, table):
''' Display a table in which the values in first column form one or more trees.
The table has row with fields that are strings of identifiers/names.
First convert each row into a row_widget and item_widgets
that are displayed in a TableTree.
Each input row shall start with a parent field (field[0])
that determines the tree hierarchy but that is not displayed on that row.
The parent widget becomes an attribute of the first child widget.
Field[1] is the row color, field[2:] contains the row values.
Top child(s) shall have a parent field value that is blank ('').
The input table rows shall be in the correct sequence.
'''
parent_names = []
hierarchy = {}
indent_level = 0
widget_dict = {} # key, value = name, widget
for row in table:
parent_name = row[0]
row_color = row[1]
child_name = row[2]
row_widget = gui.TableRow(style={'background-color': row_color})
# Determine whether hierarchy of sub_sub concepts shall be open or not
openness = 'true'
row_widget.attributes['treeopen'] = openness
# widget_dict[child_name] = row_widget
for index, field in enumerate(row[2:]):
# Determine field color
field_color = '#ffff99'
row_item = gui.TableItem(text=field,
style={
'text-align': 'left',
'background-color': field_color
})
row_widget.append(row_item, field)
if index == 0:
row_item.parent = parent_name
child_id = row_item
# The root of each tree has a parent that is blank ('').
# Each row with childs has as attribute openness, which by default is 'true'.
# The fields can be given other attributes, such as color.
# Verify whether the parent_name (child.parent)
# is present or is in the list of parent_names.
print('parent-child:', parent_name, child_name)
if parent_name == '':
hierarchy[child_name] = 0
parent_names.append(child_name)
target_level = 0
elif parent_name in parent_names:
hierarchy[child_name] = hierarchy[parent_name] + 1
target_level = hierarchy[child_name]
else:
# Parent not in parent_names
print('Error: Parent name "{}" does not appear in network'.
format(parent_name))
return
print('indent, target-pre:', indent_level, target_level,
parent_name, child_name)
# Indentation
if target_level > indent_level:
self.tree_table.begin_fold()
indent_level += 1
if target_level < indent_level:
while target_level < indent_level:
indent_level += -1
self.tree_table.end_fold()
print('indent, target-post:', indent_level, target_level,
parent_name, child_name)
if child_name not in parent_names:
parent_names.append(child_name)
self.tree_table.append(row_widget, child_name)
