def generateData(self, canvas, lines, params):
scene = QGraphicsScene()
scene.setSceneRect(canvas)
group = scene.createItemGroup([])
for line in lines:
clone = QGraphicsLineItem(line)
clone.setLine(line.line())
clone.setPen(line.pen())
scene.addItem(clone)
group.addToGroup(clone)
pixmaps = []
for i in xrange(params.count):
pixmaps.append(self.generateRandom(scene, group, canvas, params))
return pixmaps
class MarkedHistogram(QWidget):
"""Histogram with color-indication markers
MarkedHistogram shows a histogram of a data set and an optional
label for the numeric range of the data set. Color markers can
be placed on the histogram by the user and moved interactively,
either with the mouse or by typing in a particular data value.
A color button is used to control the color of the "current" marker
(the one most recently selected with the mouse). Markers can
either be vertical bars or squares. Vertical bars can only be
moved left/right whereas squares can also be moved up/down.
Squares are also connected from left to right by line segments.
A row of associated widgets (such as the marker color button) is
placed below the histogram. User-specified widgets can also be
placed in this row with the add_custom_widget() method.
Individual markers are grouped into HistogramMarkers instances,
and several HistogramMarkers instances can be associated with
a single histogram, though only one instance is active/shown at
a time.
MarkedHistogram has the following constructor options:
[Options noted as init options can only be specified at
widget creation. Others can be changed later via the corresponding
property name.]
color_button -- controls whether a color button is offered in
the user interface for changing marker colors.
default: True
data_source -- either a string or a 3-tuple. If a string, then
no histogram is displayed and instead the string is
displayed in the histogram area as a text message.
The first 2 components of a 3-tuple should be the
minimum and maximum values of the histogram, The
third component should either be an array of numbers
(i.e. the histogram) or a callback function that
takes as its single argument the number of bins to
histogram into and that returns a histogram array.
default: 'no data'
layout -- [init option] how to organize the megawidget layout.
Choices are 'single', 'top', and 'below'. 'single'
should be used when you are using a single histogram
in your GUI, or histograms that aren't arrayed
vertically. 'top' and 'below' should be used for
histograms that are laid out in a vertical array
('top' for the top-most one, and 'below' for all
others). Certain repeated elements will be omitted
in 'below' histograms (e.g. some widget labels).
default: single
max_label/min_label [init options] show the max/min histogram
values as labels below the histogram on the right/left.
If neither is True, then the range will be shown in a
single label widget below the histogram.
default: False
redraw_delay -- amount of time (in seconds) to delay between
needing to redraw and actually starting to redraw.
Used to avoid multiple (possibly slow) redraws during
a resize.
default: 0.25
scaling -- how to scale the vertical height of the histogram.
Either 'logarithmic' or 'linear'.
default: logarithmic
select_callback -- [init option] function to call when the
"current" marker changes. The function receives 4
argments: previous active marker set/marker,
new active marker set/marker. The marker set can
be None to indicate no active marker set and the
marker can be None if no marker was/is current.
show_marker_help -- [init option] whether to show the help
text over the histogram describing how to add/delete
markers.
default: True
status_line -- function to use to output messages (such as
warning when trying to add more markers than allowed).
The function should take a single string argument.
default: None
value_label -- [init option] label to use next to the
entry widget describing the current marker value.
default: 'Value'
value_width -- width of the current marker value entry widget.
default: 7
Constructor options that begin with 'Markers_' specify default
constructor options for HistogramMarkers objects created in the
add_markers method (e.g. Markers_connect_color='red' will supply
connect_color='red' to the HistogramMarkers constructor). Options
for specific instances can still be provided to the add_ markers()
method as keyword arguments (without the 'Markers_' prefix).
"""
def __init__(self,
*args,
color_button=True,
data_source='no data',
layout='single',
max_label=False,
min_label=False,
redraw_delay=0.25,
scaling='logarithmic',
select_callback=None,
show_marker_help=True,
status_line=None,
value_label='Value',
value_width=7,
**kw):
# Get HistogramMarkers options and initialise base class
self._histogram_markers_kw = markers_kw = {}
for opt_name in list(kw.keys()):
if opt_name.startswith('Markers_'):
markers_kw[opt_name[8:]] = kw.pop(opt_name)
super().__init__(*args, **kw)
# initialize variables
self._layout = layout
self.status_line = status_line
self._show_marker_help = show_marker_help
self._active_markers = None
self._markers = []
self._markable = False
self._drag_marker = None
self._scaling = scaling
self._select_callback = select_callback
if select_callback:
self._prev_markers = None
self._prev_marker = None
overall_layout = QVBoxLayout()
self.setLayout(overall_layout)
# Create the add/delete marker help
if show_marker_help and layout != 'below':
self._marker_help = QLabel(
"Ctrl-click on histogram to add or delete thresholds")
self._marker_help.setAlignment(Qt.AlignCenter)
overall_layout.addWidget(self._marker_help)
else:
self._marker_help = None
# Create the data area
class HistFrame(QFrame):
def sizeHint(self):
return QSize(300, 64)
data_frame = QFrame()
data_frame.setLineWidth(1)
data_frame.setMidLineWidth(2)
data_frame.setFrameStyle(data_frame.Panel | data_frame.Sunken)
data_frame.setContentsMargins(0, 0, 0, 0)
data_frame_layout = QHBoxLayout()
data_frame.setLayout(data_frame_layout)
self._data_widgets = QStackedWidget()
data_frame_layout.addWidget(self._data_widgets)
# Crate the histogram widget
self._hist_scene = QGraphicsScene()
self._hist_bars = self._hist_scene.createItemGroup([])
self._hist_view = QGraphicsView(self._hist_scene)
self._hist_view.resizeEvent = self._redraw
self._hist_scene.mousePressEvent = lambda event: self._add_or_delete_marker_cb(event) \
if event.modifiers() & mod_key_info("control")[0] else self._select_marker_cb(event)
self._hist_scene.mouseMoveEvent = lambda event: self._move_marker_cb(event) \
if self._drag_marker else super().mouseMoveEvent(event)
self._hist_scene.mouseReleaseEvent = self._button_up_cb
self._redraw_timer = QTimer()
self._redraw_timer.timeout.connect(self._redraw_cb)
self._redraw_timer.start(1000 * redraw_delay)
self._redraw_timer.stop()
self._data_widgets.addWidget(self._hist_view)
# Create the histogram replacement label
self._no_histogram_label = QLabel()
self._no_histogram_label.setAlignment(Qt.AlignCenter)
self._data_widgets.addWidget(self._no_histogram_label)
overall_layout.addWidget(self._data_widgets, stretch=1)
# Create range label(s)
self._widget_area = QWidget()
self._widget_layout = QHBoxLayout()
self._min_label = self._max_label = None
if min_label or max_label:
min_max_layout = QHBoxLayout()
if min_label:
self._min_label = QLabel()
min_max_layout.addWidget(self._min_label,
alignment=Qt.AlignLeft & Qt.AlignTop)
if max_label:
self._max_label = QLabel()
min_max_layout.addWidget(self._max_label,
alignment=Qt.AlignRight & Qt.AlignTop)
overall_layout.addLayout(min_max_layout)
else:
self._range_label = QLabel()
if layout == 'below':
self._widget_layout.addWidget(self._range_label)
else:
lab = QLabel("Range")
if layout == 'single':
self._widget_layout.addWidget(lab, alignment=Qt.AlignRight)
self._widget_layout.addWidget(self._range_label,
alignment=Qt.AlignLeft)
else: # layout == 'top'
range_layout = QVBoxLayout()
range_layout.addWidget(lab, alignment=Qt.AlignBottom)
range_layout.addWidget(self._range_label,
alignment=Qt.AlignTop)
self._widget_layout.addLayout(range_layout)
self._widget_area.setLayout(self._widget_layout)
overall_layout.addWidget(self._widget_area)
# Create value widget
self._value_entry = QLineEdit()
self._value_entry.setEnabled(False)
self._value_entry.returnPressed.connect(self._set_value_cb)
self.value_width = value_width
if layout == 'below':
self._widget_layout.addWidget(self._value_entry)
else:
lab = QLabel(value_label)
if layout == 'single':
self._widget_layout.addWidget(lab, alignment=Qt.AlignRight)
self._widget_layout.addWidget(self._value_entry,
alignment=Qt.AlignLeft)
else:
value_layout = QVBoxLayout()
value_layout.addWidget(lab, alignment=Qt.AlignBottom)
value_layout.addWidget(self._value_entry,
alignment=Qt.AlignTop)
self._widget_layout.addLayout(value_layout)
# Create color button widget
from .color_button import ColorButton
self._color_button = cb = ColorButton()
cb.color_changed.connect(
lambda rgba8: self._color_button_cb([c / 255.0 for c in rgba8]))
cb.setEnabled(False)
self._color_button_label = cbl = QLabel("Color")
if layout == 'below':
self._widget_layout.addWidget(self._color_button)
else:
if layout == 'single':
self._widget_layout.addWidget(cbl, alignment=Qt.AlignRight)
self._widget_layout.addWidget(cb, alignment=Qt.AlignLeft)
else:
color_layout = QVBoxLayout()
color_layout.addWidget(cbl, alignment=Qt.AlignBottom)
color_layout.addWidget(cb, alignment=Qt.AlignTop)
self._widget_layout.addLayout(color_layout)
self._color_button_shown = True
# Show the histogram or the no-data label
self.data_source = data_source
def activate(self, markers):
"""Make the given set of markers the currently active set
Any previously-active set will be hidden.
"""
if markers is not None and markers not in self._markers:
raise ValueError("activate() called with bad value")
if markers == self._active_markers:
return
if self._active_markers is not None:
self._active_markers._hide()
elif self.layout != 'below' and self._show_marker_help:
self._marker_help.setHidden(False)
self._active_markers = markers
if self._active_markers is not None:
self._active_markers.shown = True
self._set_sel_marker(self._active_markers._sel_marker)
else:
if self.layout != 'below' and self._show_marker_help:
self._marker_help.setHidden(True)
if self._select_callback:
if self._prev_marker is not None:
self._select_callback(self._prev_markers,
self._prev_marker, None, None)
self._prev_markers = None
self._prev_marker = None
def add_custom_widget(self, widget, left_side=True):
self._widget_layout.addWidget(0 if left_side else -1, widget)
def add_markers(self, activate=True, **kw):
"""Create and return a new set of markers.
If 'activate' is true, the new set will also become
the active set. Other keyword arguments will be passed
to the HistogramMarkers constructor.
"""
final_kw = {k: v for k, v in self._histogram_markers_kw.items()}
final_kw.update(kw)
final_kw['histogram'] = self
markers = HistogramMarkers(**final_kw)
self._markers.append(markers)
if activate:
self.activate(markers)
return markers
@property
def color_button(self):
return self._color_button_shown
@color_button.setter
def color_button(self, show):
if show == self._color_button_shown:
return
if self.layout != 'below':
self._color_button_label.setHidden(not show)
self._color_button.setHidden(not show)
self._color_button_shown = show
def current_marker_info(self):
"""Identify the marker currently selected by the user.
Returns a HistogramMarkers instance and a marker.
The instance will be None if no marker set has been
activated. The marker will be None if no marker has
been selected by the user.
"""
if self._active_markers is None:
return None, None
return self._active_markers, self._active_markers._sel_marker
@property
def data_source(self):
return self._data_source
@data_source.setter
def data_source(self, data_source):
self._data_source = data_source
self._new_data()
def delete_markers(self, markers):
"""Delete the given set of markers.
If the markers were active, there will be no active set
of markers afterward.
"""
if markers not in self._markers:
raise ValueError("Bad value for delete()")
if markers == self._active_markers:
self.activate(None)
self._markers.remove(markers)
@property
def layout(self):
return self._layout
@property
def redraw_delay(self):
return self._redraw_timer.interval() / 1000.0
@redraw_delay.setter
def redraw_delay(self, secs):
self._redraw_timer.setInterval(secs * 1000)
@property
def scaling(self):
return self._scaling
@scaling.setter
def scaling(self, scaling):
if self._scaling != scaling:
self._scaling = scaling
self._redraw_cb()
def snapshot_data(self):
info = {
'version': 1,
'draw_min': self._draw_min,
'draw_max': self._draw_max,
'markers': [markers.snapshot_data() for markers in self._markers],
}
if self._active_markers is None:
info['active markers'] = None
else:
info['active markers'] = self._markers.index(self._active_markers)
if self['color_button']:
info['color well'] = self._color_button.color
else:
info['color well'] = None
return info
def snapshot_restore(self, data):
self._draw_min = data['draw_min']
self._draw_max = data['draw_max']
if data['color well'] is not None:
self._color_button.color = data['color well']
if len(data['markers']) != len(self._markers):
# don't know how to deal with this situation
return
for markers, markers_data in zip(self._markers, data['markers']):
markers.snapshot_restore(markers_data)
if data['active markers'] is not None:
self.activate(self._markers[data['active markers']])
self._set_sel_marker(self._active_markers._sel_marker)
@property
def value_width(self):
return self._value_width
@value_width.setter
def value_width(self, vw):
self._value_width = vw
ve = self._value_entry
fm = ve.fontMetrics()
tm = ve.textMargins()
cm = ve.contentsMargins()
w = vw * fm.width('w') + tm.left() + tm.right() + cm.left() + cm.right(
) + 8
ve.setMaximumWidth(w)
def _abs2rel(self, abs_xy):
x, y = abs_xy
rel_x = (x - self._min_val) / float(self._max_val - self._min_val)
rel_y = y / float(self._ymax)
return rel_x, rel_y
def _abs_xy(self, scene_xy):
scene_x, scene_y = scene_xy
dy = min(max(self._bottom - scene_y, 0), self._hist_height - 1)
if self.scaling == 'logarithmic':
exp = dy / float(self._hist_height - 1)
abs_y = (self._max_height + 1)**exp - 1
else:
abs_y = self._max_height * dy / float(self._hist_height - 1)
cx = scene_x - self._border
num_bins = len(self._bins)
if num_bins == self._hist_width:
fract = cx / (num_bins - 1)
abs_x = self._min_val + fract * (self._max_val - self._min_val)
elif num_bins == 2:
abs_x = self._min_val + (self._max_val - self._min_val) * (
2 * cx / self._hist_width - 0.5)
else:
extra = self._hist_width / (2.0 * (num_bins - 1))
abs_x = self._min_val + (self._max_val - self._min_val) * (
cx - extra) / (self._hist_width - 2.0 * extra)
abs_x = max(self._min_val, abs_x)
abs_x = min(self._max_val, abs_x)
return abs_x, abs_y
def _add_or_delete_marker_cb(self, event=None):
if self._active_markers is None:
return
marker = self._active_markers._pick_marker(event.scenePos())
if marker is None:
max_marks = self._active_markers.max_marks
if max_marks is not None and len(
self._active_markers) >= max_marks:
if self.status_line:
self.status_line("Maximum of %d markers\n" % max_marks)
return
xy = self._abs_xy((event.scenePos().x(), event.scenePos().y()))
if self._active_markers.coord_type == 'relative':
xy = self._abs2rel(xy)
sel_marker = self._active_markers._sel_marker
if sel_marker:
color = sel_marker.rgba
else:
color = self._active_markers.new_color
marker = self._active_markers.append((xy, color))
self._set_sel_marker(marker, drag_start=event)
else:
min_marks = self._active_markers.min_marks
if min_marks is not None and len(
self._active_markers) <= min_marks:
if self.status_line:
self.status_line("Minimum of %d markers\n" % min_marks)
return
self._active_markers.remove(marker)
self._set_sel_marker(None)
def _button_up_cb(self, event=None):
if self._drag_marker:
self._drag_marker = None
if self._active_markers.move_callback:
self._active_markers.move_callback('end')
def _scene_xy(self, abs_xy):
# minimum is in the _center_ of the first bin,
# likewise, maximum is in the center of the last bin
abs_x, abs_y = abs_xy
abs_y = max(0, abs_y)
abs_y = min(self._max_height, abs_y)
if self.scaling == 'logarithmic':
import math
abs_y = math.log(abs_y + 1)
scene_y = self._bottom - (self._hist_height - 1) * (abs_y /
self._max_height)
abs_x = max(self._min_val, abs_x)
abs_x = min(self._max_val, abs_x)
num_bins = len(self._bins)
if num_bins == self._hist_width:
bin_width = (self._max_val - self._min_val) / float(num_bins - 1)
left_edge = self._min_val - 0.5 * bin_width
scene_x = int((abs_x - left_edge) / bin_width)
else:
# histogram is effectively one bin wider (two half-empty bins on each end)
if num_bins == 1:
scene_x = 0.5 * (self._hist_width - 1)
else:
extra = (self._max_val - self._min_val) / (2.0 *
(num_bins - 1))
eff_min_val = self._min_val - extra
eff_max_val = self._max_val + extra
eff_range = float(eff_max_val - eff_min_val)
scene_x = (self._hist_width - 1) * (abs_x -
eff_min_val) / eff_range
return self._border + scene_x, scene_y
def _color_button_cb(self, rgba):
m = self._active_markers._sel_marker
if not m:
if self.status_line:
self.status_line("No marker selected")
return
m.rgba = rgba
def _marker2abs(self, marker):
if self._active_markers.coord_type == 'absolute':
return marker.xy
else:
return self._rel2abs(marker.xy)
def _move_cur_marker(self, x, yy=None):
#
# Don't allow dragging out of the scene box.
#
m = self._active_markers._sel_marker
if x < self._min_val:
x = self._min_val
elif x > self._max_val:
x = self._max_val
if yy is None:
y = m.xy[1]
else:
y = yy
if y < 0:
y = 0
elif y > self._ymax:
y = self._ymax
if self._active_markers.coord_type == 'absolute':
m.xy = (x, y)
else:
m.xy = self._abs2rel((x, y))
if yy is None:
m.xy = (m.xy[0], y)
self._set_value_entry(x)
self._active_markers._update_plot()
if self._active_markers.move_callback:
self._active_markers.move_callback(m)
def _move_marker_cb(self, event):
mouse_xy = self._abs_xy((event.scenePos().x(), event.scenePos().y()))
dx = mouse_xy[0] - self._last_mouse_xy[0]
dy = mouse_xy[1] - self._last_mouse_xy[1]
self._last_mouse_xy = mouse_xy
if event.modifiers() & mod_key_info("shift")[0]:
dx *= .1
dy *= .1
m = self._drag_marker
mxy = self._marker2abs(m)
x, y = mxy[0] + dx, mxy[1] + dy
self._move_cur_marker(x, y)
def _new_data(self):
ds = self.data_source
if isinstance(ds, str):
self._no_histogram_label.setText(ds)
self._data_widgets.setCurrentWidget(self._no_histogram_label)
if self._min_label:
self._min_label.setText("")
if self._max_label:
self._max_label.setText("")
if self.layout != 'below' and self._show_marker_help:
self._marker_help.setHidden(True)
self._widget_area.setHidden(True)
else:
self._data_widgets.setCurrentWidget(self._hist_view)
if self.layout != 'below' and self._show_marker_help:
self._marker_help.setHidden(False)
self._widget_area.setHidden(False)
self._draw_min = self._draw_max = None
self._redraw_cb()
def _redraw(self, event=None):
self._markable = False
self._redraw_timer.start()
def _redraw_cb(self):
self._redraw_timer.stop()
ds = self.data_source
if isinstance(ds, str):
# displaying a text label right now
return
view = self._hist_view
scene = self._hist_scene
hist_size = view.viewport().size()
self._hist_width, self._hist_height = hist_width, hist_height = hist_size.width(
), hist_size.height()
self._min_val, self._max_val, self._bins = ds
filled_range = self._max_val - self._min_val
empty_ranges = [0, 0]
if self._draw_min != None:
empty_ranges[0] = self._min_val - self._draw_min
self._min_val = self._draw_min
if self._draw_max != None:
empty_ranges[1] = self._draw_max - self._max_val
self._max_val = self._draw_max
if callable(self._bins):
if empty_ranges[0] or empty_ranges[1]:
full_range = filled_range + empty_ranges[0] + empty_ranges[1]
filled_bins = self._bins(
int(hist_width * filled_range / full_range))
left = [0] * int(hist_width * empty_ranges[0] / full_range)
right = [0] * (hist_width - len(filled_bins) - len(left))
self._bins = left + filled_bins + right
else:
self._bins = self._bins(hist_width)
elif empty_ranges[0] or empty_ranges[1]:
full_range = filled_range + empty_ranges[0] + empty_ranges[1]
left = [0] * int(len(self._bins) * empty_ranges[0] / full_range)
right = [0] * int(len(self._bins) * empty_ranges[1] / full_range)
self._bins = left + self._bins + right
if self._min_label:
self._min_label.setText(self._str_val(self._min_val))
if self._max_label:
self._max_label.setText(self._str_val(self._max_val))
if not self._min_label and not self._max_label:
self._range_label.setText(
"%s - %s" %
(self._str_val(self._min_val), self._str_val(self._max_val)))
bars = self._hist_bars.childItems()
for bar in bars:
self._hist_bars.removeFromGroup(bar)
self._hist_scene.removeItem(bar)
self._ymax = max(self._bins)
if self.scaling == 'logarithmic':
from numpy import array, log, float32
self._bins = array(self._bins, float32)
self._bins += 1.0
log(self._bins, self._bins)
max_height = max(self._bins)
self._max_height = max_height
h_scale = float(hist_height - 1) / max_height
self._border = border = 0
bottom = hist_height + border - 1
self._bottom = bottom
num_bins = len(self._bins)
if num_bins == hist_width:
for b, n in enumerate(self._bins):
x = border + b
h = int(h_scale * n)
line = self._hist_scene.addLine(x, bottom, x, bottom - h)
self._hist_bars.addToGroup(line)
line.setZValue(-1) # keep bars below markers
else:
x_scale = (hist_width - 1) / float(num_bins)
for b, n in enumerate(self._bins):
x1 = border + b * x_scale
x2 = border + (b + 1) * x_scale
h = int(h_scale * n)
rect = self._hist_scene.addRect(x1, bottom - h, x2 - x1, h)
self._hist_bars.addToGroup(rect)
rect.setZValue(-1) # keep bars below markers
self._markable = True
if self._active_markers is not None:
self._active_markers._update_plot()
marker = self._active_markers._sel_marker
if marker:
self._set_value_entry(self._marker2abs(marker)[0])
self._hist_scene.setSceneRect(self._hist_scene.itemsBoundingRect())
def _rel2abs(self, rel_xy):
x, y = rel_xy
abs_x = self._min_val * (1 - x) + x * self._max_val
abs_y = y * self._ymax
return abs_x, abs_y
def _select_marker_cb(self, event=None):
if self._active_markers is not None:
marker = self._active_markers._pick_marker(event.scenePos())
self._set_sel_marker(marker, drag_start=event)
if marker is not None:
return
# show value where histogram clicked
self._set_value_entry(self._abs_xy((event.scenePos().x(), 0))[0])
def _set_sel_marker(self, marker, drag_start=None):
self._active_markers._sel_marker = marker
if not marker:
self._color_button.color = "gray"
self._color_button.setEnabled(False)
self._set_value_entry("")
self._value_entry.setEnabled(False)
else:
self._color_button.setEnabled(True)
self._color_button.color = marker.rgba
self._value_entry.setEnabled(True)
self._set_value_entry(self._marker2abs(marker)[0])
if self._select_callback:
if marker is not None or self._prev_marker is not None:
self._select_callback(self._prev_markers, self._prev_marker,
self._active_markers, marker)
self._prev_markers = self._active_markers
self._prev_marker = marker
if not drag_start:
return
self._drag_marker = marker
if not marker:
return
self._last_mouse_xy = self._abs_xy(
(drag_start.scenePos().x(), drag_start.scenePos().y()))
if self._active_markers.move_callback:
self._active_markers.move_callback('start')
def _set_value_cb(self):
try:
v = eval(self._value_entry.text())
except Exception:
raise ValueError("Invalid histogram value")
if type(self._min_val) != type(v):
v = type(self._min_val)(v)
if v < self._min_val:
self._draw_min = v
self._redraw_cb()
elif v > self._max_val:
self._draw_max = v
self._redraw_cb()
self._move_cur_marker(v)
def _set_value_entry(self, val):
if isinstance(val, str):
self._value_entry.setText(val)
return
if isinstance(self._min_val, int):
val = int(val + 0.5)
self._value_entry.setText("%g" % val)
def _str_val(self, val):
if isinstance(val, (int, bool)):
return str(val)
return "%g" % val
class MainWindow(QtWidgets.QMainWindow):
def __init__(self, qApp):
super(MainWindow, self).__init__()
self.ui = wnd.Ui_MainWindow() #создаём простой объект ui
self.ui.setupUi(self)
self.qApp = qApp
self.scn = QGraphicsScene(self)
self.scn.setSceneRect(0, 0, self.width() - 2, self.height() - 2)
self.gv = QtWidgets.QGraphicsView(self)
self.gv.setObjectName("gv")
self.gv.setStyleSheet(
"border-width: 0px; border-style: none; outline:0px;")
self.gv.setRenderHint(QPainter.Antialiasing)
self.gv.setScene(self.scn)
self.gv.setHorizontalScrollBarPolicy(Qt.ScrollBarAlwaysOff)
self.gv.setVerticalScrollBarPolicy(Qt.ScrollBarAlwaysOff)
self.setCentralWidget(self.gv)
self.gv.show()
self.gv.mousePressEvent = self.mousePress
self.gv.mouseMoveEvent = self.mouseMove
set = QSettings("Tree", "config")
x = int(set.value("Main/Left", "-1"))
y = int(set.value("Main/Top", "-1"))
if x > 0 and y > 0:
self.move(x, y)
else:
self.move(QApplication.desktop().screen().rect().center() -
self.rect().center())
self.elimg = self.scn.addPixmap(QPixmap(":/images/Tree.png"))
self.elimg.setTransformationMode(QtCore.Qt.SmoothTransformation)
self.elimg.setZValue(2)
self.gv.setContextMenuPolicy(Qt.CustomContextMenu)
self.gv.customContextMenuRequested.connect(self.initContextMenu)
self.mx = 0
self.my = 0
self.ps = None
self.lamps = []
self.setLamps()
self.curlight = -1
self.snowalphach_len = self.height() / 3
self.snows = []
self.snowgroups = []
self.snowing = set.value("Main/Snowing", "true") == "true"
self.setSnows()
self.timer = QTimer(self)
self.timer.timeout.connect(self.onTimer)
self.timerinterval = 50
self.timer.start(self.timerinterval)
self.speed = int(set.value("Main/speed", "1"))
self.lampturn = int(set.value("Main/turncnt", "1"))
self.sparr = [0.1, 0.4, 0.6]
self.cols = 6
self.snowfallspeed = [2, 1.25, 0.8]
def initContextMenu(self, pos):
menu = QMenu(self)
menu.setStyleSheet("background: #333; color: white;")
smenu = menu.addMenu("Скорость")
act = QAction("Медленно", self)
act.triggered.connect(self.slowspeed)
smenu.addAction(act)
act = QAction("Средне", self)
act.triggered.connect(self.midspeed)
smenu.addAction(act)
act = QAction("Быстро", self)
act.triggered.connect(self.fastspeed)
smenu.addAction(act)
kmenu = menu.addMenu("Переключения")
act = QAction("По 1 лампочке", self)
act.triggered.connect(self.onelamp)
kmenu.addAction(act)
act = QAction("По 2 лампочки", self)
act.triggered.connect(self.twolamp)
kmenu.addAction(act)
act = QAction("По 3 лампочки", self)
act.triggered.connect(self.treelamp)
kmenu.addAction(act)
act = QAction("По 4 лампочки", self)
act.triggered.connect(self.forelamp)
kmenu.addAction(act)
act = QAction("Снег", self)
act.triggered.connect(self.snowOffOn)
menu.addAction(act)
menu.addSeparator()
act = QAction("Закрыть", self)
act.triggered.connect(self.close)
menu.addAction(act)
p = self.mapToGlobal(pos)
p.setX(p.x() + 1)
p.setY(p.y() + 1)
menu.exec_(p)
def slowspeed(self):
self.speed = 0
def midspeed(self):
self.speed = 1
def fastspeed(self):
self.speed = 2
def snowOffOn(self):
#i = QtWidgets.QGraphicsItem
self.snowing = not self.snowing
for snows in self.snows:
for snow in snows:
if self.snowing:
snow.item.show()
else:
snow.item.hide()
def setlampsTurn(self, n):
self.timer.stop()
self.lampturn = n
for lamps in self.lamps:
for lamp in lamps:
lamp.alpha = 0
lamp.item.setOpacity(0)
self.curlight = -1
self.timer.start(self.timerinterval)
def onelamp(self):
self.setlampsTurn(1)
def twolamp(self):
self.setlampsTurn(2)
def treelamp(self):
self.setlampsTurn(3)
def forelamp(self):
self.setlampsTurn(4)
def setLamps(self):
'''
pts = [[vect(22,239),vect(86,281),vect(169,256),vect(46,224),vect(122,240),vect(50,178),
vect(122,200),vect(74,157),vect(138,149),vect(119,133),vect(90,95),vect(85,47)],
[vect(32,255),vect(110,281),vect(181,240),vect(59,237),vect(137,236),vect(62,192),
vect(139,192),vect(87,165),vect(65,108),vect(136,123),vect(106,98),vect(102,54)],
[vect(49,271),vect(133,274),vect(22,191),vect(79,242),vect(153,224),vect(82,200),
vect(156,182),vect(106,165),vect(78,125),vect(126,92),vect(150,109),vect(119,45)],
[vect(65,278),vect(152,268),vect(32,208),vect(100,243),vect(168,217),vect(103,204),
vect(57,149),vect(124,160),vect(97,134),vect(73,83),vect(137,77),vect(99,25)]]
'''
pts = [[
vect(25, 238),
vect(120, 277),
vect(44, 218),
vect(147, 236),
vect(82, 201),
vect(59, 133),
vect(149, 153),
vect(128, 125),
vect(113, 94),
vect(111, 63)
],
[
vect(36, 250),
vect(137, 271),
vect(54, 232),
vect(161, 225),
vect(101, 204),
vect(72, 147),
vect(160, 137),
vect(141, 116),
vect(126, 92),
vect(126, 58)
],
[
vect(51, 263),
vect(156, 267),
vect(71, 241),
vect(175, 215),
vect(121, 202),
vect(87, 158),
vect(55, 95),
vect(158, 105),
vect(134, 80),
vect(93, 32)
],
[
vect(64, 275),
vect(172, 256),
vect(88, 246),
vect(43, 157),
vect(140, 199),
vect(100, 169),
vect(74, 114),
vect(73, 66),
vect(149, 71),
vect(108, 40)
],
[
vect(80, 277),
vect(187, 245),
vect(108, 245),
vect(51, 178),
vect(154, 192),
vect(116, 167),
vect(89, 123),
vect(86, 79),
vect(89, 47),
vect(121, 34)
],
[
vect(101, 279),
vect(28, 198),
vect(129, 244),
vect(66, 191),
vect(171, 179),
vect(135, 161),
vect(108, 127),
vect(99, 88),
vect(100, 59),
vect(108, 17)
]]
clrs = [["red1", "red2", "red3", "red4", "red5"],
["aqua1", "aqua2", "aqua2", "aqua4", "aqua5"],
["fuji1", "fuji2", "fuji3", "fuji4", "fuji5"],
["green1", "green2", "green3", "green4", "green5"],
["blue1", "blue2", "blue3", "blue4", "blue5"],
["yellow1", "yellow2", "yellow3", "yellow4", "yellow5"]]
cv = 0
for c in range(len(pts)):
lamps = []
for v in pts[c]:
lamp = Lamp(self.scn, ":/images/" + clrs[c][cv] + ".png", v.y,
v.x)
lamp.item.setZValue(4)
lamps.append(lamp)
cv += 1
if cv > 4: cv = 0
self.lamps.append(lamps)
def setSnows(self):
maxminsnows = 50
sc = [
random.randint(0, 14) + maxminsnows,
random.randint(0, 14) + maxminsnows,
random.randint(0, 14) + maxminsnows
]
for i in range(len(sc)):
snows = []
items = []
for j in range(sc[i]):
imgfn = ":/images/snow" + str(i + 1) + ".png"
x = random.randint(8, self.width() - 8)
y = random.randint(10, self.height())
a = 1
hl = self.height() - self.snowalphach_len
if y > hl:
a = 1 - (y - hl) / self.snowalphach_len
lamp = Lamp(self.scn, imgfn, x, y, a)
if not self.snowing:
lamp.item.hide()
snows.append(lamp)
items.append(lamp.item)
group = self.scn.createItemGroup(items)
if i < 2:
group.setZValue(4)
else:
group.setZValue(0)
self.snows.append(snows)
self.snowgroups.append(items)
def onTimer(self):
finished = False
nl = 0
if self.curlight == self.cols - 1: nl = 0
else: nl = self.curlight + 1
for lamp in self.lamps[nl]:
lamp.alpha += self.sparr[self.speed]
if lamp.alpha >= 1.0:
lamp.alpha = 1.0
finished = True
lamp.item.setOpacity(lamp.alpha)
#for t in range(self.lampturn):
if self.curlight >= 0:
n = self.curlight - self.lampturn + 1
if n < 0: n = self.cols + n
for lamp in self.lamps[n]:
if lamp.alpha > 0:
lamp.alpha -= self.sparr[self.speed]
if lamp.alpha < 0: lamp.alpha = 0
lamp.item.setOpacity(lamp.alpha)
if finished:
self.curlight += 1
if self.curlight >= self.cols: self.curlight = 0
if self.snowing:
for i in range(len(self.snows)):
for snow in self.snows[i]:
a = snow.alpha
snow.y += self.snowfallspeed[i]
if snow.y > self.height():
snow.y = -10 - random.randint(0, 15)
snow.x = random.randint(8, self.width() - 8)
snow.alpha = 1
else:
hl = self.height() - self.snowalphach_len
if snow.y > hl:
snow.alpha = 1 - (snow.y -
hl) / self.snowalphach_len
snow.item.setPos(
QPointF(snow.x - snow.hw, snow.y - snow.hh))
if snow.alpha != a:
snow.item.setOpacity(snow.alpha)
def mousePress(self, event):
"""Событие нажатия мыши на QGraphicsView,
в данной функции переменным присваивается глобальная
позиция мыши и позиция окна, для того, чтобы при
перемещении мыши вызывать перемещение главного окна."""
self.mx = event.globalPos().x()
self.my = event.globalPos().y()
self.ps = self.pos()
def mouseMove(self, event):
"""Событие перемещения мыши на QGraphicsView,
в данной функции перемещаем главное окно по экрану."""
x = event.globalPos().x() - self.mx
y = event.globalPos().y() - self.my
self.move(self.ps.x() + x, self.ps.y() + y)
def closeEvent(self, event):
set = QSettings("Tree", "config")
p = self.pos()
set.setValue("Main/Left", p.x())
set.setValue("Main/Top", p.y())
set.setValue("Main/Snowing", self.snowing)
set.setValue("Main/speed", self.speed)
set.setValue("Main/turncnt", self.lampturn)
self.qApp.quit()
class View(QGraphicsView):
projections = OrderedDict([
('Spherical', Proj('+proj=ortho +lat_0=48 +lon_0=17')),
('Mercator', Proj(init='epsg:3395')),
('WGS84', Proj(init='epsg:3857')),
('ETRS89 - LAEA Europe', Proj("+init=EPSG:3035"))
])
def __init__(self, controller):
super().__init__()
self.controller = controller
self.scene = QGraphicsScene(self)
self.setScene(self.scene)
self.setTransformationAnchor(QGraphicsView.AnchorUnderMouse)
self.setRenderHint(QPainter.Antialiasing)
self.proj = 'Spherical'
self.ratio, self.offset = 1 / 400, (0, 0)
self.display = True
self.shapefile = join(controller.path_shapefiles,
'World countries_1.shp')
# brush for water and lands
self.water_brush = QBrush(QColor(64, 164, 223))
self.land_brush = QBrush(QColor(52, 165, 111))
self.land_pen = QPen(QColor(0, 0, 0))
# draw the map
self.polygons = self.scene.createItemGroup(self.draw_polygons())
self.draw_water()
# set of graphical nodes
self.nodes = set()
## Zoom system
def zoom_in(self):
self.scale(1.25, 1.25)
def zoom_out(self):
self.scale(1 / 1.25, 1 / 1.25)
def wheelEvent(self, event):
self.zoom_in() if event.angleDelta().y() > 0 else self.zoom_out()
## Mouse bindings
def mouseMoveEvent(self, event):
# sliding the scrollbar with the right-click button
if event.buttons() == Qt.RightButton:
self.trigger_menu = False
offset = self.cursor_pos - event.pos()
self.cursor_pos = event.pos()
x_value = self.horizontalScrollBar().value() + offset.x()
y_value = self.verticalScrollBar().value() + offset.y()
self.horizontalScrollBar().setValue(x_value)
self.verticalScrollBar().setValue(y_value)
super().mouseMoveEvent(event)
def mousePressEvent(self, event):
# activate rubberband for selection
# by default, the rubberband is active for both clicks, we have to
# deactivate it explicitly for the right-click
if event.buttons() == Qt.LeftButton:
self.setDragMode(QGraphicsView.RubberBandDrag)
if event.button() == Qt.RightButton:
self.cursor_pos = event.pos()
super().mousePressEvent(event)
## Drag & Drop system
def dragEnterEvent(self, event):
if event.mimeData().hasFormat('application/x-dnditemdata'):
event.acceptProposedAction()
dragMoveEvent = dragEnterEvent
def dropEvent(self, event):
pos = self.mapToScene(event.pos())
geo_pos = self.to_geographical_coordinates(pos.x(), pos.y())
if event.mimeData().hasFormat('application/x-dnditemdata'):
new_node = Node(self.controller, pos)
## Map functions
def to_geographical_coordinates(self, x, y):
px, py = (x - self.offset[0]) / self.ratio, (self.offset[1] -
y) / self.ratio
return self.projections[self.proj](px, py, inverse=True)
def to_canvas_coordinates(self, longitude, latitude):
px, py = self.projections[self.proj](longitude, latitude)
return px * self.ratio + self.offset[
0], -py * self.ratio + self.offset[1]
def move_to_geographical_coordinates(self):
for node in self.nodes:
node.setPos(
QPointF(*self.to_canvas_coordinates(node.longitude,
node.latitude)))
def draw_polygons(self):
sf = shapefile.Reader(self.shapefile)
polygons = sf.shapes()
for polygon in polygons:
# convert shapefile geometries into shapely geometries
# to extract the polygons of a multipolygon
polygon = shapely.geometry.shape(polygon)
# if it is a polygon, we use a list to make it iterable
if polygon.geom_type == 'Polygon':
polygon = [polygon]
for land in polygon:
qt_polygon = QPolygonF()
for lon, lat in land.exterior.coords:
px, py = self.to_canvas_coordinates(lon, lat)
if px > 1e+10:
continue
qt_polygon.append(QPointF(px, py))
polygon_item = QGraphicsPolygonItem(qt_polygon)
polygon_item.setBrush(self.land_brush)
polygon_item.setPen(self.land_pen)
polygon_item.setZValue(1)
yield polygon_item
def draw_water(self):
if self.proj in ('Spherical', 'ETRS89 - LAEA Europe'):
cx, cy = self.to_canvas_coordinates(17, 48)
# if the projection is ETRS89, we need the diameter and not the radius
R = 6371000 * self.ratio * (1 if self.proj == 'Spherical' else 2)
earth_water = QGraphicsEllipseItem(cx - R, cy - R, 2 * R, 2 * R)
earth_water.setZValue(0)
earth_water.setBrush(self.water_brush)
self.polygons.addToGroup(earth_water)
else:
# we compute the projected bounds of the Mercator (3395) projection
# upper-left corner x and y coordinates:
ulc_x, ulc_y = self.to_canvas_coordinates(-180, 84)
# lower-right corner x and y coordinates
lrc_x, lrc_y = self.to_canvas_coordinates(180, -84.72)
# width and height of the map (required for the QRectItem)
width, height = lrc_x - ulc_x, lrc_y - ulc_y
earth_water = QGraphicsRectItem(ulc_x, ulc_y, width, height)
earth_water.setZValue(0)
earth_water.setBrush(self.water_brush)
self.polygons.addToGroup(earth_water)
def show_hide_map(self):
self.display = not self.display
self.polygons.show() if self.display else self.polygons.hide()
def delete_map(self):
self.scene.removeItem(self.polygons)
def redraw_map(self):
self.delete_map()
self.polygons = self.scene.createItemGroup(self.draw_polygons())
self.draw_water()
# replace the nodes at their geographical location
self.move_to_geographical_coordinates()
class Editor(QWidget):
def __init__(self, song):
super().__init__()
self.initUI(song)
def initUI(self, song):
self.songLenInBeats = 100
self.songBeatsPBar = 4
self.reverse = 1
self.pixPSec = 1000.0
self.disp8 = True
self.disp12 = False
self.disp16 = True
self.disp24 = False
self.disp32 = False
self.disp48 = False
self.disp64 = False
self.spectrogramDisplay = True
self.cursorExists = False
self.framecount = 0
self.timeOutLength = 17
self.timer = QTimer()
self.editorTheme = self.getTheme()
self.boxw = self.editorTheme['BoxWidth']
self.topLayout = QVBoxLayout()
self.topLayout.setContentsMargins(0, 0, 0, 0)
self.song = song
self.song.pos = 0
self.setLayout(self.topLayout)
self.gs = QGraphicsScene()
self.gv = QGraphicsView(self.gs)
self.drawBG()
self.song = song
# self.drawArrowDemo()
self.boxes = []
self.topLayout.addWidget(self.gv)
def update(self, song, level):
self.gs.clear()
print(self.song.pos)
self.song = song
self.cursorExists = False
self.song.pos = 0
self.play(0)
self.pause()
self.updatescreen()
if self.spectrogramDisplay:
self.spectrogramPixMap = QPixmap(spectrogram_dir + song.audioFile +
'.png')
width = self.spectrogramPixMap.width()
height = self.spectrogramPixMap.height()
self.spectrogramPixMap = self.gs.addPixmap(self.spectrogramPixMap)
self.spectrogramPixMap.setRotation(90)
self.spectrogramPixMap.setTransform(QTransform().scale(
-1, (self.song.lengthInSeconds * self.pixPSec) / width))
self.drawGrid(self.song.levels[level])
self.drawArrowDemo(self.song.levels[level])
#self.play(0)
def levelSelected(self, level):
print("Selected ", level)
if level in self.song.levels:
print('switching')
self.update(self.song, level)
else:
print('creating new level')
def play(self, pos):
self.timer.timeout.connect(self.updatescreen)
self.timer.start(self.timeOutLength)
self.song.playSong(pos)
def pause(self):
self.timer.stop()
self.song.pauseSong()
def keyPressEvent(self, event):
key = event.key()
shiftPressed = event.modifiers() == Qt.ShiftModifier
ctrlPressed = event.modifiers() == Qt.ControlModifier
altPressed = event.modifiers() == Qt.AltModifier
restart = self.song.isPlaying
if key == Qt.Key_Space:
if self.song.isPlaying:
self.pause()
else:
self.play(self.song.pos / 1000)
elif key == Qt.Key_BracketRight:
restart = self.song.isPlaying
self.pause()
if ctrlPressed:
self.song.pos += 10000
elif shiftPressed:
self.song.pos += 1000
elif altPressed:
self.song.pos += 10
else:
self.song.pos += 100
if not (self.song.pos > self.song.lengthInSeconds * 1000):
if restart:
self.play(self.song.pos / 1000)
else:
self.play(self.song.pos / 1000)
self.pause()
else:
self.song.pos = self.song.lengthInSeconds * 1000 - 1
self.play(self.song.pos / 1000)
self.pause()
self.updatescreen()
elif key == Qt.Key_BracketLeft:
self.pause()
if ctrlPressed:
self.song.pos -= 10000
elif shiftPressed:
self.song.pos -= 1000
elif altPressed:
self.song.pos -= 10
else:
self.song.pos -= 100
if self.song.pos < 0:
self.song.pos = 0
if restart:
self.play(self.song.pos / 1000)
else:
self.play(self.song.pos / 1000)
self.pause()
self.updatescreen()
elif key == Qt.Key_BraceRight:
restart = self.song.isPlaying
self.pause()
if ctrlPressed:
self.song.pos += 10000
elif shiftPressed:
self.song.pos += 1000
elif altPressed:
self.song.pos += 10
else:
self.song.pos += 200
if not (self.song.pos > self.song.lengthInSeconds * 1000):
if restart:
self.play(self.song.pos / 1000)
else:
self.play(self.song.pos / 1000)
self.pause()
else:
self.song.pos = self.song.lengthInSeconds * 1000 - 1
self.play(self.song.pos / 1000)
self.pause()
self.updatescreen()
elif key == Qt.Key_BraceLeft:
self.pause()
if ctrlPressed:
self.song.pos -= 10000
elif shiftPressed:
self.song.pos -= 1000
elif altPressed:
self.song.pos += 10
else:
self.song.pos -= 200
if self.song.pos < 0:
self.song.pos = 0
if restart:
self.play(self.song.pos / 1000)
else:
self.play(self.song.pos / 1000)
self.pause()
self.updatescreen()
def updatescreen(self):
self.song.updatePos()
if self.song.isPlaying:
self.framecount += 1
curTime = time.time()
if (curTime - self.song.time > 1):
print('FPS: ', self.framecount)
self.framecount = 0
self.song.time = curTime
if self.cursorExists:
self.gs.removeItem(self.cursorLine)
ypos = (self.song.pos / 1000.0 * self.pixPSec)
self.gv.centerOn(0, ypos)
self.cursorLine = self.gs.addLine(0, ypos, 1000, ypos,
self.editorTheme['GridMeasure'])
self.cursorExists = True
self.cursor = True
if self.song.pos < 0:
self.song.pos = 0
self.gv.centerOn(0, 0)
self.pause()
def drawArrowDemo(self, level):
boxRotation = [180, 0, 90, 270, 225, 135, 315, 45, 0]
for beatBox in level.notes:
if beatBox.type == 0:
if beatBox.cutDirection == 8:
notePixmap = QPixmap(graphics_dir + 'redcircle.png')
else:
notePixmap = QPixmap(graphics_dir + 'redarrow.png')
elif beatBox.type == 1:
if beatBox.cutDirection == 8:
notePixmap = QPixmap(graphics_dir + 'bluecircle.png')
else:
notePixmap = QPixmap(graphics_dir + 'bluearrow.png')
else:
notePixmap = QPixmap(graphics_dir + 'mine.png')
notePixmap = notePixmap.scaled(40, 40)
noteBox = NoteBox()
noteBox.setPixmap(notePixmap)
noteBox.setBox(beatBox)
box = self.gs.addItem(noteBox)
print(type(noteBox))
noteBox.setTransformOriginPoint(20, 20)
noteBox.setRotation(boxRotation[beatBox.cutDirection])
boxy = (level.beatToSec(beatBox.time) * self.pixPSec -
(self.reverse * 20)) * self.reverse
boxx = 40 * beatBox.lineIndex + 170 * beatBox.lineLayer
noteBox.setPos(boxx, boxy)
self.boxes.append(noteBox)
def drawBG(self):
self.gs.setBackgroundBrush(self.editorTheme['BG'])
def drawGrid(self, level):
#DEBUG need to through a clear grid in here
self.drawGridConstantTime(level)
def drawGridConstantBeat(self):
pass
def drawGridConstantTime(self, level):
# DONT FORGET TO ADD REVERSE SCROLL
# self.disp192 = True
self.noteLayer1 = self.gs.createItemGroup([])
self.noteLayer2 = self.gs.createItemGroup([])
self.noteLayer3 = self.gs.createItemGroup([])
self.obstacleLayer = self.gs.createItemGroup([])
self.eventLayer = self.gs.createItemGroup([])
width = self.editorTheme['BoxWidth'] * 4
spacing = self.editorTheme['LaneSpacing']
self.noteLayer1Values = LayerValue(0, 0, width)
self.noteLayer2Values = LayerValue((width + spacing), 0, width)
self.noteLayer3Values = LayerValue((width + spacing) * 2, 0, width)
self.obstacleLayerValues = LayerValue((width + spacing) * 3, 0, width)
self.eventLayerValues = LayerValue((width + spacing) * 4, 0, width)
self.drawGridLaneConstantTime(self.noteLayer1, self.noteLayer1Values,
level)
self.drawGridLaneConstantTime(self.noteLayer2, self.noteLayer2Values,
level)
self.drawGridLaneConstantTime(self.noteLayer3, self.noteLayer3Values,
level)
self.drawGridLaneConstantTime(self.obstacleLayer,
self.obstacleLayerValues, level)
self.drawGridLaneConstantTime(self.eventLayer, self.eventLayerValues,
level)
def drawGridLaneConstantTime(self, lane, values, level):
#debug songlen not a int need to address leftover time
for beat in range(int(self.song.lengthInBeats)):
if beat % self.song.beatsPerBar == 0:
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat)) *
self.pixPSec, self.editorTheme['GridMeasure']))
else:
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat)) *
self.pixPSec, self.editorTheme['Grid4']))
if self.disp8:
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + .5)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + .5)) *
self.pixPSec, self.editorTheme['Grid8']))
if self.disp16:
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + .25)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + .25)) *
self.pixPSec, self.editorTheme['Grid16']))
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + .75)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + .75)) *
self.pixPSec, self.editorTheme['Grid16']))
if self.disp32:
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + .125)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + .125)) *
self.pixPSec, self.editorTheme['Grid32']))
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + .375)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + .375)) *
self.pixPSec, self.editorTheme['Grid32']))
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + .625)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + .625)) *
self.pixPSec, self.editorTheme['Grid32']))
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + .875)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + .875)) *
self.pixPSec, self.editorTheme['Grid32']))
if self.disp64:
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + .0625)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + .0625)) *
self.pixPSec, self.editorTheme['Grid64']))
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + .1875)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + .1875)) *
self.pixPSec, self.editorTheme['Grid64']))
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + .3125)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + .3125)) *
self.pixPSec, self.editorTheme['Grid64']))
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + .4375)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + .4375)) *
self.pixPSec, self.editorTheme['Grid64']))
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + .5625)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + .5625)) *
self.pixPSec, self.editorTheme['Grid64']))
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + .6875)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + .6875)) *
self.pixPSec, self.editorTheme['Grid64']))
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + .8125)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + .8125)) *
self.pixPSec, self.editorTheme['Grid64']))
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + .9375)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + .9375)) *
self.pixPSec, self.editorTheme['Grid64']))
if self.disp12:
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + 1 / 3)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + 1 / 3)) *
self.pixPSec, self.editorTheme['Grid12']))
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + 2 / 3)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + 2 / 3)) *
self.pixPSec, self.editorTheme['Grid12']))
if self.disp24:
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + 1 / 6)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + 1 / 6)) *
self.pixPSec, self.editorTheme['Grid24']))
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + .5)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + .5)) *
self.pixPSec, self.editorTheme['Grid24']))
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + 5 / 6)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + 5 / 6)) *
self.pixPSec, self.editorTheme['Grid24']))
if self.disp48:
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + 1 / 12)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + 1 / 12)) *
self.pixPSec, self.editorTheme['Grid48']))
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + .25)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + .25)) *
self.pixPSec, self.editorTheme['Grid48']))
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + 5 / 12)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + 5 / 12)) *
self.pixPSec, self.editorTheme['Grid48']))
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + 7 / 12)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + 7 / 12)) *
self.pixPSec, self.editorTheme['Grid48']))
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + .75)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + .75)) *
self.pixPSec, self.editorTheme['Grid48']))
lane.addToGroup(
self.gs.addLine(
values.x + self.editorTheme['GridLineWidth'],
self.reverse *
(self.song.offset + level.beatToSec(beat + 11 / 12)) *
self.pixPSec, values.x + values.w -
self.editorTheme['GridLineWidth'] * 2,
self.reverse *
(self.song.offset + level.beatToSec(beat + 11 / 12)) *
self.pixPSec, self.editorTheme['Grid48']))
lane.addToGroup(
self.gs.addLine(
values.x, values.y, values.x,
self.reverse *
(self.song.offset + level.beatToSec(self.song.lengthInBeats)) *
self.pixPSec, self.editorTheme['GridLayer1Vert']))
lane.addToGroup(
self.gs.addLine(
values.x + values.w * .25, values.y, values.x + values.w * .25,
self.reverse *
(self.song.offset + level.beatToSec(self.song.lengthInBeats)) *
self.pixPSec, self.editorTheme['GridLayer1Vert']))
lane.addToGroup(
self.gs.addLine(
values.x + values.w * .5, values.y, values.x + values.w * .5,
self.reverse *
(self.song.offset + level.beatToSec(self.song.lengthInBeats)) *
self.pixPSec, self.editorTheme['GridLayer1Vert']))
lane.addToGroup(
self.gs.addLine(
values.x + values.w * .75, values.y, values.x + values.w * .75,
self.reverse *
(self.song.offset + level.beatToSec(self.song.lengthInBeats)) *
self.pixPSec, self.editorTheme['GridLayer1Vert']))
lane.addToGroup(
self.gs.addLine(
values.x + values.w, values.y, values.x + values.w,
self.reverse *
(self.song.offset + level.beatToSec(self.song.lengthInBeats)) *
self.pixPSec, self.editorTheme['GridLayer1Vert']))
def getTheme(self):
return {
'BoxWidth': 60,
'LaneSpacing': 20,
'BG': QBrush(QColor(0, 0, 0), Qt.SolidPattern),
'GridLayer1Vert': QPen(QBrush(QColor(255, 255, 255)), 1,
Qt.SolidLine),
'GridLayer1BG': QBrush(Qt.black, Qt.SolidPattern),
'GridLayer2Vert': QPen(Qt.white, Qt.SolidLine),
'GridLayer2BG': QBrush(Qt.black, Qt.SolidPattern),
'GridLayer3Vert': QPen(Qt.white, Qt.SolidLine),
'GridLayer3BG': QBrush(Qt.black, Qt.SolidPattern),
'GridObs': QPen(Qt.blue, Qt.SolidLine),
'GridObsBG': QBrush(Qt.black, Qt.SolidPattern),
'GridEventVert': QPen(Qt.red, Qt.SolidLine),
'GridEventBG': QBrush(Qt.black, Qt.SolidPattern),
'GridMeasure': QPen(QBrush(QColor(255, 0, 0)), 2, Qt.SolidLine),
'Grid4': QPen(QBrush(QColor(255, 255, 255)), 2, Qt.DashLine),
'Grid8': QPen(QBrush(QColor(0, 150, 255)), 2, Qt.DotLine),
'Grid12': QPen(QBrush(QColor(100, 255, 50)), 2, Qt.DotLine),
'Grid16': QPen(QBrush(QColor(255, 255, 50)), 2, Qt.DotLine),
'Grid24': QPen(QBrush(QColor(150, 100, 255)), 2, Qt.DotLine),
'Grid32': QPen(QBrush(QColor(0, 255, 150)), 2, Qt.DotLine),
'Grid48': QPen(QBrush(QColor(255, 100, 150)), 2, Qt.DotLine),
'Grid64': QPen(QBrush(QColor(150, 200, 100)), 2, Qt.DotLine),
# 'Grid192': QPen(Qt.red,Qt.SolidLine),
'GridLineWidth': 1
}