示例#1
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 def paintEvent(self, event):
     opt = QStyleOption()
     opt.initFrom(self)
     opt.state |= (QStyle.State_Sunken
                   if self.isDown() else QStyle.State_Raised)
     p = QStylePainter(self)
     p.drawPrimitive(QStyle.PE_Widget, opt)
示例#2
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 def paintEvent(self, event):
     option = QStyleOption()
     option.initFrom(self)
     painter = QStylePainter(self)
     painter.setRenderHint(QStylePainter.Antialiasing, True)
     painter.drawPrimitive(
         QStyle.PE_Widget if self.testAttribute(Qt.WA_NoSystemBackground)
         else QStyle.PE_Frame, option)
示例#3
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 def paintEvent(self, event):  # make the widget style aware
     option = QStyleOption()
     option.initFrom(self)
     painter = QStylePainter(self)
     painter.drawPrimitive(QStyle.PE_Widget, option)
示例#4
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    def paintEvent(self, event):
        option = QStyleOption()
        option.initFrom(self)

        contents_rect = self.style().subElementRect(QStyle.SE_FrameContents, option, self) or self.contentsRect()  # the SE_FrameContents rect is Null unless the stylesheet defines decorations

        if self.graphStyle == self.BarStyle:
            graph_width = self.__dict__['graph_width'] = int(ceil(float(contents_rect.width()) / self.horizontalPixelsPerUnit))
        else:
            graph_width = self.__dict__['graph_width'] = int(ceil(float(contents_rect.width() - 1) / self.horizontalPixelsPerUnit) + 1)

        max_value = self.__dict__['max_value'] = max(chain([0], *(islice(reversed(graph.data), graph_width) for graph in self.graphs if graph.enabled)))

        if self.graphHeight == self.AutomaticHeight or self.graphHeight < 0:
            graph_height = self.__dict__['graph_height'] = max(self.scaler.get_height(max_value), self.minHeight)
        else:
            graph_height = self.__dict__['graph_height'] = max(self.graphHeight, self.minHeight)

        if self.graphStyle == self.BarStyle:
            height_scaling = float(contents_rect.height()) / graph_height
        else:
            height_scaling = float(contents_rect.height() - self.lineThickness) / graph_height

        painter = QStylePainter(self)
        painter.drawPrimitive(QStyle.PE_Widget, option)

        painter.setClipRect(contents_rect)

        painter.save()
        painter.translate(contents_rect.x() + contents_rect.width() - 1, contents_rect.y() + contents_rect.height() - 1)
        painter.scale(-1, -1)

        painter.setRenderHint(QStylePainter.Antialiasing, self.graphStyle != self.BarStyle)

        for graph in (graph for graph in self.graphs if graph.enabled and graph.data):
            if self.boundary is not None and 0 < self.boundary < graph_height:
                boundary_width = min(5.0/height_scaling, self.boundary-0, graph_height-self.boundary)
                pen_color = QLinearGradient(0, (self.boundary - boundary_width) * height_scaling, 0, (self.boundary + boundary_width) * height_scaling)
                pen_color.setColorAt(0, graph.color)
                pen_color.setColorAt(1, graph.over_boundary_color)
                brush_color = QLinearGradient(0, (self.boundary - boundary_width) * height_scaling, 0, (self.boundary + boundary_width) * height_scaling)
                brush_color.setColorAt(0, self.color_with_alpha(graph.color, self.fillTransparency))
                brush_color.setColorAt(1, self.color_with_alpha(graph.over_boundary_color, self.fillTransparency))
            else:
                pen_color = graph.color
                brush_color = self.color_with_alpha(graph.color, self.fillTransparency)
            dataset = islice(reversed(graph.data), graph_width)
            if self.graphStyle == self.BarStyle:
                lines = [QLineF(x*self.horizontalPixelsPerUnit, 0, x*self.horizontalPixelsPerUnit, y*height_scaling) for x, y in enumerate(dataset)]
                painter.setPen(QPen(pen_color, self.lineThickness))
                painter.drawLines(lines)
            else:
                painter.translate(0, +self.lineThickness/2 - 1)

                if self.smoothEnvelope and self.smoothFactor > 0:
                    min_value = 0
                    max_value = graph_height * height_scaling
                    cx_offset = self.horizontalPixelsPerUnit / 3.0
                    smoothness = self.smoothFactor

                    last_values = deque(3*[next(dataset) * height_scaling], maxlen=3)  # last 3 values: 0 last, 1 previous, 2 previous previous

                    envelope = QPainterPath()
                    envelope.moveTo(0, last_values[0])
                    for x, y in enumerate(dataset, 1):
                        x = x * self.horizontalPixelsPerUnit
                        y = y * height_scaling * (1 - smoothness) + last_values[0] * smoothness
                        last_values.appendleft(y)
                        c1x = x - cx_offset * 2
                        c2x = x - cx_offset
                        c1y = limit((1 + smoothness) * last_values[1] - smoothness * last_values[2], min_value, max_value)  # same gradient as previous previous value to previous value
                        c2y = limit((1 - smoothness) * last_values[0] + smoothness * last_values[1], min_value, max_value)  # same gradient as previous value to last value
                        envelope.cubicTo(c1x, c1y, c2x, c2y, x, y)
                else:
                    envelope = QPainterPath()
                    envelope.addPolygon(QPolygonF([QPointF(x*self.horizontalPixelsPerUnit, y*height_scaling) for x, y in enumerate(dataset)]))

                if self.fillEnvelope or graph.fill_envelope:
                    first_element = envelope.elementAt(0)
                    last_element = envelope.elementAt(envelope.elementCount() - 1)
                    fill_path = QPainterPath()
                    fill_path.moveTo(last_element.x, last_element.y)
                    fill_path.lineTo(last_element.x + 1, last_element.y)
                    fill_path.lineTo(last_element.x + 1, -self.lineThickness)
                    fill_path.lineTo(-self.lineThickness, -self.lineThickness)
                    fill_path.lineTo(-self.lineThickness, first_element.y)
                    fill_path.connectPath(envelope)
                    painter.fillPath(fill_path, brush_color)

                painter.strokePath(envelope, QPen(pen_color, self.lineThickness, join=Qt.RoundJoin))

                painter.translate(0, -self.lineThickness/2 + 1)

        if self.boundary is not None and self.boundaryColor:
            painter.setRenderHint(QStylePainter.Antialiasing, False)
            painter.setPen(QPen(self.boundaryColor, 1.0))
            painter.drawLine(0, self.boundary*height_scaling, contents_rect.width(), self.boundary*height_scaling)

        painter.restore()

        # queue the 'updated' signal to be emitted after returning to the main loop
        QMetaObject.invokeMethod(self, 'updated', Qt.QueuedConnection)
示例#5
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 def paintEvent(self, event):
     option = QStyleOption()
     option.initFrom(self)
     painter = QStylePainter(self)
     painter.setRenderHint(QStylePainter.Antialiasing, True)
     painter.drawPrimitive(QStyle.PE_Widget if self.testAttribute(Qt.WA_NoSystemBackground) else QStyle.PE_Frame, option)
示例#6
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 def paintEvent(self, event):
     p = QStylePainter(self)
     opt = QStyleOptionFrame()
     opt.initFrom(self)
     p.drawPrimitive(QStyle.PE_PanelTipLabel, opt)
     p.end()
示例#7
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 def paintEvent(self, event):  # make the widget style aware
     option = QStyleOption()
     option.initFrom(self)
     painter = QStylePainter(self)
     painter.drawPrimitive(QStyle.PE_Widget, option)
示例#8
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    def paintEvent(self, event):
        option = QStyleOption()
        option.initFrom(self)

        contents_rect = self.style().subElementRect(
            QStyle.SE_FrameContents, option, self
        ) or self.contentsRect(
        )  # the SE_FrameContents rect is Null unless the stylesheet defines decorations

        if self.graphStyle == self.BarStyle:
            graph_width = self.__dict__['graph_width'] = int(
                ceil(
                    float(contents_rect.width()) /
                    self.horizontalPixelsPerUnit))
        else:
            graph_width = self.__dict__['graph_width'] = int(
                ceil(
                    float(contents_rect.width() - 1) /
                    self.horizontalPixelsPerUnit) + 1)

        max_value = self.__dict__['max_value'] = max(
            chain([0],
                  *(islice(reversed(graph.data), graph_width)
                    for graph in self.graphs if graph.enabled)))

        if self.graphHeight == self.AutomaticHeight or self.graphHeight < 0:
            graph_height = self.__dict__['graph_height'] = max(
                self.scaler.get_height(max_value), self.minHeight)
        else:
            graph_height = self.__dict__['graph_height'] = max(
                self.graphHeight, self.minHeight)

        if self.graphStyle == self.BarStyle:
            height_scaling = float(contents_rect.height()) / graph_height
        else:
            height_scaling = float(contents_rect.height() -
                                   self.lineThickness) / graph_height

        painter = QStylePainter(self)
        painter.drawPrimitive(QStyle.PE_Widget, option)

        painter.setClipRect(contents_rect)

        painter.save()
        painter.translate(contents_rect.x() + contents_rect.width() - 1,
                          contents_rect.y() + contents_rect.height() - 1)
        painter.scale(-1, -1)

        painter.setRenderHint(QStylePainter.Antialiasing,
                              self.graphStyle != self.BarStyle)

        for graph in (graph for graph in self.graphs
                      if graph.enabled and graph.data):
            if self.boundary is not None and 0 < self.boundary < graph_height:
                boundary_width = min(5.0 / height_scaling, self.boundary - 0,
                                     graph_height - self.boundary)
                pen_color = QLinearGradient(
                    0, (self.boundary - boundary_width) * height_scaling, 0,
                    (self.boundary + boundary_width) * height_scaling)
                pen_color.setColorAt(0, graph.color)
                pen_color.setColorAt(1, graph.over_boundary_color)
                brush_color = QLinearGradient(
                    0, (self.boundary - boundary_width) * height_scaling, 0,
                    (self.boundary + boundary_width) * height_scaling)
                brush_color.setColorAt(
                    0, self.color_with_alpha(graph.color,
                                             self.fillTransparency))
                brush_color.setColorAt(
                    1,
                    self.color_with_alpha(graph.over_boundary_color,
                                          self.fillTransparency))
            else:
                pen_color = graph.color
                brush_color = self.color_with_alpha(graph.color,
                                                    self.fillTransparency)
            dataset = islice(reversed(graph.data), graph_width)
            if self.graphStyle == self.BarStyle:
                lines = [
                    QLineF(x * self.horizontalPixelsPerUnit, 0,
                           x * self.horizontalPixelsPerUnit,
                           y * height_scaling) for x, y in enumerate(dataset)
                ]
                painter.setPen(QPen(pen_color, self.lineThickness))
                painter.drawLines(lines)
            else:
                painter.translate(0, +self.lineThickness / 2 - 1)

                if self.smoothEnvelope and self.smoothFactor > 0:
                    min_value = 0
                    max_value = graph_height * height_scaling
                    cx_offset = self.horizontalPixelsPerUnit / 3.0
                    smoothness = self.smoothFactor

                    last_values = deque(
                        3 * [next(dataset) * height_scaling], maxlen=3
                    )  # last 3 values: 0 last, 1 previous, 2 previous previous

                    envelope = QPainterPath()
                    envelope.moveTo(0, last_values[0])
                    for x, y in enumerate(dataset, 1):
                        x = x * self.horizontalPixelsPerUnit
                        y = y * height_scaling * (
                            1 - smoothness) + last_values[0] * smoothness
                        last_values.appendleft(y)
                        c1x = x - cx_offset * 2
                        c2x = x - cx_offset
                        c1y = limit(
                            (1 + smoothness) * last_values[1] -
                            smoothness * last_values[2], min_value, max_value
                        )  # same gradient as previous previous value to previous value
                        c2y = limit(
                            (1 - smoothness) * last_values[0] +
                            smoothness * last_values[1], min_value, max_value
                        )  # same gradient as previous value to last value
                        envelope.cubicTo(c1x, c1y, c2x, c2y, x, y)
                else:
                    envelope = QPainterPath()
                    envelope.addPolygon(
                        QPolygonF([
                            QPointF(x * self.horizontalPixelsPerUnit,
                                    y * height_scaling)
                            for x, y in enumerate(dataset)
                        ]))

                if self.fillEnvelope or graph.fill_envelope:
                    first_element = envelope.elementAt(0)
                    last_element = envelope.elementAt(envelope.elementCount() -
                                                      1)
                    fill_path = QPainterPath()
                    fill_path.moveTo(last_element.x, last_element.y)
                    fill_path.lineTo(last_element.x + 1, last_element.y)
                    fill_path.lineTo(last_element.x + 1, -self.lineThickness)
                    fill_path.lineTo(-self.lineThickness, -self.lineThickness)
                    fill_path.lineTo(-self.lineThickness, first_element.y)
                    fill_path.connectPath(envelope)
                    painter.fillPath(fill_path, brush_color)

                painter.strokePath(
                    envelope,
                    QPen(pen_color, self.lineThickness, join=Qt.RoundJoin))

                painter.translate(0, -self.lineThickness / 2 + 1)

        if self.boundary is not None and self.boundaryColor:
            painter.setRenderHint(QStylePainter.Antialiasing, False)
            painter.setPen(QPen(self.boundaryColor, 1.0))
            painter.drawLine(0, self.boundary * height_scaling,
                             contents_rect.width(),
                             self.boundary * height_scaling)

        painter.restore()

        # queue the 'updated' signal to be emitted after returning to the main loop
        QMetaObject.invokeMethod(self, 'updated', Qt.QueuedConnection)
    def paintEvent(self, event: QPaintEvent) -> None:
        """
        Render the custom widget
        """

        painter = QStylePainter()
        painter.begin(self)

        x = 0
        y = 0
        width = self.width()

        rect = self.rect()  # type: QRect

        if self.display_type == DestinationDisplayType.usage_only and QSplitter(
        ).lineWidth():
            # Draw a frame if that's what the style requires
            option = QStyleOptionFrame()
            option.initFrom(self)
            painter.drawPrimitive(QStyle.PE_Frame, option)

            w = QSplitter().lineWidth()
            rect.adjust(w, w, -w, -w)

        palette = QPalette()
        backgroundColor = palette.base().color()
        painter.fillRect(rect, backgroundColor)

        if self.storage_space is None:
            painter.end()
            return

        highlight_menu = self.mouse_pos == DestinationDisplayMousePos.menu

        if self.display_type != DestinationDisplayType.usage_only:
            # Render the folder icon, folder name, and the menu icon
            self.deviceDisplay.paint_header(painter=painter,
                                            x=x,
                                            y=y,
                                            width=width,
                                            display_name=self.display_name,
                                            icon=self.icon,
                                            highlight_menu=highlight_menu)
            y = y + self.deviceDisplay.device_name_height

        if self.display_type != DestinationDisplayType.folder_only:
            # Render the projected storage space
            if self.display_type == DestinationDisplayType.usage_only:
                y += self.deviceDisplay.padding

            photos_size_to_download, videos_size_to_download = adjusted_download_size(
                photos_size_to_download=self.photos_size_to_download,
                videos_size_to_download=self.videos_size_to_download,
                os_stat_device=self.os_stat_device,
                downloading_to=self._downloading_to)

            details = make_body_details(
                bytes_total=self.storage_space.bytes_total,
                bytes_free=self.storage_space.bytes_free,
                files_to_display=self.files_to_display,
                marked=self.marked,
                photos_size_to_download=photos_size_to_download,
                videos_size_to_download=videos_size_to_download)

            self.deviceDisplay.paint_body(painter=painter,
                                          x=x,
                                          y=y,
                                          width=width,
                                          details=details)

        painter.end()
 def paintEvent(self, *opts):
     painter = QStylePainter(self)
     option = QStyleOptionFrame()
     option.initFrom(self)
     painter.drawPrimitive(QStyle.PE_Frame, option)
     super().paintEvent(*opts)
示例#11
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 def paintEvent(self, event):
     p = QStylePainter(self)
     opt = QStyleOptionFrame()
     opt.initFrom(self)
     p.drawPrimitive(QStyle.PE_PanelTipLabel, opt)
     p.end()