def fitRect(rect, targetrect):
size = rect.size().boundedTo(targetgeom.size())
newrect = QRect(rect.topLeft(), size)
dx, dy = 0, 0
if newrect.left() < targetrect.left():
dx = targetrect.left() - newrect.left()
if newrect.top() < targetrect.top():
dy = targetrect.top() - newrect.top()
if newrect.right() > targetrect.right():
dx = targetrect.right() - newrect.right()
if newrect.bottom() > targetrect.bottom():
dy = targetrect.bottom() - newrect.bottom()
return newrect.translated(dx, dy)
def paintHorizontalCell(self, painter: QPainter, hv: QHeaderView,
cellIndex: QModelIndex, leafIndex: QModelIndex,
logicalLeafIndex: int,
styleOptions: QStyleOptionHeader,
sectionRect: QRect, top: int):
uniopt = QStyleOptionHeader(styleOptions)
self.setForegroundBrush(uniopt, cellIndex)
self.setBackgroundBrush(uniopt, cellIndex)
height = self.cellSize(cellIndex, hv, uniopt).height()
if cellIndex == leafIndex:
height = sectionRect.height() - top
left = self.currentCellLeft(cellIndex, leafIndex, logicalLeafIndex,
sectionRect.left(), hv)
width = self.currentCellWidth(cellIndex, leafIndex,
logicalLeafIndex, hv)
r = QRect(left, top, width, height)
uniopt.text = cellIndex.data(Qt.DisplayRole)
painter.save()
uniopt.rect = r
if cellIndex.data(Qt.UserRole):
hv.style().drawControl(QStyle.CE_HeaderSection, uniopt,
painter, hv)
m = QMatrix()
m.rotate(-90)
painter.setWorldMatrix(m, True)
new_r = QRect(0, 0, r.height(), r.width())
new_r.moveCenter(QPoint(-r.center().y(), r.center().x()))
uniopt.rect = new_r
hv.style().drawControl(QStyle.CE_HeaderLabel, uniopt, painter,
hv)
else:
hv.style().drawControl(QStyle.CE_Header, uniopt, painter, hv)
painter.restore()
return top + height
def popup(self, pos=None, searchText=""):
"""
Popup the menu at `pos` (in screen coordinates). 'Search' text field
is initialized with `searchText` if provided.
"""
if pos is None:
pos = QPoint()
self.__clearCurrentItems()
self.__search.setText(searchText)
patt = QRegExp("(^|\W)"+searchText)
patt.setCaseSensitivity(False)
self.__suggestPage.setFilterRegExp(patt)
self.ensurePolished()
if self.testAttribute(Qt.WA_Resized) and self.sizeGripEnabled():
size = self.size()
else:
size = self.sizeHint()
desktop = QApplication.desktop()
screen_geom = desktop.availableGeometry(pos)
# Adjust the size to fit inside the screen.
if size.height() > screen_geom.height():
size.setHeight(screen_geom.height())
if size.width() > screen_geom.width():
size.setWidth(screen_geom.width())
geom = QRect(pos, size)
if geom.top() < screen_geom.top():
geom.setTop(screen_geom.top())
if geom.left() < screen_geom.left():
geom.setLeft(screen_geom.left())
bottom_margin = screen_geom.bottom() - geom.bottom()
right_margin = screen_geom.right() - geom.right()
if bottom_margin < 0:
# Falls over the bottom of the screen, move it up.
geom.translate(0, bottom_margin)
# TODO: right to left locale
if right_margin < 0:
# Falls over the right screen edge, move the menu to the
# other side of pos.
geom.translate(-size.width(), 0)
self.setGeometry(geom)
self.show()
if searchText:
self.setFocusProxy(self.__search)
else:
self.setFocusProxy(None)
def __autoScrollAdvance(self):
"""Advance the auto scroll
"""
pos = QCursor.pos()
pos = self.mapFromGlobal(pos)
margin = self.__autoScrollMargin
vvalue = self.verticalScrollBar().value()
hvalue = self.horizontalScrollBar().value()
vrect = QRect(0, 0, self.width(), self.height())
# What should be the speed
advance = 10
# We only do auto scroll if the mouse is inside the view.
if vrect.contains(pos):
if pos.x() < vrect.left() + margin:
self.horizontalScrollBar().setValue(hvalue - advance)
if pos.y() < vrect.top() + margin:
self.verticalScrollBar().setValue(vvalue - advance)
if pos.x() > vrect.right() - margin:
self.horizontalScrollBar().setValue(hvalue + advance)
if pos.y() > vrect.bottom() - margin:
self.verticalScrollBar().setValue(vvalue + advance)
if self.verticalScrollBar().value() == vvalue and \
self.horizontalScrollBar().value() == hvalue:
self.__stopAutoScroll()
else:
self.__stopAutoScroll()
log.debug("Auto scroll advance")
def applyMargin(rect, margin):
result = QRect(rect)
result.setLeft(result.left()+margin)
result.setRight(result.right()-margin)
result.setTop(result.top()+margin)
result.setBottom(result.bottom()-margin)
return result
def popup(self, pos=None, searchText=""):
"""
Popup the menu at `pos` (in screen coordinates). 'Search' text field
is initialized with `searchText` if provided.
"""
if pos is None:
pos = QPoint()
self.__clearCurrentItems()
self.__search.setText(searchText)
patt = QRegExp("(^|\W)" + searchText)
patt.setCaseSensitivity(False)
self.__suggestPage.setFilterRegExp(patt)
self.ensurePolished()
if self.testAttribute(Qt.WA_Resized) and self.sizeGripEnabled():
size = self.size()
else:
size = self.sizeHint()
desktop = QApplication.desktop()
screen_geom = desktop.availableGeometry(pos)
# Adjust the size to fit inside the screen.
if size.height() > screen_geom.height():
size.setHeight(screen_geom.height())
if size.width() > screen_geom.width():
size.setWidth(screen_geom.width())
geom = QRect(pos, size)
if geom.top() < screen_geom.top():
geom.setTop(screen_geom.top())
if geom.left() < screen_geom.left():
geom.setLeft(screen_geom.left())
bottom_margin = screen_geom.bottom() - geom.bottom()
right_margin = screen_geom.right() - geom.right()
if bottom_margin < 0:
# Falls over the bottom of the screen, move it up.
geom.translate(0, bottom_margin)
# TODO: right to left locale
if right_margin < 0:
# Falls over the right screen edge, move the menu to the
# other side of pos.
geom.translate(-size.width(), 0)
self.setGeometry(geom)
self.show()
if searchText:
self.setFocusProxy(self.__search)
else:
self.setFocusProxy(None)
def paint(self, painter, option, index):
painter.setFont(option.font)
painter.setBrush(QBrush(Qt.black))
if option.state & QStyle.State_Selected:
painter.setPen(QPen(Qt.white))
rect = QRect(option.rect)
rect.setLeft(rect.left() + 4)
rect.setTop(rect.top() + 4)
rect.setWidth(rect.width() - 8)
rect.setHeight(rect.height() - 8)
painter.drawText(rect, Qt.Horizontal | Qt.TextWordWrap,
forceString(index.data()))
def mouseReleaseEvent(self, event):
if not self.rubberBand.size().isEmpty():
rect = QRect(self.rubberBand.pos(), self.rubberBand.size())
rect.moveLeft(rect.left() -
(self.width() - self.pixmap().width()) / 2.0)
rect.moveTop(rect.top() -
(self.height() - self.pixmap().height()) / 2.0)
self.currentSelection = rect
self.copySelectionMenu.popup(QCursor.pos())
else:
self.copyMenu.popup(QCursor.pos())
self.rubberBand.hide()
def popup_position_from_source(popup, source, orientation=Qt.Vertical):
popup.ensurePolished()
source.ensurePolished()
if popup.testAttribute(Qt.WA_Resized):
size = popup.size()
else:
size = popup.sizeHint()
desktop = QApplication.desktop()
screen_geom = desktop.availableGeometry(source)
source_rect = QRect(source.mapToGlobal(QPoint(0, 0)), source.size())
if orientation == Qt.Vertical:
if source_rect.right() + size.width() < screen_geom.right():
x = source_rect.right()
else:
x = source_rect.left() - size.width()
# bottom overflow
dy = source_rect.top() + size.height() - screen_geom.bottom()
if dy < 0:
y = source_rect.top()
else:
y = source_rect.top() - dy
else:
# right overflow
dx = source_rect.left() + size.width() - screen_geom.right()
if dx < 0:
x = source_rect.left()
else:
x = source_rect.left() - dx
if source_rect.bottom() + size.height() < screen_geom.bottom():
y = source_rect.bottom()
else:
y = source_rect.top() - size.height()
return QPoint(x, y)
def popup_position_from_source(popup, source, orientation=Qt.Vertical):
popup.ensurePolished()
source.ensurePolished()
if popup.testAttribute(Qt.WA_Resized):
size = popup.size()
else:
size = popup.sizeHint()
desktop = QApplication.desktop()
screen_geom = desktop.availableGeometry(source)
source_rect = QRect(source.mapToGlobal(QPoint(0, 0)), source.size())
if orientation == Qt.Vertical:
if source_rect.right() + size.width() < screen_geom.right():
x = source_rect.right()
else:
x = source_rect.left() - size.width()
# bottom overflow
dy = source_rect.top() + size.height() - screen_geom.bottom()
if dy < 0:
y = source_rect.top()
else:
y = source_rect.top() - dy
else:
# right overflow
dx = source_rect.left() + size.width() - screen_geom.right()
if dx < 0:
x = source_rect.left()
else:
x = source_rect.left() - dx
if source_rect.bottom() + size.height() < screen_geom.bottom():
y = source_rect.bottom()
else:
y = source_rect.top() - size.height()
return QPoint(x, y)
def render(self,fname):
contentsSize = self.contentFrame.contentsSize()
contentsSize -= QSize(self.m_scrollPosition.x(), self.m_scrollPosition.y())
frameRect = QRect(QPoint(0, 0), contentsSize)
#if not self.m_clipRect.isEmpty():
# frameRect = self.m_clipRect
viewportSize = self.contentPage.viewportSize()
self.contentPage.setViewportSize(contentsSize)
image = QImage(frameRect.size(), QImage.Format_ARGB32)
image.fill(qRgba(255, 255, 255, 0))
painter = QPainter()
# We use tiling approach to work-around Qt software rasterizer bug
# when dealing with very large paint device.
# See http://code.google.com/p/phantomjs/issues/detail?id=54.
tileSize = 4096
htiles = (image.width() + tileSize - 1) / tileSize
vtiles = (image.height() + tileSize - 1) / tileSize
for x in range(htiles):
for y in range(vtiles):
tileBuffer = QImage(tileSize, tileSize, QImage.Format_ARGB32)
tileBuffer.fill(qRgba(255, 255, 255, 0))
# Render the web page onto the small tile first
painter.begin(tileBuffer)
painter.setRenderHint(QPainter.Antialiasing, True)
painter.setRenderHint(QPainter.TextAntialiasing, True)
painter.setRenderHint(QPainter.SmoothPixmapTransform, True)
painter.translate(-frameRect.left(), -frameRect.top())
painter.translate(-x * tileSize, -y * tileSize)
self.contentFrame.render(painter, QRegion(frameRect))
painter.end()
# Copy the tile to the main buffer
painter.begin(image)
painter.setCompositionMode(QPainter.CompositionMode_Source)
painter.drawImage(x * tileSize, y * tileSize, tileBuffer)
painter.end()
self.contentPage.setViewportSize(viewportSize)
image.save(fname)
return True
def paint(self, painter, option, index):
self.initStyleOption(option, index)
# No idea why, but this cast is required if we want to have access to the V4 valuess
option = QStyleOptionViewItemV4(option)
if (index.column() == 1) and (option.state & QStyle.State_Selected):
cboption = QStyleOptionComboBox()
cboption.rect = option.rect
# On OS X (with Qt4.6.0), adding State_Enabled to the flags causes the whole drawing to
# fail (draw nothing), but it's an OS X only glitch. On Windows, it works alright.
cboption.state |= QStyle.State_Enabled
QApplication.style().drawComplexControl(QStyle.CC_ComboBox, cboption, painter)
painter.setBrush(option.palette.text())
rect = QRect(option.rect)
rect.setLeft(rect.left()+4)
painter.drawText(rect, Qt.AlignLeft, option.text)
else:
QStyledItemDelegate.paint(self, painter, option, index)
def paint(self, painter, option, index):
self.initStyleOption(option, index)
# No idea why, but this cast is required if we want to have access to the V4 valuess
option = QStyleOptionViewItemV4(option)
if (index.column() == 1) and (option.state & QStyle.State_Selected):
cboption = QStyleOptionComboBox()
cboption.rect = option.rect
# On OS X (with Qt4.6.0), adding State_Enabled to the flags causes the whole drawing to
# fail (draw nothing), but it's an OS X only glitch. On Windows, it works alright.
cboption.state |= QStyle.State_Enabled
QApplication.style().drawComplexControl(QStyle.CC_ComboBox,
cboption, painter)
painter.setBrush(option.palette.text())
rect = QRect(option.rect)
rect.setLeft(rect.left() + 4)
painter.drawText(rect, Qt.AlignLeft, option.text)
else:
QStyledItemDelegate.paint(self, painter, option, index)
def paint(self, painter, option, index):
"""Performs custom painting of value of data in the model and decorations.
Performs custom painting of value of data in the model at the specified index
plus any decorations used in that column.
Args:
painter - QPainter
option - QStyleOptionViewItemV4
index - QModelIndex
"""
self.initStyleOption(option, index)
# I don't know why I have to do this. option.version returns 4, but still, when I try to
# access option.features, boom-crash. The workaround is to force a V4.
option = QStyleOptionViewItemV4(option)
decorations = self._get_decorations(index, bool(option.state & QStyle.State_Selected))
if decorations:
option.decorationPosition = QStyleOptionViewItemV4.Right
decorationWidth = sum(dec.pixmap.width() for dec in decorations)
decorationHeight = max(dec.pixmap.height() for dec in decorations)
option.decorationSize = QSize(decorationWidth, decorationHeight)
option.features |= QStyleOptionViewItemV4.HasDecoration
self._prepare_paint_options(option, index)
xOffset = 0
# First added for #15, the painting of custom amount information. This can
# be used as a pattern for painting any column of information.
value_painter = self._get_value_painter(index)
self._display_text = value_painter is None
QStyledItemDelegate.paint(self, painter, option, index)
if value_painter is not None:
value_option = QStyleOptionViewItemV4(option)
rect = value_option.rect
rect = QRect(rect.left(), rect.top(), rect.width() - xOffset, rect.height())
value_option.rect = rect
value_painter.paint(painter, value_option, index)
for dec in decorations:
pixmap = dec.pixmap
x = option.rect.right() - pixmap.width() - xOffset
y = option.rect.center().y() - (pixmap.height() // 2)
rect = QRect(x, y, pixmap.width(), pixmap.height())
painter.drawPixmap(rect, pixmap)
xOffset += pixmap.width()
def renderImage(self):
contentsSize = self.m_mainFrame.contentsSize()
contentsSize -= QSize(self.m_scrollPosition.x(), self.m_scrollPosition.y())
frameRect = QRect(QPoint(0, 0), contentsSize)
if not self.m_clipRect.isEmpty():
frameRect = self.m_clipRect
viewportSize = self.m_webPage.viewportSize()
self.m_webPage.setViewportSize(contentsSize)
image = QImage(frameRect.size(), QImage.Format_ARGB32)
image.fill(qRgba(255, 255, 255, 0))
painter = QPainter()
# We use tiling approach to work-around Qt software rasterizer bug
# when dealing with very large paint device.
# See http://code.google.com/p/phantomjs/issues/detail?id=54.
tileSize = 4096
htiles = (image.width() + tileSize - 1) / tileSize
vtiles = (image.height() + tileSize - 1) / tileSize
for x in range(htiles):
for y in range(vtiles):
tileBuffer = QImage(tileSize, tileSize, QImage.Format_ARGB32)
tileBuffer.fill(qRgba(255, 255, 255, 0))
# Render the web page onto the small tile first
painter.begin(tileBuffer)
painter.setRenderHint(QPainter.Antialiasing, True)
painter.setRenderHint(QPainter.TextAntialiasing, True)
painter.setRenderHint(QPainter.SmoothPixmapTransform, True)
painter.translate(-frameRect.left(), -frameRect.top())
painter.translate(-x * tileSize, -y * tileSize)
self.m_mainFrame.render(painter, QRegion(frameRect))
painter.end()
# Copy the tile to the main buffer
painter.begin(image)
painter.setCompositionMode(QPainter.CompositionMode_Source)
painter.drawImage(x * tileSize, y * tileSize, tileBuffer)
painter.end()
self.m_webPage.setViewportSize(viewportSize)
return image
def widget_popup_geometry(pos, widget):
widget.ensurePolished()
if widget.testAttribute(Qt.WA_Resized):
size = widget.size()
else:
size = widget.sizeHint()
desktop = QApplication.desktop()
screen_geom = desktop.availableGeometry(pos)
# Adjust the size to fit inside the screen.
if size.height() > screen_geom.height():
size.setHeight(screen_geom.height())
if size.width() > screen_geom.width():
size.setWidth(screen_geom.width())
geom = QRect(pos, size)
if geom.top() < screen_geom.top():
geom.setTop(screen_geom.top())
if geom.left() < screen_geom.left():
geom.setLeft(screen_geom.left())
bottom_margin = screen_geom.bottom() - geom.bottom()
right_margin = screen_geom.right() - geom.right()
if bottom_margin < 0:
# Falls over the bottom of the screen, move it up.
geom.translate(0, bottom_margin)
# TODO: right to left locale
if right_margin < 0:
# Falls over the right screen edge, move the menu to the
# other side of pos.
geom.translate(-size.width(), 0)
return geom
def widget_popup_geometry(pos, widget):
widget.ensurePolished()
if widget.testAttribute(Qt.WA_Resized):
size = widget.size()
else:
size = widget.sizeHint()
desktop = QApplication.desktop()
screen_geom = desktop.availableGeometry(pos)
# Adjust the size to fit inside the screen.
if size.height() > screen_geom.height():
size.setHeight(screen_geom.height())
if size.width() > screen_geom.width():
size.setWidth(screen_geom.width())
geom = QRect(pos, size)
if geom.top() < screen_geom.top():
geom.setTop(screen_geom.top())
if geom.left() < screen_geom.left():
geom.setLeft(screen_geom.left())
bottom_margin = screen_geom.bottom() - geom.bottom()
right_margin = screen_geom.right() - geom.right()
if bottom_margin < 0:
# Falls over the bottom of the screen, move it up.
geom.translate(0, bottom_margin)
# TODO: right to left locale
if right_margin < 0:
# Falls over the right screen edge, move the menu to the
# other side of pos.
geom.translate(-size.width(), 0)
return geom
def __init__(self, url):
QWidget.__init__(self, None, Qt.ToolTip)
self.url = url
self.font = QFont(QApplication.font(self))
self.font.setPointSize(8)
desktop = QApplication.desktop().availableGeometry(self)
cursor = QCursor.pos()
rect = QRect(cursor + QPoint(-10, 10), QSize(240,180 + QFontMetrics(self.font).height()))
if rect.left() < desktop.left():
rect.moveLeft(desktop.left())
if rect.right() > desktop.right():
rect.moveRight(cursor.x() - 10)
if rect.bottom() > desktop.bottom():
rect.moveBottom(cursor.y() - 10)
self.setGeometry(rect)
self.pixmap = None
self.progress = 0
self.title = unicode(self.url)
self.webView = QWebView()
self.webView.page().mainFrame().setScrollBarPolicy(Qt.Horizontal, Qt.ScrollBarAlwaysOff)
self.webView.page().mainFrame().setScrollBarPolicy(Qt.Vertical, Qt.ScrollBarAlwaysOff)
self.webView.resize(1024,768)
self.webView.load(QUrl(url))
self.timer = QTimer(self)
self.connect(self.timer, SIGNAL("timeout()"), self.refresh)
self.timer.start(3000)
self.connect(self.webView, SIGNAL("loadFinished(bool)"), self.refresh)
self.connect(self.webView, SIGNAL("loadProgress(int)"), self.updateProgress)
self.connect(self.webView, SIGNAL("urlChanged(const QUrl&)"), self.newUrl)
self.connect(self.webView, SIGNAL("titleChanged(const QString&)"), self.newTitle)
class ImageView(QtGui.QScrollArea):
def __init__(self,parent):
'''constructor of ImageView'''
QtGui.QWidget.__init__(self)
self.parent = parent
self.selection = None
self.image = None
self.zoom = 100
#if (!ic) ic=new IconCache();
self.setFocusPolicy(QtCore.Qt.WheelFocus)
self.setSizePolicy(QtGui.QSizePolicy.Expanding,QtGui.QSizePolicy.Expanding)
self.d =ImageViewPrivate(self)
self.setWidget(self.d)
self.setWidgetResizable(True)
self.setBackgroundRole(QtGui.QPalette.Dark)
self.setMouseTracking(True)
self.mouse_x = -1
self.mouse_y = -1
self.mouse_ex = 0
self.mouse_ey = 0
self.data_rect = QtCore.QRect(0,0,1,1)
#self.setMode(view)
def saveImage(self,name):
'''Save image in viewer under given name'''
if self.image:
save_success = self.image.saveImage(name)
if save_success:
return True
else :
return False
else:
print("[ImageView][Save Image Failed]:No image to save")
return False
def selectionFromImageCoords(self,selectionRect):
'''Return selection rectangle converted from image coordinate system to window coordinate syste'''
x= (selectionRect.left())*self.data_rect.width()/self.image.x()+self.data_rect.left()
y= (selectionRect.top())*self.data_rect.height()/self.image.y()+self.data_rect.top()
xr=(selectionRect.right()+1)*self.data_rect.width()/self.image.x()+self.data_rect.left()-1
yr=(selectionRect.bottom()+1)*self.data_rect.height()/self.image.y()+self.data_rect.top()-1
return QRect(x,y,xr,yr)
def selectPointToImageCoords(self,point):
'''Return selected point converted to image coordinate system'''
dw=self.data_rect.width()
dh=self.data_rect.height()
x=int(floor((point.x()-self.data_rect.left())* self.image.x()/dw))-1
y=int(floor((point.y()-self.data_rect.top())* self.image.y()/dh))-1
return QPoint(x,y)
def selectionToImageCoords(self,selectionRect):
'''Return selection rectangle converted to image coordinate system@param selectionRect rectangle to convert'''
dw=self.data_rect.width()
dh=self.data_rect.height()
x=int(floor((selectionRect.left()-self.data_rect.left())* self.image.x()/dw))
y=int(floor((selectionRect.top()-self.data_rect.top())* self.image.y()/dh))
xr=int(floor((selectionRect.right()-self.data_rect.left()) * self.image.x()/dw))
yr=int(floor((selectionRect.bottom()-self.data_rect.top())*self.image.y()/dh))
#print(QRect(x,y,xr,yr))
return QRect(x,y,xr,yr)
def setDataRect(self):
'''Update data_rect'''
#Get image dimensions
dx=self.image.x()
dy=self.image.y()
if dx == 0 or dy == 0:
print("Null Image")
return
#printInfo ="setDataRect %f_%f" %(dx,dy)
#print(printInfo)
#Get image screen dimensions (may differ if zoom is set)
screen_dx=dx*self.zoom/100.0
screen_dy=dy*self.zoom/100.0
x=self.d.width()
y=self.d.height()
wx=x
wy=dy*wx/dx
if wy > y:
wy=y
wx=dx*wy/dy
if self.isSet("center"):#居中画图而不拉伸
self.data_rect=QRect(max((x-screen_dx)/2,0),max((y-screen_dy)/2,0),screen_dx,screen_dy)
else:
self.data_rect=QRect(max((x-wx)/2,0),max((y-wy)/2,0),wx,wy)
def getSelection(self):
'''return the selection rectangle from (x0,y0,x1,y1) to (x,y,width,height)'''
if not self.selection:
return None
width = self.selection.width() - self.selection.left()
height = self.selection.height() - self.selection.top()
return QRect(self.selection.left(),self.selection.top(),width,height)
def repaint(self,x,y,p,src):
'''Repaint the image using given painter and size of output window
@param x width of output window
@param y height of output window
@param p QPainter to use
@param src Which part of image to repaint (when not in fullscreen)'''
'''TypeError: QPainter.setRenderHint(QPainter.RenderHint, bool on=True): first argument of unbound method must have type 'QPainter'''
#p.setRenderHint(QtGui.QPainter.SmoothPixmapTransform,True)
p.setRenderHint(QtGui.QPainter.Antialiasing,True)
p.setPen = Qt.blue
black = QtGui.QColor(0,0,0)
if not self.image:
#No image is loaded
p.drawRect(0,0,x-1,y-1)
p.fillRect(1,1,x-2,y-2,black)
p.drawText(0,0,x,y,Qt.AlignVCenter | Qt.AlignCenter,QString(NOIMAGELOAD))
return
if self.image.x<=0 and self.image.y()<=0:
#Invalid image is loaded
p.drawRect(0,0,x-1,y-1)
p.fillRect(1,1,x-2,y-2,black)
p.drawText(0,0,x,y,Qt.AlignVCenter | Qt.AlignCenter,QString("Invalid image"))
return
#Rectangle specifying entire window
rect = QRect(0,0,x,y)
#Determine target rectangle at screen
#Update data rectangle for mouse navigation
self.setDataRect()
#Repaint stripes around image if needed
if self.data_rect.left() > src.left():
#repaint stripe on left
tmp = QRect(0,0,self.data_rect.left(),y)
p.fillRect(tmp & src,black)
if self.data_rect.right()<src.right():
#repaint on right
tmp = QRect(self.data_rect.right(),0,x-self.data_rect.right(),y)
p.fillRect(tmp & src,black)
if self.data_rect.top()>src.top():
#repaint on top
tmp = QRect(self.data_rect.left(),0,self.data_rect.width(),self.data_rect.top())
p.fillRect(tmp & src,black)
if self.data_rect.bottom()<src.bottom():
#repaint on bottom
tmp = QRect(self.data_rect.left(),self.data_rect.bottom(),self.data_rect.width(),y-self.data_rect.bottom())
p.fillRect(tmp & src,black)
#Show scaled to window
#Set target to data rectangle
target=self.data_rect
#Draw entire image scaled
source = QRect(0,0,self.image.x(),self.image.y())
self.image.draw(p,source,target)#Stop Here
def getImage(self):
''' Return image shown in the widget (or NULL if nothing is shown)
If the image is modified, update() should be called to redraw the new image'''
return self.image
def moveRubberBand(self,newGeom):
'''Move the rubberband after updating the zoom level'''
if not rb: return
self.rb.setGeometry(newGeom)
def rectCheck(self):
''' Called when selection is finished (on releasing the mouse button) and on start'''
pass
#if self.selection.isValid():
##"Snap rect to grid"
#self.setDataRect()
#self.d.moveRubberBand(self.selectionFromImageCoords(self.selection))
def cancelRect(self):
self.d.cancelRect()
self.rectCheck()
def flushImage(self):
'''Use after new image is loaded to flush/redraw various data'''
self.update()
self.cancelRect()
#emit zoomChanged(zoom);
#emit info("");
def loadImage(self,name):
'''Open image with given name in viewer'''
if self.image: del self.image
self.image = Image(name)
if not self.image:
return False
self.flushImage()
return True
def sizeHint(self):
'''sizeHint() 方法给出一个推荐的大小。这里我们重写这个方法'''
'''Return size hint for the widget'''
if self.image:
#Size of image
return QtCore.QSize(self.image.x(),self.image.y())
else:
#Some default,very Important
return QtCore.QSize(840,630)
#Load state of specified optional feature from settings (default value is false)
def isSet(self,name):
globalSettings = QtCore.QSettings("JiZhe","CTAnalysis")
return globalSettings.value("view/"+name).toBool()
#Return minimum size neede to display the widget
def minSize(self):
if self.image :
#if self.image and self.isSet("scale"):
#Size of image
x = self.image.x()
y = self.image.y()
x = x * self.zoom / 100.0
y = y * self.zoom / 100.0
return QtCore.QSize(x,y)
else:
#No minimum
return QtCore.QSize(0,0)
#Change internal widget's minimum size.Schedule this and internal widget to repaint.
def update(self):
self.d.setMinimumSize(self.minSize())
self.d.update()
#QtGui.QScrollArea.update()?
def mouseCoordEvent(self,e):
pass
def selPoint(self,point):
'''Select a point and then do region grow'''
region_grow_seed_point = self.selectPointToImageCoords(point)
self.parent.region_grow(region_grow_seed_point)
def selRect(self,r):
'''Update selection rectangle position'''
if r.width()<=0 or r.height()<=0:
self.selection=QRect()
else:
self.selection = self.selectionToImageCoords(r)
#print(self.selection)
x1=self.selection.left()
x2=self.selection.right()
y1=self.selection.top()
y2=self.selection.bottom()
w=self.selection.width()
h=self.selection.height()
class ArkMapToolInteractive(QgsMapTool):
_active = False
_dragging = False
_panningEnabled = False
_zoomingEnabled = False
_zoomRubberBand = None #QgsRubberBand()
_zoomRect = None # QRect()
_snappingEnabled = False
_snapper = None #QgsMapCanvasSnapper()
_snappingMarker = None # QgsVertexMarker()
_showSnappableVertices = False
_snappableVertices = [] # [QgsPoint()]
_snappableMarkers = [] # [QgsVertexMarker()]
def __init__(self, canvas, snappingEnabled=False, showSnappableVertices=False):
super(ArkMapToolInteractive, self).__init__(canvas)
self._snappingEnabled = snappingEnabled
self._showSnappableVertices = showSnappableVertices
def __del__(self):
if self._active:
self.deactivate()
def isActive(self):
return self._active
def activate(self):
super(ArkMapToolInteractive, self).activate()
self._active = True
self._startSnapping()
def deactivate(self):
self._active = False
if self._snappingEnabled:
self._stopSnapping()
if (self._zoomRubberBand is not None):
self.canvas().scene().removeItem(self._zoomRubberBand)
self._zoomRubberBand = None
super(ArkMapToolInteractive, self).deactivate()
def setAction(self, action):
super(ArkMapToolInteractive, self).setAction(action)
self.action().triggered.connect(self._activate)
def _activate(self):
self.canvas().setMapTool(self)
def panningEnabled(self):
return self._panningEnabled
def setPanningEnabled(self, enabled):
self._panningEnabled = enabled
def zoomingEnabled(self):
return self._zoomingEnabled
def setZoomingEnabled(self, enabled):
self._zoomingEnabled = enabled
def snappingEnabled(self):
return self._snappingEnabled
def setSnappingEnabled(self, enabled):
if (self._snappingEnabled == enabled):
return
self._snappingEnabled = enabled
if not self._active:
return
if enabled:
self._startSnapping()
else:
self._stopSnapping()
def _startSnapping(self):
self._snapper = QgsMapCanvasSnapper()
self._snapper.setMapCanvas(self.canvas())
if self._showSnappableVertices:
self._startSnappableVertices()
def _stopSnapping(self):
self._deleteSnappingMarker()
self._snapper = None
if self._showSnappableVertices:
self._stopSnappableVertices()
def showSnappableVertices(self):
return self._showSnappableVertices
def setShowSnappableVertices(self, show):
if (self._showSnappableVertices == show):
return
self._showSnappableVertices = show
if not self._active:
return
if show:
self._startSnappableVertices()
else:
self._stopSnappableVertices()
def _startSnappableVertices(self):
self.canvas().layersChanged.connect(self._layersChanged)
self.canvas().extentsChanged.connect(self._redrawSnappableMarkers)
QgsProject.instance().snapSettingsChanged.connect(self._layersChanged)
self._layersChanged()
def _stopSnappableVertices(self):
self._deleteSnappableMarkers()
self._snappableLayers = []
self.canvas().layersChanged.disconnect(self._layersChanged)
self.canvas().extentsChanged.disconnect(self._redrawSnappableMarkers)
QgsProject.instance().snapSettingsChanged.disconnect(self._layersChanged)
def canvasMoveEvent(self, e):
super(ArkMapToolInteractive, self).canvasMoveEvent(e)
if not self._active:
return
e.ignore()
if (self._panningEnabled and e.buttons() & Qt.LeftButton):
# Pan map mode
if not self._dragging:
self._dragging = True
self.setCursor(QCursor(Qt.ClosedHandCursor))
self.canvas().panAction(e)
e.accept()
elif (self._zoomingEnabled and e.buttons() & Qt.RightButton):
# Zoom map mode
if not self._dragging:
self._dragging = True
self.setCursor(QCursor(Qt.ClosedHandCursor))
self._zoomRubberBand = QgsRubberBand(self.canvas(), QGis.Polygon)
color = QColor(Qt.blue)
color.setAlpha(63)
self._zoomRubberBand.setColor(color)
self._zoomRect = QRect(0, 0, 0, 0)
self._zoomRect.setTopLeft(e.pos())
self._zoomRect.setBottomRight(e.pos())
if self._zoomRubberBand is not None:
self._zoomRubberBand.setToCanvasRectangle(self._zoomRect)
self._zoomRubberBand.show()
e.accept()
elif self._snappingEnabled:
mapPoint, snapped = self._snapCursorPoint(e.pos())
if (snapped):
self._createSnappingMarker(mapPoint)
else:
self._deleteSnappingMarker()
def canvasReleaseEvent(self, e):
super(ArkMapToolInteractive, self).canvasReleaseEvent(e)
e.ignore()
if (e.button() == Qt.LeftButton):
if self._dragging:
# Pan map mode
self.canvas().panActionEnd(e.pos())
self.setCursor(capture_point_cursor)
self._dragging = False
e.accept()
elif (e.button() == Qt.RightButton):
if self._dragging:
# Zoom mode
self._zoomRect.setBottomRight(e.pos())
if (self._zoomRect.topLeft() != self._zoomRect.bottomRight()):
coordinateTransform = self.canvas().getCoordinateTransform()
ll = coordinateTransform.toMapCoordinates(self._zoomRect.left(), self._zoomRect.bottom())
ur = coordinateTransform.toMapCoordinates(self._zoomRect.right(), self._zoomRect.top())
r = QgsRectangle()
r.setXMinimum(ll.x())
r.setYMinimum(ll.y())
r.setXMaximum(ur.x())
r.setYMaximum(ur.y())
r.normalize()
if (r.width() != 0 and r.height() != 0):
self.canvas().setExtent(r)
self.canvas().refresh()
self._dragging = False
if (self._zoomRubberBand is not None):
self.canvas().scene().removeItem(self._zoomRubberBand)
self._zoomRubberBand = None
e.accept()
def keyPressEvent(self, e):
super(ArkMapToolInteractive, self).keyPressEvent(e)
if (e.key() == Qt.Key_Escape):
self.canvas().unsetMapTool(self)
e.accept()
def _snapCursorPoint(self, cursorPoint):
res, snapResults = self._snapper.snapToBackgroundLayers(cursorPoint)
if (res != 0 or len(snapResults) < 1):
return self.toMapCoordinates(cursorPoint), False
else:
# Take a copy as QGIS will delete the result!
snappedVertex = QgsPoint(snapResults[0].snappedVertex)
return snappedVertex, True
def _createSnappingMarker(self, snapPoint):
if (self._snappingMarker is None):
self._snappingMarker = QgsVertexMarker(self.canvas())
self._snappingMarker.setIconType(QgsVertexMarker.ICON_CROSS)
self._snappingMarker.setColor(Qt.magenta)
self._snappingMarker.setPenWidth(3)
self._snappingMarker.setCenter(snapPoint)
def _deleteSnappingMarker(self):
if (self._snappingMarker is not None):
self.canvas().scene().removeItem(self._snappingMarker)
self._snappingMarker = None
def _createSnappableMarkers(self):
if (not self._showSnappableVertices or not self._snappingEnabled):
return
extent = self.canvas().extent()
for vertex in self._snappableVertices.asMultiPoint():
if (extent.contains(vertex)):
marker = QgsVertexMarker(self.canvas())
marker.setIconType(QgsVertexMarker.ICON_X)
marker.setColor(Qt.gray)
marker.setPenWidth(1)
marker.setCenter(vertex)
self._snappableMarkers.append(marker)
def _deleteSnappableMarkers(self):
for marker in self._snappableMarkers:
self.canvas().scene().removeItem(marker)
del self._snappableMarkers[:]
def _layersChanged(self):
if (not self._showSnappableVertices or not self._snappingEnabled):
return
self._buildSnappableLayers()
self._deleteSnappableMarkers()
self._createSnappableMarkers()
def _redrawSnappableMarkers(self):
if (not self._showSnappableVertices or not self._snappingEnabled):
return
self._deleteSnappableMarkers()
self._createSnappableMarkers()
def _buildSnappableLayers(self):
if (not self._showSnappableVertices or not self._snappingEnabled):
return
vertices = []
for layer in self.canvas().layers():
ok, enabled, type, units, tolerance, avoid = QgsProject.instance().snapSettingsForLayer(layer.id())
if (ok and enabled and not layer.isEditable()):
for feature in layer.getFeatures():
geometry = feature.geometry()
if geometry is None:
pass
elif geometry.type() == QGis.Point:
vertices.extend([geometry.asPoint()])
elif geometry.type() == QGis.Line:
vertices.extend(geometry.asPolyline())
elif geometry.type() == QGis.Polygon:
lines = geometry.asPolygon()
for line in lines:
vertices.extend(line)
self._snappableVertices = QgsGeometry.fromMultiPoint(vertices)
self._snappableVertices.simplify(0)
class ObstacleAreaJigSelectArea(QgsMapTool):
def __init__(self, canvas, areaType):
self.mCanvas = canvas
self.areaType = areaType
QgsMapTool.__init__(self, canvas)
self.mCursor = Qt.ArrowCursor
self.mRubberBand = None
self.mDragging = False
self.mSelectRect = QRect()
self.mRubberBandResult = None
self.mSnapper = QgsMapCanvasSnapper(canvas)
self.lineCount = 0
self.resultGeomList = []
self.geomList = []
self.area = None
self.isFinished = False
# QgsRubberBand* mRubberBand;
# def reset(self):
# self.startPoint = None
# self.endPoint = None
# self.isDrawing = False
# SelectByRect.RubberRect.reset(QGis.Polygon)
# self.layer = self.canvas.currentLayer()
def canvasPressEvent(self, e):
QgisHelper.ClearRubberBandInCanvas(define._canvas)
self.mSelectRect.setRect( 0, 0, 0, 0 )
self.mRubberBand = QgsRubberBand( self.mCanvas, QGis.Polygon )
self.startPoint, self.pointID, self.layer= self.snapPoint(e.pos())
def canvasMoveEvent(self, e):
if self.areaType == ProtectionAreaType.Secondary:
if self.lineCount == 0:
define._messageLabel.setText("Select a line or arc representing the INNER edge of the secondary area.")
elif self.lineCount == 1:
define._messageLabel.setText("Select a line representing the OUTER edge of the secondary area.")
elif self.areaType == ProtectionAreaType.Primary:
define._messageLabel.setText("")
elif self.areaType == ProtectionAreaType.PrimaryAndSecondary:
if self.lineCount == 0:
define._messageLabel.setText("Select a line or arc representing the INNER edge of the FIRST secondary area.")
elif self.lineCount == 1:
define._messageLabel.setText("Select a line representing the OUTER edge of the FIRST secondary area.")
elif self.lineCount == 2:
define._messageLabel.setText("Select a line or arc representing the INNER edge of the SECOND secondary area.")
elif self.lineCount == 3:
define._messageLabel.setText("Select a line representing the OUTER edge of the SECOND secondary area.")
else:
define._messageLabel.setText("")
if ( e.buttons() != Qt.LeftButton ):
return
if ( not self.mDragging ):
self.mDragging = True
self.mSelectRect.setTopLeft( e.pos() )
self.mSelectRect.setBottomRight( e.pos() )
QgsMapToolSelectUtils.setRubberBand( self.mCanvas, self.mSelectRect,self.mRubberBand )
def canvasReleaseEvent(self, e):
self.endPoint, self.pointID, self.layer= self.snapPoint(e.pos())
vlayer = QgsMapToolSelectUtils.getCurrentVectorLayer( self.mCanvas )
if ( vlayer == None ):
if ( self.mRubberBand != None):
self.mRubberBand.reset( QGis.Polygon )
del self.mRubberBand
self.mRubberBand = None
self.mDragging = False
return
if (not self.mDragging ):
QgsMapToolSelectUtils.expandSelectRectangle(self. mSelectRect, vlayer, e.pos() )
else:
if ( self.mSelectRect.width() == 1 ):
self.mSelectRect.setLeft( self.mSelectRect.left() + 1 )
if ( self.mSelectRect.height() == 1 ):
self.mSelectRect.setBottom( self.mSelectRect.bottom() + 1 )
if ( self.mRubberBand != None ):
QgsMapToolSelectUtils.setRubberBand( self.mCanvas, self.mSelectRect, self.mRubberBand )
selectGeom = self.mRubberBand.asGeometry()
selectedFeatures = QgsMapToolSelectUtils.setSelectFeaturesOrRubberband_Tas_1( self.mCanvas, selectGeom, e )
if len(selectedFeatures) > 0:
self.lineCount += 1
geom = selectedFeatures[0].geometry()
resultArray = QgisHelper.findArcOrLineInLineGeometry(geom, selectGeom)
# if resultArray != None:
# bulge = MathHelper.smethod_60(resultArray[0], resultArray[int(len(resultArray)/2)], resultArray[len(resultArray)-1])
# bulge1 = MathHelper.smethod_60(resultArray[len(resultArray)-1], resultArray[int(len(resultArray)/2)], resultArray[0])
# n = 0
pointArray0 = geom.asPolyline()
self.resultGeomList.append(resultArray)
self.geomList.append(pointArray0)
if self.lineCount == 2 and self.areaType != ProtectionAreaType.PrimaryAndSecondary and self.areaType != ProtectionAreaType.Complex:
self.area = self.makeArea(self.resultGeomList, self.areaType)
pointArray = self.getPointArray(self.resultGeomList).method_14_closed()
self.mRubberBandResult = None
self.mRubberBandResult = QgsRubberBand( self.mCanvas, QGis.Polygon )
self.mRubberBandResult.setFillColor(QColor(255, 255, 255, 100))
self.mRubberBandResult.setBorderColor(QColor(0, 0, 0))
for point in pointArray:
self.mRubberBandResult.addPoint(point)
self.mRubberBandResult.show()
self.emit(SIGNAL("outputResult"), self.area, self.mRubberBandResult)
self.lineCount = 0
self.resultGeomList = []
self.isFinished = True
# self.rubberBandLine.reset(QGis.Line)
elif self.lineCount == 4 and self.areaType == ProtectionAreaType.PrimaryAndSecondary:
self.area = self.makeArea(self.resultGeomList, self.areaType)
pointArray = self.getPointArray([self.resultGeomList[1], self.resultGeomList[3]]).method_14_closed()
self.mRubberBandResult = None
self.mRubberBandResult = QgsRubberBand( self.mCanvas, QGis.Polygon )
self.mRubberBandResult.setFillColor(QColor(255, 255, 255, 100))
self.mRubberBandResult.setBorderColor(QColor(0, 0, 0))
for point in pointArray:
self.mRubberBandResult.addPoint(point)
self.mRubberBandResult.show()
self.emit(SIGNAL("outputResult"), self.area, self.mRubberBandResult)
self.lineCount = 0
self.resultGeomList = []
# else:
# return
del selectGeom
self.mRubberBand.reset( QGis.Polygon )
del self.mRubberBand
self.mRubberBand = None
self.mDragging = False
def getPointArray(self, geomList):
pointArrayInner = geomList[0]
pointArray1Outer = geomList[1]
innerStartPoint = pointArrayInner[0]
innerEndPoint = pointArrayInner[1]
innerBulge = pointArrayInner[2]
outerStartPoint = pointArray1Outer[0]
outerEndPoint = pointArray1Outer[1]
outerBulge = pointArray1Outer[2]
line0 = QgsGeometry.fromPolyline([innerStartPoint, outerStartPoint])
line1 = QgsGeometry.fromPolyline([innerEndPoint, outerEndPoint])
# for i in range(1, len(pointArray0)):
if line0.intersects(line1):
tempPoint = outerStartPoint
outerStartPoint = outerEndPoint
outerEndPoint = tempPoint
outerBulge = -outerBulge
polylineArea = PolylineArea()
polylineArea.Add(PolylineAreaPoint(innerStartPoint, innerBulge))
polylineArea.Add(PolylineAreaPoint(innerEndPoint))
polylineArea.Add(PolylineAreaPoint(outerEndPoint, -outerBulge))
polylineArea.Add(PolylineAreaPoint(outerStartPoint))
return polylineArea
def makeArea(self, geomList, areaType):
if areaType == ProtectionAreaType.Primary or areaType == ProtectionAreaType.Secondary:
return self.makePrimaryAreaOrSecondaryArea(geomList, areaType)
elif areaType == ProtectionAreaType.PrimaryAndSecondary:
pointArray0 = geomList[0]
pointArray1 = geomList[1]
pointArray2 = geomList[2]
pointArray3 = geomList[3]
primaryArea = self.makePrimaryAreaOrSecondaryArea([pointArray0, pointArray2], ProtectionAreaType.Primary)
secondaryArea1 = self.makePrimaryAreaOrSecondaryArea([pointArray0, pointArray1], ProtectionAreaType.Secondary)
secondaryArea2 = self.makePrimaryAreaOrSecondaryArea([pointArray2, pointArray3], ProtectionAreaType.Secondary)
return PrimarySecondaryObstacleArea(primaryArea, secondaryArea1, secondaryArea2)
# if len(geomList[0]) == 2 and len(geomList[1]) == 2 and len(geomList[2]) == 2 and len(geomList[3]) == 2:
# for i in range(1, len(geomList)):
# pointArray0 = geomList[0]
# pointArray1 = geomList[i]
# line0 = QgsGeometry.fromPolyline([pointArray0[0], pointArray1[0]])
# line1 = QgsGeometry.fromPolyline([pointArray0[len(pointArray0) - 1], pointArray1[len(pointArray1) - 1]])
# if line0.intersects(line1):
# pointArray1.reverse()
# pointArray0 = geomList[0]
# pointArray1 = geomList[1]
# pointArray2 = geomList[2]
# pointArray3 = geomList[3]
# area = PrimarySecondaryObstacleArea()
# area.set_areas(pointArray0, pointArray1, pointArray2, pointArray3)
# return area
# return None
return None
def makePrimaryAreaOrSecondaryArea(self, geomList, areaType):
pointArrayInner = geomList[0]
pointArray1Outer = geomList[1]
innerStartPoint = pointArrayInner[0]
innerEndPoint = pointArrayInner[1]
innerBulge = pointArrayInner[2]
outerStartPoint = pointArray1Outer[0]
outerEndPoint = pointArray1Outer[1]
outerBulge = pointArray1Outer[2]
line0 = QgsGeometry.fromPolyline([innerStartPoint, outerStartPoint])
line1 = QgsGeometry.fromPolyline([innerEndPoint, outerEndPoint])
# for i in range(1, len(pointArray0)):
if line0.intersects(line1):
tempPoint = Point3D(outerStartPoint.get_X(), outerStartPoint.get_Y())
outerStartPoint = Point3D(outerEndPoint.get_X(), outerEndPoint.get_Y())
outerEndPoint = Point3D(tempPoint.get_X(), tempPoint.get_Y())
outerBulge = -outerBulge
if areaType == ProtectionAreaType.Primary:
polylineArea = PolylineArea()
polylineArea.Add(PolylineAreaPoint(innerStartPoint, innerBulge))
polylineArea.Add(PolylineAreaPoint(innerEndPoint))
polylineArea.Add(PolylineAreaPoint(outerEndPoint, -outerBulge))
polylineArea.Add(PolylineAreaPoint(outerStartPoint))
return PrimaryObstacleArea(polylineArea)
elif areaType == ProtectionAreaType.Secondary:
if innerBulge == 0 and outerBulge == 0:
return SecondaryObstacleArea(innerStartPoint, innerEndPoint, outerStartPoint, outerEndPoint, MathHelper.getBearing(innerStartPoint, innerEndPoint))
elif innerBulge != 0 and outerBulge != 0:
if round(innerBulge, 1) != round(outerBulge, 1):
return None
innerCenterPoint = MathHelper.smethod_71(innerStartPoint, innerEndPoint, innerBulge)
outerCenterPoint = MathHelper.smethod_71(outerStartPoint, outerEndPoint, outerBulge)
innerRadius = MathHelper.calcDistance(innerCenterPoint, innerStartPoint);
outerRadius = MathHelper.calcDistance(outerCenterPoint, outerStartPoint);
bearing = (MathHelper.getBearing(innerCenterPoint, innerStartPoint) + MathHelper.getBearing(innerCenterPoint, innerEndPoint)) / 2
innerMiddlePoint = MathHelper.distanceBearingPoint(innerCenterPoint, bearing, innerRadius)
if round(MathHelper.smethod_60(innerStartPoint, innerMiddlePoint, innerEndPoint), 4) != round(outerBulge, 4):
bearing += 3.14159265358979
innerMiddlePoint = MathHelper.distanceBearingPoint(innerCenterPoint, bearing, innerRadius)
bearing = (MathHelper.getBearing(outerCenterPoint, outerStartPoint) + MathHelper.getBearing(outerCenterPoint, outerEndPoint)) / 2
outerMiddlePoint = MathHelper.distanceBearingPoint(outerCenterPoint, bearing, outerRadius)
if round(MathHelper.smethod_60(outerStartPoint, outerMiddlePoint, outerEndPoint), 4) != round(outerBulge, 4):
bearing += 3.14159265358979
outerMiddlePoint = MathHelper.distanceBearingPoint(outerCenterPoint, bearing, outerRadius)
return SecondaryObstacleArea(innerStartPoint, innerMiddlePoint, innerEndPoint, outerStartPoint, None, outerMiddlePoint, outerEndPoint, innerBulge, innerBulge)
return None
def snapPoint(self, p, bNone = False):
if define._snapping == False:
return (define._canvas.getCoordinateTransform().toMapCoordinates( p ), None, None)
snappingResults = self.mSnapper.snapToBackgroundLayers( p )
if ( snappingResults[0] != 0 or len(snappingResults[1]) < 1 ):
if bNone:
return (None, None, None)
else:
return (define._canvas.getCoordinateTransform().toMapCoordinates( p ), None, None)
else:
return (snappingResults[1][0].snappedVertex, snappingResults[1][0].snappedAtGeometry, snappingResults[1][0].layer)
class BrushingModel(QObject):
brushSizeChanged = pyqtSignal(int)
brushColorChanged = pyqtSignal(QColor)
brushStrokeAvailable = pyqtSignal(QPointF, object)
drawnNumberChanged = pyqtSignal(int)
minBrushSize = 1
maxBrushSize = 61
defaultBrushSize = 3
defaultDrawnNumber = 1
defaultColor = Qt.white
erasingColor = Qt.black
erasingNumber = 100
def __init__(self, parent=None):
QObject.__init__(self, parent=parent)
self.sliceRect = None
self.bb = QRect() #bounding box enclosing the drawing
self.brushSize = self.defaultBrushSize
self.drawColor = self.defaultColor
self._temp_color = None
self._temp_number = None
self.drawnNumber = self.defaultDrawnNumber
self.pos = None
self.erasing = False
self._hasMoved = False
self.drawOnto = None
#an empty scene, where we add all drawn line segments
#a QGraphicsLineItem, and which we can use to then
#render to an image
self.scene = QGraphicsScene()
def toggleErase(self):
self.erasing = not(self.erasing)
if self.erasing:
self.setErasing()
else:
self.disableErasing()
def setErasing(self):
self.erasing = True
self._temp_color = self.drawColor
self._temp_number = self.drawnNumber
self.setBrushColor(self.erasingColor)
self.brushColorChanged.emit(self.erasingColor)
self.setDrawnNumber(self.erasingNumber)
def disableErasing(self):
self.erasing = False
self.setBrushColor(self._temp_color)
self.brushColorChanged.emit(self.drawColor)
self.setDrawnNumber(self._temp_number)
def setBrushSize(self, size):
self.brushSize = size
self.brushSizeChanged.emit(self.brushSize)
def setDrawnNumber(self, num):
self.drawnNumber = num
self.drawnNumberChanged.emit(num)
def getBrushSize(self):
return self.brushSize
def brushSmaller(self):
b = self.brushSize
if b > self.minBrushSize:
self.setBrushSize(b-1)
def brushBigger(self):
b = self.brushSize
if self.brushSize < self.maxBrushSize:
self.setBrushSize(b+1)
def setBrushColor(self, color):
self.drawColor = color
self.brushColorChanged.emit(self.drawColor)
def beginDrawing(self, pos, sliceRect):
'''
pos -- QPointF-like
'''
self.sliceRect = sliceRect
self.scene.clear()
self.bb = QRect()
self.pos = QPointF(pos.x(), pos.y())
self._hasMoved = False
def endDrawing(self, pos):
has_moved = self._hasMoved # _hasMoved will change after calling moveTo
if has_moved:
self.moveTo(pos)
else:
assert(self.pos == pos)
self.moveTo(QPointF(pos.x()+0.0001, pos.y()+0.0001)) # move a little
tempi = QImage(QSize(self.bb.width(), self.bb.height()), QImage.Format_ARGB32_Premultiplied) #TODO: format
tempi.fill(0)
painter = QPainter(tempi)
self.scene.render(painter, target=QRectF(), source=QRectF(QPointF(self.bb.x(), self.bb.y()), QSizeF(self.bb.width(), self.bb.height())))
painter.end()
ndarr = qimage2ndarray.rgb_view(tempi)[:,:,0]
labels = numpy.where(ndarr>0,numpy.uint8(self.drawnNumber),numpy.uint8(0))
labels = labels.swapaxes(0,1)
assert labels.shape[0] == self.bb.width()
assert labels.shape[1] == self.bb.height()
##
## ensure that at least one pixel is label when the brush size is 1
##
## this happens when the user just clicked without moving
## in that case the lineitem will be so tiny, that it won't be rendered
## into a single pixel by the code above
if not has_moved and self.brushSize <= 1 and numpy.count_nonzero(labels) == 0:
labels[labels.shape[0]//2, labels.shape[1]//2] = self.drawnNumber
self.brushStrokeAvailable.emit(QPointF(self.bb.x(), self.bb.y()), labels)
def dumpDraw(self, pos):
res = self.endDrawing(pos)
self.beginDrawing(pos, self.sliceRect)
return res
def moveTo(self, pos):
#data coordinates
oldX, oldY = self.pos.x(), self.pos.y()
x,y = pos.x(), pos.y()
line = QGraphicsLineItem(oldX, oldY, x, y)
line.setPen(QPen( QBrush(Qt.white), self.brushSize, Qt.SolidLine, Qt.RoundCap, Qt.RoundJoin))
self.scene.addItem(line)
self._hasMoved = True
#update bounding Box
if not self.bb.isValid():
self.bb = QRect(QPoint(oldX,oldY), QSize(1,1))
#grow bounding box
self.bb.setLeft( min(self.bb.left(), max(0, x-self.brushSize/2-1) ) )
self.bb.setRight( max(self.bb.right(), min(self.sliceRect[0]-1, x+self.brushSize/2+1) ) )
self.bb.setTop( min(self.bb.top(), max(0, y-self.brushSize/2-1) ) )
self.bb.setBottom(max(self.bb.bottom(), min(self.sliceRect[1]-1, y+self.brushSize/2+1) ) )
#update/move position
self.pos = pos
class PlottingThread(QThread):
def __init__(self, parent):
QThread.__init__(self)
self.result = None
self.parent = parent
self._stopped = False
self.mutex = QMutex()
self.filePrefix = None
self.fileFormat = None
self.wallColoring = None
self.cellColoring = None
self.pointColoring = None
self.extraDrawing = []
self.pointSize = None
self.pointLineColor = None
self.pointLineThickness = None
self.ellipsisDraw = None
self.overSampling = None
self.wallThickness = None
self.bgColor = None
self.loading = False
self._crop = QRect(0,0,1,1)
self._pix = None
self._end_image_plot = False
self._loading_arguments = {}
self.retryObject = None
def end_step(self):
return len(self.result)+1
def stop(self, value = True):
self.mutex.lock()
self._stopped = value
self.mutex.unlock()
def stopped(self):
self.mutex.lock()
val = self._stopped
self.mutex.unlock()
return val
def nextImage(self):
QCoreApplication.postEvent(self.parent, NextImageEvent())
def abort(self, reason, **others):
e = AbortPlottingEvent(reason)
if others:
e.others = others
QCoreApplication.postEvent(self.parent, e)
def finished(self):
if self.loading:
QCoreApplication.postEvent(self.parent, FinishLoadingEvent())
self.loading = False
else:
QCoreApplication.postEvent(self.parent, FinishPlottingEvent())
def image_ready(self):
QCoreApplication.postEvent(self.parent, ImageReadyPlottingEvent())
def update_nb_images(self, nb):
QCoreApplication.postEvent(self.parent, UpdateNbImageEvent(nb))
@property
def crop_left(self):
return self._crop.left()
@crop_left.setter
def crop_left(self, value):
self._crop.moveLeft(int(value))
@property
def crop_top(self):
return self._crop.top()
@crop_top.setter
def crop_top(self, value):
self._crop.moveTop(int(value))
@property
def crop_width(self):
return self._crop.width()
@crop_width.setter
def crop_width(self, value):
self._crop.setWidth(int(value))
@property
def crop_height(self):
return self._crop.height()
@crop_height.setter
def crop_height(self, value):
self._crop.setHeight(int(value))
def reset_crop(self):
self._crop = QRect(QPoint(0,0), self.img_size)
@property
def crop(self):
return QRect(self._crop)
@crop.deleter
def crop(self):
self.reset_crop()
@property
def end_image_plot(self):
'''
If true, plot the growth data on the end image rather than the start image of the growth calculation.
'''
return self._end_image_plot
@end_image_plot.setter
def end_image_plot(self, value):
self._end_image_plot = bool(value)
@property
def pix(self):
'''Thread-safe image storage.'''
self.mutex.lock()
pix = self._pix
self.mutex.unlock()
return pix
@pix.setter
def pix(self, value):
self.mutex.lock()
self._pix = value
self.mutex.unlock()
def render_valid(self):
if self.result is None:
log_debug("result is None")
return False
if self.parent is None:
log_debug("parent is None")
return False
if self.ellipsisDraw is None:
log_debug("ellipsisDraw is None")
return False
if self.cellColoring is None:
log_debug("cellColoring is None")
return False
if self.wallColoring is None:
log_debug("wallColoring is None")
return False
if self.pointColoring is None:
log_debug("pointColoring is None")
return False
if self.pointSize is None:
log_debug("pointSize is None")
return False
if self.pointLineThickness is None:
log_debug("pointSize is None")
return False
if self.pointLineColor is None:
log_debug("pointSize is None")
return False
if self.wallThickness is None:
log_debug("wallThickness is None")
return False
if self.overSampling is None:
log_debug("overSampling is None")
return False
if self.bgColor is None:
log_debug("bgColor is None")
return False
return True
def valid(self):
if self.filePrefix is None:
log_debug("filePrefix is None")
return False
if not self.filePrefix:
log_debug("filePrefix is Empty")
return False
if self.fileFormat is None:
log_debug("fileFormat is None")
return False
return self.render_valid()
def drawImage(self, imageid):
cache = image_cache.cache
cellColoring = self.cellColoring
wallColoring = self.wallColoring
pointColoring = self.pointColoring
ellipsisDraw = self.ellipsisDraw
overSampling = self.overSampling
extraDrawing = self.extraDrawing
bgColor = self.bgColor.rgb()
result = self.result
if self.result_type == "Data":
data = result
img_name = result.images_name[imageid]
else:
data = result.data
img_name = result.images[imageid]
#scale = data.images_scale[img_name]
min_scale = data.minScale()
img = cache.image(data.image_path(img_name))
img_data = data[img_name]
size = self._crop.size()
pix = QImage(size*overSampling, QImage.Format_ARGB32)
pix.fill(bgColor)
painter = QPainter()
if not painter.begin(pix):
self.abort("Cannot create painter on QImage")
return None, None, None
painter.setRenderHints(QPainter.SmoothPixmapTransform, True)
painter.setRenderHints(QPainter.Antialiasing, True)
if overSampling > 1:
painter.scale(overSampling, overSampling)
painter.translate(-self._crop.topLeft())
painter.save()
painter.translate(self.translate)
log_debug("Translating: %gx%g" % (self.translate.x(), self.translate.y()) )
painter.scale(1/min_scale, 1/min_scale)
painter.save()
matrix = img_data.matrix()
painter.setWorldTransform(matrix, True)
painter.drawImage(QPoint(0,0), img)
painter.restore()
#pt_matrix = QTransform()
#pt_matrix.scale(1/min_scale, 1/min_scale)
#painter.setTransform(pt_matrix, True)
cellColoring.startImage(painter, imageid)
wallColoring.startImage(painter, imageid)
for ed in extraDrawing:
ed.startImage(painter, imageid)
if self.result_type == "Growth":
cells = result.cells[imageid]
walls = result.walls[imageid]
else:
cells = img_data.cells
walls = set()
for cid in img_data.cells:
pts = [ pt for pt in data.cells[cid] if pt in img_data ]
if len(pts) > 1:
for i in range(len(pts)):
walls.add(data.wallId(pts[i-1], pts[i]))
# Now, draw the cells and the ellipsis
for cid in cells:
painter.setPen(Qt.NoPen)
color = cellColoring(imageid, cid)
painter.setBrush(color)
pts = data.cellAtTime(cid, img_data.index)
if pts:
pts.append(pts[0])
ppts = []
for p1,p2 in zip(pts[:-1], pts[1:]):
ppts.append(img_data[p1])
ppts.extend(img_data.walls[p1,p2])
ppts.append(ppts[0])
poly = QPolygonF(ppts)
painter.drawPolygon(poly)
# And draw the walls
wallThickness = self.wallThickness*min_scale
for wid in walls:
color = wallColoring(imageid, wid)
if color.alpha() > 0:
pen = QPen(color)
pen.setWidthF(wallThickness)
painter.setPen(pen)
pts = [img_data[wid[0]]] + img_data.walls[wid[0], wid[1]] + [img_data[wid[1]]]
#painter.drawLine(img_data[wid[0]], img_data[wid[1]])
painter.drawPolyline(*pts)
# Then, draw the points
pointSize = self.pointSize*min_scale
pointLineColor = self.pointLineColor
pointLineThickness = self.pointLineThickness*min_scale
log_debug("pointSize = %g" % pointSize)
for pid in img_data:
color = pointColoring(imageid, pid)
if color.alpha() > 0:
pen = QPen(pointLineColor)
pen.setWidthF(pointLineThickness)
brush = QBrush(color)
painter.setPen(pen)
painter.setBrush(brush)
pos = img_data[pid]
rect = QRectF(pos.x()-pointSize, pos.y()-pointSize, 2*pointSize, 2*pointSize)
painter.drawEllipse(rect)
if ellipsisDraw.plot:
for cid in cells:
pts = data.cellAtTime(cid, img_data.index)
if pts:
pts.append(pts[0])
ppts = []
for p1,p2 in zip(pts[:-1], pts[1:]):
ppts.append(img_data[p1])
ppts.extend(img_data.walls[p1,p2])
ppts.append(ppts[0])
#poly = QPolygonF(ppts)
#painter.drawPolygon(poly)
ellipsisDraw(painter, imageid, cid, ppts, min_scale)
# At last, draw the extra data
for ed in extraDrawing:
ed(painter, imageid)
tr = painter.worldTransform()
painter.restore()
pic_w = wallColoring.finalizeImage(painter, imageid, tr, self.crop)
pic_c = cellColoring.finalizeImage(painter, imageid, tr, self.crop)
for ed in extraDrawing:
ed.finalizeImage(painter, imageid, tr, self.crop)
painter.end()
return pix, pic_w, pic_c
def start(self):
if self.isRunning():
assert not self.rendering_all, "Cannot run twice the rendering of all images with the same object."
return
if parameters.instance.use_thread:
log_debug("Starting rendering thread.")
QThread.start(self)
return False
else:
self.run()
return True
def render_all(self):
self.rendering_all = True
return self.start()
def render_single(self, img_id, retry=False):
if retry:
while self.isRunning():
self.wait(10000)
elif self.isRunning():
return
self.rendering_all = False
self.current_image = img_id
return self.start()
def load(self, filename):
self.loading = True
self.result = filename
return self.start()
def run(self):
if self.loading:
self.run_loader()
elif self.rendering_all:
self.run_full()
else:
self.run_single()
def run_single(self):
img = self.current_image
self.cellColoring.init()
self.wallColoring.init()
self.pointColoring.init()
log_debug("Rendering image %d" % img)
self.pix, self.pic_w, self.pic_c = self.drawImage(img)
if self.pic_w is not None:
log_debug("Has wall image")
if self.pic_c is not None:
log_debug("Has cell image")
if self.pix is not None:
log_debug("Pix correctly rendered")
log_debug("Rendered image %d = %s" % (img, self.pix))
self.image_ready()
def reload(self):
if self.retryObject is None:
return
self._loading_arguments.update(self.retryObject.method_args)
self.load(self.retryObject.filename)
def run_loader(self):
filename = self.result
try:
self.retryObject = None
# First, prepare the data by getting the images and computing how big they
# should be
f = open(filename)
first_line = f.readline()
f.close()
if first_line.startswith("TRKR_VERSION"):
result = Result(None)
result.load(self.result, **self._loading_arguments)
result_type = "Growth"
else:
result = TrackingData()
result.load(self.result, **self._loading_arguments)
result_type = "Data"
self.result = result
self.result_type = result_type
if result_type == "Data":
data = result
images = data.images_name
if data.cells:
self.has_cells = True
self.has_walls = True
else:
self.has_cells = False
self.has_walls = False
self.has_points = bool(data.cell_points)
else:
data = result.data
images = result.images
self.has_cells = False
self.has_walls = False
self.has_points = False
self.images = images
cache = image_cache.cache
self.update_nb_images(len(result))
bbox = QRectF()
ms = data.minScale()
for i in range(len(result)):
img_name = images[i]
img_data = data[img_name]
img = cache.image(data.image_path(img_name))
matrix = QTransform()
matrix = img_data.matrix()
sc = QTransform()
sc.scale(1.0/ms, 1.0/ms)
matrix *= sc
r = QRectF(img.rect())
rbox = matrix.map(QPolygonF(r)).boundingRect()
bbox |= rbox
log_debug("Image '%s':\n\tSize = %gx%g\n\tTransformed = %gx%g %+g %+g\n\tGlobal bbox = %gx%g %+g %+g\n" %
(img_name, r.width(), r.height(), rbox.width(), rbox.height(), rbox.left(), rbox.top(),
bbox.width(), bbox.height(), bbox.left(), bbox.top()))
log_debug("Matrix:\n%g\t%g\t%g\n%g\t%g\t%g\n" %
(matrix.m11(), matrix.m12(), matrix.dx(), matrix.m21(), matrix.m22(), matrix.dy()))
if result_type == "Growth":
if result.cells[i]:
self.has_cells = True
if result.walls[i]:
self.has_walls = True
self.has_points = bool(result.data.cell_points)
self.nextImage()
translate = bbox.topLeft()
translate *= -1
self.translate = translate
size = bbox.size().toSize()
self.img_size = size
self._crop = QRect(QPoint(0,0), size)
self.finished()
self._loading_arguments = {} # All done, we don't need that anymore
except RetryTrackingDataException as ex:
ex.filename = filename
self.retryObject = ex
self.finished()
return
except Exception as ex:
_, _, exceptionTraceback = sys.exc_info()
self.abort(ex, traceback=exceptionTraceback)
raise
def run_full(self):
if not self.valid():
self.abort("Object was not correctly initialized")
return
self.stop(False)
painter = None
try:
result = self.result
self.update_nb_images(len(result))
# if self.result_type == "Data":
# data = result
# images = result.images_name
# else:
# data = result.data
# images = result.images
# cache = image_cache.cache
cellColoring = self.cellColoring
wallColoring = self.wallColoring
pointColoring = self.pointColoring
file_format = self.fileFormat
file_pattern = "%s%%0%dd.%s" % (self.filePrefix, len(str(len(result))), file_format)
wall_file_pattern = "%s%%0%dd_wall.%s" % (self.filePrefix, len(str(len(result))), file_format)
cell_file_pattern = "%s%%0%dd_cell.%s" % (self.filePrefix, len(str(len(result))), file_format)
cellColoring.init()
wallColoring.init()
pointColoring.init()
self.nextImage()
for i in range(len(result)):
if self.stopped():
self.abort("User interruption")
return
pix, pic_w, pic_c = self.drawImage(i)
pix.save(file_pattern % (i+1), file_format)
if pic_w is not None:
self.saveExtra(pic_w, wall_file_pattern % (i+1), file_format)
if pic_c is not None:
self.saveExtra(pic_c, cell_file_pattern % (i+1), file_format)
self.nextImage()
self.finished()
except Exception as ex:
if painter is not None:
painter.end()
_, _, exceptionTraceback = sys.exc_info()
self.abort(ex, traceback=exceptionTraceback)
raise
def saveExtra(self, picture, file_name, file_format):
rect = picture.boundingRect()
pix = QImage(rect.size(), QImage.Format_ARGB32)
pix.fill(QColor(0, 0, 0, 0).rgba())
paint = QPainter()
paint.begin(pix)
paint.drawPicture(rect.topLeft()*-1, picture)
paint.end()
pix.save(file_name, file_format)
class ConnecMapTool(ParentMapTool):
""" Button 20: User select connections from layer 'connec'
Execute SQL function: 'gw_fct_connect_to_network' """
def __init__(self, iface, settings, action, index_action):
""" Class constructor """
# Call ParentMapTool constructor
super(ConnecMapTool, self).__init__(iface, settings, action,
index_action)
self.dragging = False
# Select rectangle
self.select_rect = QRect()
""" QgsMapTools inherited event functions """
def canvasMoveEvent(self, event):
""" With left click the digitizing is finished """
if event.buttons() == Qt.LeftButton:
if not self.dragging:
self.dragging = True
self.select_rect.setTopLeft(event.pos())
self.select_rect.setBottomRight(event.pos())
self.set_rubber_band()
else:
# Hide marker
self.vertex_marker.hide()
# Get the click
x = event.pos().x()
y = event.pos().y()
event_point = QPoint(x, y)
# Snapping
(retval, result) = self.snapper.snapToBackgroundLayers(
event_point) # @UnusedVariable
# That's the snapped features
if result:
for snapped_feat in result:
# Check if it belongs to 'connec' or 'gully' group
exist_connec = self.snapper_manager.check_connec_group(
snapped_feat.layer)
exist_gully = self.snapper_manager.check_gully_group(
snapped_feat.layer)
if exist_connec or exist_gully:
# Get the point and add marker
point = QgsPoint(result[0].snappedVertex)
self.vertex_marker.setCenter(point)
self.vertex_marker.show()
break
def canvasPressEvent(self, event): #@UnusedVariable
self.select_rect.setRect(0, 0, 0, 0)
self.rubber_band.reset(QGis.Polygon)
def canvasReleaseEvent(self, event):
""" With left click the digitizing is finished """
if event.button() == Qt.LeftButton:
# Get the click
x = event.pos().x()
y = event.pos().y()
event_point = QPoint(x, y)
# Simple selection
if not self.dragging:
# Snap to connec or gully
(retval, result) = self.snapper.snapToBackgroundLayers(
event_point) # @UnusedVariable
# That's the snapped features
if result:
# Check if it belongs to 'connec' or 'gully' group
exist_connec = self.snapper_manager.check_connec_group(
result[0].layer)
exist_gully = self.snapper_manager.check_gully_group(
result[0].layer)
if exist_connec or exist_gully:
key = QApplication.keyboardModifiers()
# If Ctrl+Shift is clicked: deselect snapped feature
if key == (Qt.ControlModifier | Qt.ShiftModifier):
result[0].layer.deselect(
[result[0].snappedAtGeometry])
else:
# If Ctrl is not clicked: remove previous selection
if key != Qt.ControlModifier:
result[0].layer.removeSelection()
result[0].layer.select(
[result[0].snappedAtGeometry])
# Hide marker
self.vertex_marker.hide()
# Multiple selection
else:
# Set valid values for rectangle's width and height
if self.select_rect.width() == 1:
self.select_rect.setLeft(self.select_rect.left() + 1)
if self.select_rect.height() == 1:
self.select_rect.setBottom(self.select_rect.bottom() + 1)
self.set_rubber_band()
selected_geom = self.rubber_band.asGeometry() #@UnusedVariable
self.select_multiple_features(self.selected_rectangle)
self.dragging = False
# Refresh map canvas
self.rubber_band.reset()
elif event.button() == Qt.RightButton:
# Check selected records
number_features = 0
for layer in self.layer_connec_man:
number_features += layer.selectedFeatureCount()
if number_features > 0:
message = ("Number of features selected in the 'connec' group")
title = "Interpolate value - Do you want to update values"
answer = self.controller.ask_question(
message, title, parameter=str(number_features))
if answer:
# Create link
self.link_selected_features('connec',
self.layer_connec_man)
if self.layer_gully_man:
# Check selected records
number_features = 0
for layer in self.layer_gully_man:
number_features += layer.selectedFeatureCount()
if number_features > 0:
message = (
"Number of features selected in the 'gully' group")
title = "Interpolate value - Do you want to update values"
answer = self.controller.ask_question(
message, title, parameter=str(number_features))
if answer:
# Create link
self.link_selected_features('gully',
self.layer_gully_man)
def activate(self):
# Check button
self.action().setChecked(True)
# Rubber band
self.rubber_band.reset()
# Store user snapping configuration
self.snapper_manager.store_snapping_options()
# Clear snapping
self.snapper_manager.clear_snapping()
# Set snapping to 'connec' and 'gully'
self.snapper_manager.snap_to_connec_gully()
# Change cursor
cursor = self.get_cursor_multiple_selection()
self.canvas.setCursor(cursor)
# Show help message when action is activated
if self.show_help:
message = "Right click to use current selection, select connec points by clicking or dragging (selection box)"
self.controller.show_info(message)
def deactivate(self):
# Call parent method
ParentMapTool.deactivate(self)
def link_selected_features(self, geom_type, layers):
""" Link selected @geom_type to the pipe """
# Check features selected
number_features = 0
for layer in layers:
number_features += layer.selectedFeatureCount()
if number_features == 0:
message = "You have to select at least one feature!"
self.controller.show_warning(message)
return
# Get selected features from layers of selected @geom_type
aux = "{"
field_id = geom_type + "_id"
# Iterate over all layers
for layer in layers:
if layer.selectedFeatureCount() > 0:
# Get selected features of the layer
features = layer.selectedFeatures()
for feature in features:
feature_id = feature.attribute(field_id)
aux += str(feature_id) + ", "
list_feature_id = aux[:-2] + "}"
# Execute function
function_name = "gw_fct_connect_to_network"
sql = ("SELECT " + self.schema_name + "." + function_name + ""
"('" + list_feature_id + "', '" + geom_type.upper() +
"');")
self.controller.execute_sql(sql, log_sql=True)
layer.removeSelection()
# Refresh map canvas
self.rubber_band.reset()
self.refresh_map_canvas()
self.iface.actionPan().trigger()
def set_rubber_band(self):
# Coordinates transform
transform = self.canvas.getCoordinateTransform()
# Coordinates
ll = transform.toMapCoordinates(self.select_rect.left(),
self.select_rect.bottom())
lr = transform.toMapCoordinates(self.select_rect.right(),
self.select_rect.bottom())
ul = transform.toMapCoordinates(self.select_rect.left(),
self.select_rect.top())
ur = transform.toMapCoordinates(self.select_rect.right(),
self.select_rect.top())
# Rubber band
self.rubber_band.reset(QGis.Polygon)
self.rubber_band.addPoint(ll, False)
self.rubber_band.addPoint(lr, False)
self.rubber_band.addPoint(ur, False)
self.rubber_band.addPoint(ul, False)
self.rubber_band.addPoint(ll, True)
self.selected_rectangle = QgsRectangle(ll, ur)
def select_multiple_features(self, selectGeometry):
if self.layer_connec_man is None and self.layer_gully_man is None:
return
key = QApplication.keyboardModifiers()
# If Ctrl+Shift clicked: remove features from selection
if key == (Qt.ControlModifier | Qt.ShiftModifier):
behaviour = QgsVectorLayer.RemoveFromSelection
# If Ctrl clicked: add features to selection
elif key == Qt.ControlModifier:
behaviour = QgsVectorLayer.AddToSelection
# If Ctrl not clicked: add features to selection
else:
behaviour = QgsVectorLayer.AddToSelection
# Selection for all connec and gully layers
for layer in self.layer_connec_man:
layer.selectByRect(selectGeometry, behaviour)
if self.layer_gully_man:
for layer in self.layer_gully_man:
layer.selectByRect(selectGeometry, behaviour)
class PoseWidget(QLabel):
default_colors = (Qt.red, Qt.blue, Qt.yellow, Qt.green)
def __init__(self,
ressource_directory,
dim: QSize,
player_size: QSize,
player_ratio_spacing: float = 0.33,
alpha_color="#FF00FF",
vertical_random_ratio=0.1,
key_press_event_callback=None,
dev_mode=False):
"""
:param ressource_directory: String, chemin du dossier ressource.
:param dim: QSize, taille alloué au widget.
:param dev_mode: boolean [facultatif (defaut False)], active le mode developpement.
"""
# Setup widget
super().__init__()
if dev_mode:
self.setStyleSheet("background-color:blue")
else:
self.setStyleSheet("background-color:" + alpha_color)
self.setMaximumSize(dim)
self.setMinimumSize(dim)
# Setup poses
self.current_silhouette = None
self.colors = list(self.default_colors)
self.player_rect = QRect((dim.width() - player_size.width()) * 0.5,
(dim.height() - player_size.height()) * 0.5,
player_size.width(), player_size.height())
self.player_ratio_spacing = player_ratio_spacing
self.vertical_random_ratio = vertical_random_ratio
self.player_pixel_spacing = 0
self.pose_dict = {}
self._load_all_poses(ressource_directory,
load_all_images=True,
verbose=False,
filter_valid=True,
dev_mode=dev_mode)
# Init constant for pose drawing
exemple_sil_pixmap = self.pose_dict[list(
self.pose_dict.keys())[1]].get_silhouette().pixmap
vertical_scale = self.player_rect.height() / exemple_sil_pixmap.height(
)
self.pose_hauteur = round(exemple_sil_pixmap.height() * vertical_scale)
self.pose_largeur = round(exemple_sil_pixmap.width() * vertical_scale)
self.player_pixel_spacing = self.player_ratio_spacing * self.pose_largeur
# Event callback
self.key_press_event_callback = key_press_event_callback
def _load_all_poses(self,
ressource_directory,
load_all_images=False,
verbose=False,
filter_valid=True,
dev_mode=False):
"""Essai de charger toutes les poses ayant un fichier de conf dans le sous-dossier 'pose_configs' du dossier
ressource fourni
PARAMS: - ressource_directory : path-like = le chemin du dossier de ressource du jeu
-[load_all_images]: boolean = [False] si True les images (.png/.jpg) présentent dans le dossiers
'silhouette_storage' mais ne comportant pas de ficher de conf associées seront aussi chargées et une
configuration automatique leur sera créé.
-[verbose]: boolean = [False] si True, la liste des fonds trouvés sera affichée ainsi que leur validité
(contient tous les fonds valides où non)
-[filter_valid]: boolean = [True] si True seul les fonds correctment chargés seront revoyés.
Postcondition : le dictionnaire pose_dict des fonds est chargé"""
if dev_mode:
print(" Loading Poses...", end="")
self.pose_dict = {}
# lister tous les nom de poses (c'est a dire tous les fichier d'extension '.conf' du dossier
# background_storage en coupant l'extension en question)
name_list_c = [
path[:-5]
for path in os.listdir(ressource_directory + "pose_configs")
if path.find(".conf") > -1
]
# Tenter de charger tous les poses listées
for pose_name in name_list_c:
self.pose_dict[pose_name] = Pose(self,
ressource_directory,
pose_name,
force_conf_generation=False)
if verbose:
print("Loading pose", pose_name, "from config; succès :",
self.pose_dict[pose_name].valide)
# ajouter les nom des fichers .png si l'option est activée, en évitant les doublons
if load_all_images:
name_list_i = [
path[:-4] for path in os.listdir(ressource_directory +
"silhouette_storage")
if path.find(".png") > -1 and not (path[:-4] in name_list_c)
]
# Tenter de charger tous les fond listées en générant toujours les config
for pose_name in name_list_i:
self.pose_dict[pose_name] = Pose(self,
ressource_directory,
pose_name,
except_if_inexistant=False,
force_conf_generation=True)
if verbose:
print("Loading background", pose_name,
"from image; succès :",
self.pose_dict[pose_name].valide)
# ajout de l'image vide
self.pose_dict[""] = Pose(self,
ressource_directory,
None,
except_if_inexistant=True,
force_conf_generation=False)
if filter_valid:
r_list = []
for pose_name in self.pose_dict.keys():
if not self.pose_dict[pose_name].valide:
r_list.append(pose_name)
for r_pose_name in r_list:
self.pose_dict.pop(r_pose_name, None)
if dev_mode:
print("OK")
def set_poses(self, pose_names):
"""Set la pose affichée à l'écran enla designant par son nom"""
self.current_silhouette = ()
for pose_name in pose_names:
if pose_name in self.pose_dict.keys():
self.current_silhouette = self.current_silhouette + \
(self.pose_dict[pose_name].get_silhouette(),)
else:
print("Warning: Set_Pose d'une pose inconnue :", pose_name)
self.colors = list(self.default_colors)
self.update()
def paintEvent(self, *args):
#TODO OPTIMISE FOR MULTIPLE REPETITIVE CALL
super().paintEvent(*args)
if self.current_silhouette is not None:
# Génération du QPainter
print("update started")
painter = QPainter(self)
# Effacer la pose précédente
painter.eraseRect(self.rect())
# get x axis coordonate of the center of the player 1st on the left
left_center = self.player_rect.left(
) + 0.5 * self.player_rect.width() - self.player_pixel_spacing * (
len(self.current_silhouette) - 1) * 0.5
n = len(self.current_silhouette)
for k in random.sample(range(n), n):
vertical_random = self.vertical_random_ratio * self.pose_hauteur * random.random(
)
new_pixmap = QPixmap(self.pose_largeur, self.pose_hauteur)
new_pixmap.fill(self.colors[k])
new_pixmap.setMask(self.current_silhouette[k].pixmap.scaled(
self.pose_largeur, self.pose_hauteur).mask())
painter.drawPixmap(
int(left_center + k * self.player_pixel_spacing -
(self.pose_largeur * 0.5)),
self.player_rect.top() + vertical_random,
self.pose_largeur, self.pose_hauteur, new_pixmap)
#self.setPixmap(silhouette.sil_pixmap.scaled(self.width(), self.height(), Qt.KeepAspectRatio))
def keyPressEvent(self, e):
self.key_press_event_callback(e)
def paint (self, painter, option, index):
'''
QPainter * painter, const QStyleOptionViewItem & option, const QModelIndex & index
'''
orntnDelegate = self.chooseOrientationDelegate()
painter.save()
if option.state & QStyle.State_Selected:
borderPen = QPen(Qt.blue)
borderPen.setWidth(3)
nameBgColors = [Qt.white, Qt.yellow]
else:
borderPen = QPen(Qt.lightGray)
lightBlue = QColor(0, 0, 255).lighter(180)
nameBgColors = [Qt.white, lightBlue]
# Set default font and color
itemRect = option.rect
painter.fillRect(itemRect, Qt.white)
painter.setFont(orntnDelegate.getNameFont())
painter.setPen(Qt.black)
m = index.model()
ticker = m.data(index, PositionsModel.ROLE_TICKER)
companyName = m.data(index, Qt.DisplayRole)
line2 = m.data(index, PositionsModel.ROLE_CURRENT_PRICE)
line3 = m.data(index, PositionsModel.ROLE_CHANGE)
fontMetricsCompanyName = QFontMetrics(orntnDelegate.getNameFont())
fontMetricsTicker = QFontMetrics(orntnDelegate.getTickerFont())
fontMetricsCurrentPrice = QFontMetrics(orntnDelegate.getCurrentPriceFont())
fontMetricsChange = QFontMetrics(orntnDelegate.getChangeFont())
lineSp1 = fontMetricsCompanyName.lineSpacing()
lineSp2 = fontMetricsCurrentPrice.lineSpacing()
lineSp3 = fontMetricsChange.lineSpacing()
# Company Name (EXCHANGE:SYMBOL)
textRectShade = QRect(itemRect.left(),
itemRect.top(),
itemRect.width(),
self.MARGIN + lineSp1 + self.MARGIN)
gradient = self.createLinearGradient(textRectShade,
nameBgColors[0],
nameBgColors[1])
painter.fillRect(textRectShade, gradient)
textRect = QRect(itemRect.left() + self.MARGIN, itemRect.top() + self.MARGIN,
itemRect.width() - 2 * self.MARGIN, lineSp1 + self.MARGIN)
painter.setFont(orntnDelegate.getNameFont())
# Shorten the company name such that long company names are not written on top of the ticker
tickerTextW = fontMetricsTicker.width(ticker)
companyNameTextW = textRect.width() - tickerTextW - 2 * self.MARGIN
companyName = fontMetricsCompanyName.elidedText(companyName, Qt.ElideRight, companyNameTextW)
painter.drawText(textRect, Qt.AlignVCenter | Qt.AlignLeft, companyName)
painter.setFont(orntnDelegate.getTickerFont())
painter.drawText(textRect, Qt.AlignVCenter | Qt.AlignRight, "(%s)" % (ticker))
# Current price
painter.setFont(orntnDelegate.getCurrentPriceFont())
textRect.adjust(0, lineSp1 + self.MARGIN, 0, lineSp2 + self.MARGIN)
painter.drawText(textRect, Qt.AlignTop | Qt.AlignLeft, line2)
rightColRect = QRect(textRect.left(), textRect.top(),
textRect.width(), textRect.height())
# Change
ccol = m.data(index, PositionsModel.ROLE_CHANGE_COLOR)
if ccol == "chg":
painter.setPen(QPen(Qt.darkGreen))
elif ccol == "chr":
painter.setPen(QPen(Qt.red))
painter.setFont(orntnDelegate.getChangeFont())
textRect.adjust(0, lineSp2 + self.MARGIN, 0, lineSp3 + self.MARGIN)
painter.drawText(textRect, Qt.AlignTop | Qt.AlignLeft, line3)
'''
Right Column
'''
orntnDelegate.paintRightCol(index, painter, rightColRect)
painter.setPen(borderPen)
painter.drawRect(itemRect)
painter.restore()
class BrushingModel(QObject):
brushSizeChanged = pyqtSignal(int)
brushColorChanged = pyqtSignal(QColor)
brushStrokeAvailable = pyqtSignal(QPointF, object)
drawnNumberChanged = pyqtSignal(int)
minBrushSize = 1
maxBrushSize = 61
defaultBrushSize = 3
defaultDrawnNumber = 1
defaultColor = Qt.white
erasingColor = Qt.black
erasingNumber = 100
def __init__(self, parent=None):
QObject.__init__(self, parent=parent)
self.sliceRect = None
self.bb = QRect() #bounding box enclosing the drawing
self.brushSize = self.defaultBrushSize
self.drawColor = self.defaultColor
self._temp_color = None
self._temp_number = None
self.drawnNumber = self.defaultDrawnNumber
self.pos = None
self.erasing = False
self._hasMoved = False
self.drawOnto = None
#an empty scene, where we add all drawn line segments
#a QGraphicsLineItem, and which we can use to then
#render to an image
self.scene = QGraphicsScene()
def toggleErase(self):
self.erasing = not(self.erasing)
if self.erasing:
self.setErasing()
else:
self.disableErasing()
def setErasing(self):
self.erasing = True
self._temp_color = self.drawColor
self._temp_number = self.drawnNumber
self.setBrushColor(self.erasingColor)
self.brushColorChanged.emit(self.erasingColor)
self.setDrawnNumber(self.erasingNumber)
def disableErasing(self):
self.erasing = False
self.setBrushColor(self._temp_color)
self.brushColorChanged.emit(self.drawColor)
self.setDrawnNumber(self._temp_number)
def setBrushSize(self, size):
self.brushSize = size
self.brushSizeChanged.emit(self.brushSize)
def setDrawnNumber(self, num):
self.drawnNumber = num
self.drawnNumberChanged.emit(num)
def getBrushSize(self):
return self.brushSize
def brushSmaller(self):
b = self.brushSize
if b > self.minBrushSize:
self.setBrushSize(b-1)
def brushBigger(self):
b = self.brushSize
if self.brushSize < self.maxBrushSize:
self.setBrushSize(b+1)
def setBrushColor(self, color):
self.drawColor = color
self.brushColorChanged.emit(self.drawColor)
def beginDrawing(self, pos, sliceRect):
'''
pos -- QPointF-like
'''
self.sliceRect = sliceRect
self.scene.clear()
self.bb = QRect()
self.pos = QPointF(pos.x(), pos.y())
self._hasMoved = False
def endDrawing(self, pos):
has_moved = self._hasMoved # _hasMoved will change after calling moveTo
if has_moved:
self.moveTo(pos)
else:
assert(self.pos == pos)
self.moveTo(QPointF(pos.x()+0.0001, pos.y()+0.0001)) # move a little
# Qt seems to use strange rules for determining which pixels to set when rendering a brush stroke to a QImage.
# We seem to get better results if we do the following:
# 1) Slightly offset the source window because apparently there is a small shift in the data
# 2) Render the scene to an image that is MUCH larger than the scene resolution (4x by 4x)
# 3) Downsample each 4x4 patch from the large image back to a single pixel in the final image,
# applying some threshold to determine if the final pixel is on or off.
tempi = QImage(QSize(4*self.bb.width(), 4*self.bb.height()), QImage.Format_ARGB32_Premultiplied) #TODO: format
tempi.fill(0)
painter = QPainter(tempi)
# Offset the source window. At first I thought the right offset was 0.5, because
# that would seem to make sure points are rounded to pixel CENTERS, but
# experimentation indicates that 0.25 is slightly better for some reason...
source_rect = QRectF( QPointF(self.bb.x()+0.25, self.bb.y()+0.25),
QSizeF(self.bb.width(), self.bb.height()) )
target_rect = QRectF( QPointF(0,0),
QSizeF(4*self.bb.width(), 4*self.bb.height()) )
self.scene.render(painter, target=target_rect, source=source_rect)
painter.end()
# Now downsample: convert each 4x4 patch into a single pixel by summing and dividing
ndarr = qimage2ndarray.rgb_view(tempi)[:,:,0].astype(int)
ndarr = ndarr.reshape( (ndarr.shape[0],) + (ndarr.shape[1]//4,) + (4,) )
ndarr = ndarr.sum(axis=-1)
ndarr = ndarr.transpose()
ndarr = ndarr.reshape( (ndarr.shape[0],) + (ndarr.shape[1]//4,) + (4,) )
ndarr = ndarr.sum(axis=-1)
ndarr = ndarr.transpose()
ndarr //= 4*4
downsample_threshold = (7./16)*255
labels = numpy.where(ndarr>=downsample_threshold, numpy.uint8(self.drawnNumber), numpy.uint8(0))
labels = labels.swapaxes(0,1)
assert labels.shape[0] == self.bb.width()
assert labels.shape[1] == self.bb.height()
##
## ensure that at least one pixel is label when the brush size is 1
##
## this happens when the user just clicked without moving
## in that case the lineitem will be so tiny, that it won't be rendered
## into a single pixel by the code above
if not has_moved and self.brushSize <= 1 and numpy.count_nonzero(labels) == 0:
labels[labels.shape[0]//2, labels.shape[1]//2] = self.drawnNumber
self.brushStrokeAvailable.emit(QPointF(self.bb.x(), self.bb.y()), labels)
def dumpDraw(self, pos):
res = self.endDrawing(pos)
self.beginDrawing(pos, self.sliceRect)
return res
def moveTo(self, pos):
#data coordinates
oldX, oldY = self.pos.x(), self.pos.y()
x,y = pos.x(), pos.y()
line = QGraphicsLineItem(oldX, oldY, x, y)
line.setPen(QPen( QBrush(Qt.white), self.brushSize, Qt.SolidLine, Qt.RoundCap, Qt.RoundJoin))
self.scene.addItem(line)
self._hasMoved = True
#update bounding Box
if not self.bb.isValid():
self.bb = QRect(QPoint(oldX,oldY), QSize(1,1))
#grow bounding box
self.bb.setLeft( min(self.bb.left(), max(0, x-self.brushSize//2-1) ) )
self.bb.setRight( max(self.bb.right(), min(self.sliceRect[0]-1, x+self.brushSize//2+1) ) )
self.bb.setTop( min(self.bb.top(), max(0, y-self.brushSize//2-1) ) )
self.bb.setBottom(max(self.bb.bottom(), min(self.sliceRect[1]-1, y+self.brushSize//2+1) ) )
#update/move position
self.pos = pos
class SelectedFeatureByRectTasDraw(QgsMapTool):
def __init__(self, canvas, distance):
self.mCanvas = canvas
QgsMapTool.__init__(self, canvas)
self.mCursor = Qt.ArrowCursor
self.mRubberBand = None
self.mDragging = False
self.mSelectRect = QRect()
self.rubberBandLine = None
self.distance = distance
self.mSnapper = QgsMapCanvasSnapper(canvas)
# QgsRubberBand* mRubberBand;
# def reset(self):
# self.startPoint = None
# self.endPoint = None
# self.isDrawing = False
# SelectByRect.RubberRect.reset(QGis.Polygon)
# self.layer = self.canvas.currentLayer()
def canvasPressEvent(self, e):
self.mSelectRect.setRect(0, 0, 0, 0)
self.mRubberBand = QgsRubberBand(self.mCanvas, QGis.Polygon)
self.startPoint, self.pointID, self.layer = self.snapPoint(e.pos())
# self.reset()
# self.startPoint = self.toMapCoordinates(e.pos())
# self.isDrawing = True
def canvasMoveEvent(self, e):
if (e.buttons() != Qt.LeftButton):
return
if (not self.mDragging):
self.mDragging = True
self.mSelectRect.setTopLeft(e.pos())
self.mSelectRect.setBottomRight(e.pos())
QgsMapToolSelectUtils.setRubberBand(self.mCanvas, self.mSelectRect,
self.mRubberBand)
# if not self.isDrawing:
# return
# SelectByRect.RubberRect.reset(QGis.Polygon)
# self.endPoint = self.toMapCoordinates(e.pos())
# self.rect = QgsRectangle(self.startPoint, self.endPoint)
# SelectByRect.RubberRect.addGeometry(QgsGeometry.fromRect(self.rect), None)
# SelectByRect.RubberRect.show()
def canvasReleaseEvent(self, e):
self.endPoint, self.pointID, self.layer = self.snapPoint(e.pos())
if len(define._newGeometryList) > 0:
geom = define._newGeometryList[0]
if geom.intersects(self.mRubberBand.asGeometry()):
pointArray = geom.asPolyline()
# pointArray1 = QgisHelper.offsetCurve(pointArray, 1200)
if self.rubberBandLine != None:
self.rubberBandLine.reset(QGis.Line)
del self.rubberBandLine
self.rubberBandLine = None
self.rubberBandLine = QgsRubberBand(self.mCanvas, QGis.Line)
self.rubberBandLine.setColor(Qt.blue)
bearing = 0.0
if self.startPoint.y() >= self.endPoint.y() and (
math.fabs(self.startPoint.x() - self.endPoint.x()) <
math.fabs(self.startPoint.y() - self.endPoint.y())):
bearing = Unit.ConvertDegToRad(180)
elif self.startPoint.x() >= self.endPoint.x() and (
math.fabs(self.startPoint.x() - self.endPoint.x()) >
math.fabs(self.startPoint.y() - self.endPoint.y())):
bearing = Unit.ConvertDegToRad(270)
elif self.startPoint.x() < self.endPoint.x() and (
math.fabs(self.startPoint.x() - self.endPoint.x()) >
math.fabs(self.startPoint.y() - self.endPoint.y())):
bearing = Unit.ConvertDegToRad(90)
else:
bearing = 0.0
for point in pointArray:
pt = MathHelper.distanceBearingPoint(
Point3D(point.x(), point.y()), bearing, self.distance
) # MathHelper.getBearing(self.startPoint, self.endPoint), self.distance)
self.rubberBandLine.addPoint(pt)
gg = self.rubberBandLine.asGeometry()
g = gg.asPolyline()
# self.rubberBandLine.show()
if (self.mRubberBand != None):
self.mRubberBand.reset(QGis.Polygon)
del self.mRubberBand
self.mRubberBand = None
self.mDragging = False
self.emit(
SIGNAL("resultSelectedFeatureByRectTasDraw"), gg,
self.distance, bearing
) # MathHelper.getBearing(self.startPoint, self.endPoint))
return
vlayer = QgsMapToolSelectUtils.getCurrentVectorLayer(self.mCanvas)
if (vlayer == None):
if (self.mRubberBand != None):
self.mRubberBand.reset(QGis.Polygon)
del self.mRubberBand
self.mRubberBand = None
self.mDragging = False
return
if (not self.mDragging):
QgsMapToolSelectUtils.expandSelectRectangle(
self.mSelectRect, vlayer, e.pos())
else:
if (self.mSelectRect.width() == 1):
self.mSelectRect.setLeft(self.mSelectRect.left() + 1)
if (self.mSelectRect.height() == 1):
self.mSelectRect.setBottom(self.mSelectRect.bottom() + 1)
if (self.mRubberBand != None):
QgsMapToolSelectUtils.setRubberBand(self.mCanvas, self.mSelectRect,
self.mRubberBand)
selectGeom = self.mRubberBand.asGeometry()
# QgsMapToolSelectUtils.setSelectFeatures( self.mCanvas, selectGeom, e )
selectedFeatures = QgsMapToolSelectUtils.setSelectFeaturesOrRubberband_Tas_1(
self.mCanvas, selectGeom, e)
if len(selectedFeatures) > 0:
geom = selectedFeatures[0].geometry()
if geom.intersects(self.mRubberBand.asGeometry()):
pointArray = geom.asPolyline()
# pointArray1 = QgisHelper.offsetCurve(pointArray, 1200)
if self.rubberBandLine != None:
self.rubberBandLine.reset(QGis.Line)
del self.rubberBandLine
self.rubberBandLine = None
self.rubberBandLine = QgsRubberBand(
self.mCanvas, QGis.Line)
self.rubberBandLine.setColor(Qt.blue)
bearing = 0.0
gg = None
if self.startPoint.y() >= self.endPoint.y() and (
math.fabs(self.startPoint.x() - self.endPoint.x())
< math.fabs(self.startPoint.y() -
self.endPoint.y())):
bearing = Unit.ConvertDegToRad(180)
gg = self.newCreateLine(geom, self.distance, 180)
elif self.startPoint.x() >= self.endPoint.x() and (
math.fabs(self.startPoint.x() - self.endPoint.x())
> math.fabs(self.startPoint.y() -
self.endPoint.y())):
bearing = Unit.ConvertDegToRad(270)
gg = self.newCreateLine(geom, self.distance, 270)
elif self.startPoint.x() < self.endPoint.x() and (
math.fabs(self.startPoint.x() - self.endPoint.x())
> math.fabs(self.startPoint.y() -
self.endPoint.y())):
bearing = Unit.ConvertDegToRad(90)
gg = self.newCreateLine(geom, self.distance, 90)
else:
bearing = 0.0
gg = self.newCreateLine(geom, self.distance, 0)
for point in pointArray:
pt = MathHelper.distanceBearingPoint(
Point3D(point.x(),
point.y()), bearing, self.distance
) #MathHelper.getBearing(self.startPoint, self.endPoint), self.distance)
self.rubberBandLine.addPoint(pt)
# gg= self.newCreateLine(geom, -self.distance, 0)
self.emit(
SIGNAL("resultSelectedFeatureByRectTasDraw"), gg,
self.distance, bearing
) #MathHelper.getBearing(self.startPoint, self.endPoint))
self.rubberBandLine.reset(QGis.Line)
del selectGeom
self.mRubberBand.reset(QGis.Polygon)
del self.mRubberBand
self.mRubberBand = None
self.mDragging = False
# self.canvasMoveEvent(e)
# if self.layer != None:
# self.layer.removeSelection()
# if self.layer.crs().mapUnits() != self.canvas.mapUnits():
# if self.layer.crs().mapUnits == QGis.Meters:
# lstPoint = QgisHelper.Degree2MeterList([self.startPoint, self.endPoint])
# else:
# lstPoint = QgisHelper.Meter2DegreeList([self.startPoint, self.endPoint])
# rect = QgsRectangle(lstPoint[0], lstPoint[1])
# self.layer.select(rect, True)
# else:
# self.layer.select(self.rect, False)
# else:
# QMessageBox.warning(None, "Information", "Please select layer!")
# self.reset()
def snapPoint(self, p, bNone=False):
if define._snapping == False:
return (
define._canvas.getCoordinateTransform().toMapCoordinates(p),
None, None)
snappingResults = self.mSnapper.snapToBackgroundLayers(p)
if (snappingResults[0] != 0 or len(snappingResults[1]) < 1):
if bNone:
return (None, None, None)
else:
return (define._canvas.getCoordinateTransform().
toMapCoordinates(p), None, None)
else:
return (snappingResults[1][0].snappedVertex,
snappingResults[1][0].snappedAtGeometry,
snappingResults[1][0].layer)
def newCreateLine(self, geom, dist, angle):
if define._units != QGis.Meters:
dist = define._qgsDistanceArea.convertMeasurement(
dist, QGis.Meters, QGis.Degrees, False)[0]
g = geom.offsetCurve(dist, 0, 2, 2)
pointArrayOld = geom.asPolyline()
pointArrayNew = g.asPolyline()
if MathHelper.calcDistance(
pointArrayNew[0], pointArrayOld[0]) > MathHelper.calcDistance(
pointArrayNew[0], pointArrayOld[len(pointArrayOld) - 1]):
array = []
i = len(pointArrayNew) - 1
while i >= 0:
array.append(pointArrayNew[i])
i -= 1
pointArrayNew = array
if angle == 0:
if pointArrayNew[0].y() < pointArrayOld[0].y():
g = geom.offsetCurve(-dist, 0, 2, 2)
pointArrayNew = g.asPolyline()
elif angle == 90:
if pointArrayNew[0].x() < pointArrayOld[0].x():
g = geom.offsetCurve(-dist, 0, 2, 2)
pointArrayNew = g.asPolyline()
elif angle == 180:
if pointArrayNew[0].y() > pointArrayOld[0].y():
g = geom.offsetCurve(-dist, 0, 2, 2)
pointArrayNew = g.asPolyline()
elif angle == 270:
if pointArrayNew[0].x() > pointArrayOld[0].x():
g = geom.offsetCurve(-dist, 0, 2, 2)
pointArrayNew = g.asPolyline()
if MathHelper.calcDistance(
pointArrayNew[0], pointArrayOld[0]) > MathHelper.calcDistance(
pointArrayNew[0], pointArrayOld[len(pointArrayOld) - 1]):
array = []
i = len(pointArrayNew) - 1
while i >= 0:
array.append(pointArrayNew[i])
i -= 1
pointArrayNew = array
i = 0
while i < len(pointArrayNew) - 1:
if i == 0:
i += 1
continue
line = None
if define._units == QGis.Meters:
if angle == 0:
line = QgsGeometry.fromPolyline([
pointArrayOld[0],
QgsPoint(pointArrayOld[0].x(), 100000000)
])
elif angle == 90:
line = QgsGeometry.fromPolyline([
pointArrayOld[0],
QgsPoint(100000000, pointArrayOld[0].y())
])
elif angle == 180:
line = QgsGeometry.fromPolyline(
[pointArrayOld[0],
QgsPoint(pointArrayOld[0].x(), 0)])
elif angle == 270:
line = QgsGeometry.fromPolyline(
[pointArrayOld[0],
QgsPoint(0, pointArrayOld[0].y())])
else:
if angle == 0:
line = QgsGeometry.fromPolyline([
pointArrayOld[0],
QgsPoint(pointArrayOld[0].x(),
pointArrayOld[0].y() + 0.1)
])
elif angle == 90:
line = QgsGeometry.fromPolyline([
pointArrayOld[0],
QgsPoint(pointArrayOld[0].x() + 0.1,
pointArrayOld[0].y())
])
elif angle == 180:
line = QgsGeometry.fromPolyline([
pointArrayOld[0],
QgsPoint(pointArrayOld[0].x(),
pointArrayOld[0].y() - 0.1)
])
elif angle == 270:
line = QgsGeometry.fromPolyline([
pointArrayOld[0],
QgsPoint(pointArrayOld[0].x() - 0.1,
pointArrayOld[0].y())
])
lineNew = QgsGeometry.fromPolyline([
MathHelper.distanceBearingPoint(
Point3D(pointArrayNew[i].x(), pointArrayNew[i].y()),
MathHelper.getBearing(pointArrayNew[i],
pointArrayNew[i - 1]), 100000),
pointArrayNew[i]
])
if line.intersects(lineNew):
pointGeom = line.intersection(lineNew)
intersectPoint = pointGeom.asPoint()
pointArrayNew.pop(i - 1)
pointArrayNew.insert(i - 1, intersectPoint)
break
else:
pointArrayNew.pop(i - 1)
continue
i += 1
i = len(pointArrayNew) - 1
while i > 1:
line = None
if define._units == QGis.Meters:
if angle == 0:
line = QgsGeometry.fromPolyline([
pointArrayOld[len(pointArrayOld) - 1],
QgsPoint(pointArrayOld[len(pointArrayOld) - 1].x(),
100000000)
])
elif angle == 90:
line = QgsGeometry.fromPolyline([
pointArrayOld[len(pointArrayOld) - 1],
QgsPoint(100000000,
pointArrayOld[len(pointArrayOld) - 1].y())
])
elif angle == 180:
line = QgsGeometry.fromPolyline([
pointArrayOld[len(pointArrayOld) - 1],
QgsPoint(pointArrayOld[len(pointArrayOld) - 1].x(), 0)
])
elif angle == 270:
line = QgsGeometry.fromPolyline([
pointArrayOld[len(pointArrayOld) - 1],
QgsPoint(0, pointArrayOld[len(pointArrayOld) - 1].y())
])
else:
if angle == 0:
line = QgsGeometry.fromPolyline([
pointArrayOld[len(pointArrayOld) - 1],
QgsPoint(
pointArrayOld[len(pointArrayOld) - 1].x(),
pointArrayOld[len(pointArrayOld) - 1].y() + 0.1)
])
elif angle == 90:
line = QgsGeometry.fromPolyline([
pointArrayOld[len(pointArrayOld) - 1],
QgsPoint(
pointArrayOld[len(pointArrayOld) - 1].x() + 0.1,
pointArrayOld[len(pointArrayOld) - 1].y())
])
elif angle == 180:
line = QgsGeometry.fromPolyline([
pointArrayOld[len(pointArrayOld) - 1],
QgsPoint(
pointArrayOld[len(pointArrayOld) - 1].x(),
pointArrayOld[len(pointArrayOld) - 1].y() - 0.1)
])
elif angle == 270:
line = QgsGeometry.fromPolyline([
pointArrayOld[len(pointArrayOld) - 1],
QgsPoint(
pointArrayOld[len(pointArrayOld) - 1].x() - 0.1,
pointArrayOld[len(pointArrayOld) - 1].y())
])
# line = QgsGeometry.fromPolyline([pointArrayOld[len(pointArrayOld) - 1], QgsPoint(pointArrayOld[len(pointArrayOld) - 1].x(), 100000000)])
lineNew = QgsGeometry.fromPolyline([
MathHelper.distanceBearingPoint(
Point3D(pointArrayNew[i].x(), pointArrayNew[i].y()),
MathHelper.getBearing(pointArrayNew[i - 1],
pointArrayNew[i]), 100000),
pointArrayNew[i - 1]
])
if line.intersects(lineNew):
pointGeom = line.intersection(lineNew)
intersectPoint = pointGeom.asPoint()
pointArrayNew.pop(i)
pointArrayNew.insert(i, intersectPoint)
break
else:
pointArrayNew.pop(i)
i -= 1
continue
i -= 1
return QgsGeometry.fromPolyline(pointArrayNew)
class SelectByRect(QgsMapTool):
def __init__(self, canvas):
self.mCanvas = canvas
QgsMapTool.__init__(self, canvas)
self.mCursor = Qt.ArrowCursor
self.mRubberBand = None
self.mDragging = False
self.mSelectRect = QRect()
# QgsRubberBand* mRubberBand;
# def reset(self):
# self.startPoint = None
# self.endPoint = None
# self.isDrawing = False
# SelectByRect.RubberRect.reset(QGis.Polygon)
# self.layer = self.canvas.currentLayer()
def canvasPressEvent(self, e):
self.mSelectRect.setRect(0, 0, 0, 0)
self.mRubberBand = QgsRubberBand(self.mCanvas, QGis.Polygon)
# self.reset()
# self.startPoint = self.toMapCoordinates(e.pos())
# self.isDrawing = True
def canvasMoveEvent(self, e):
if (e.buttons() != Qt.LeftButton):
return
if (not self.mDragging):
self.mDragging = True
self.mSelectRect.setTopLeft(e.pos())
self.mSelectRect.setBottomRight(e.pos())
QgsMapToolSelectUtils.setRubberBand(self.mCanvas, self.mSelectRect,
self.mRubberBand)
# if not self.isDrawing:
# return
# SelectByRect.RubberRect.reset(QGis.Polygon)
# self.endPoint = self.toMapCoordinates(e.pos())
# self.rect = QgsRectangle(self.startPoint, self.endPoint)
# SelectByRect.RubberRect.addGeometry(QgsGeometry.fromRect(self.rect), None)
# SelectByRect.RubberRect.show()
def canvasReleaseEvent(self, e):
selectedFeatures = None
vlayer = QgsMapToolSelectUtils.getCurrentVectorLayer(self.mCanvas)
if (vlayer == None):
if (self.mRubberBand != None):
self.mRubberBand.reset(QGis.Polygon)
del self.mRubberBand
self.mRubberBand = None
self.mDragging = False
return
if (not self.mDragging):
QgsMapToolSelectUtils.expandSelectRectangle(
self.mSelectRect, vlayer, e.pos())
else:
if (self.mSelectRect.width() == 1):
self.mSelectRect.setLeft(self.mSelectRect.left() + 1)
if (self.mSelectRect.height() == 1):
self.mSelectRect.setBottom(self.mSelectRect.bottom() + 1)
if (self.mRubberBand != None):
QgsMapToolSelectUtils.setRubberBand(self.mCanvas, self.mSelectRect,
self.mRubberBand)
selectGeom = self.mRubberBand.asGeometry()
# QgsMapToolSelectUtils.setSelectFeatures( self.mCanvas, selectGeom, e )
selectedFeatures = QgsMapToolSelectUtils.setSelectFeatures1(
self.mCanvas, selectGeom, e)
del selectGeom
self.mRubberBand.reset(QGis.Polygon)
del self.mRubberBand
self.mRubberBand = None
self.mDragging = False
self.emit(SIGNAL("getSelectedFeatures"), selectedFeatures)
class AbstractScrollTela(TelaConsole):
def __init__(self, altura, parent=None):
super().__init__(parent=parent)
self._rectTela = QRect(0,0,0,altura)
self._mostrarHorizontal = False
self._mostrarVertical = False
self._scrollHorizontal = ScrollBarConsole(3,0,orientacao=ScrollBarConsole.HORIZONTAL,parent=self)
self._scrollVertical = ScrollBarConsole(self._rectTela.height(),0,orientacao=ScrollBarConsole.VERTICAL,parent=self)
self._scrollHorizontal.valorScrollModificado.connect(self._moverHorizontal)
self._scrollVertical.valorScrollModificado.connect(self._moverVertical)
self._scrollBarFocus = ScrollBarConsole(3,0,parent=self)
self._scrollBarFocus.installEventFilter(self)
def eventFilter(self, obj, event):
if obj == self._scrollBarFocus and event.type() != EventoTecladoConsole.TabType:
self._scrollVertical.customEvent(event)
self._scrollHorizontal.customEvent(event)
return True
else:
return False
def acceptFocus(self):
return True
def focusNextChild(self):
if self._scrollBarFocus.hasFocus():
return False
if self.hasFocus():
if not (self._mostrarVertical or self._mostrarHorizontal):
return False
self._scrollBarFocus.setFocus()
else:
if not self.acceptFocus():
return False
self.setFocus()
return True
def focusPrevChild(self):
if self.hasFocus():
return False
if self._scrollBarFocus.hasFocus():
if self.acceptFocus():
self.setFocus()
else:
return False
else:
self._scrollBarFocus.setFocus()
return True
def indexChildActive(self):
if self._scrollBarFocus.hasFocus():
return 0
return -1
def getRectTela(self):
return self._rectTela
def _moverVertical(self, valor):
self._scrollVertical.setValorAtual(valor)
self._rectTela.moveTop(valor)
def _moverHorizontal(self, valor):
self._scrollHorizontal.setValorAtual(valor)
self._rectTela.moveLeft(valor)
def deixarVisivelVertical(self, valor):
top = self.getRectTela().top()
height = self.getRectTela().height() - self._numLinhasFixas() - 1
bottom = top + height
if valor < top:
self._moverVertical(valor)
elif valor > bottom:
self._moverVertical(valor - height)
def deixarVisivelHorizontal(self, valor):
left = self.getRectTela().left()
width = self.getRectTela().width()-1
right = left + width
if valor < left:
self._moverHorizontal(valor)
elif valor > right:
self._moverHorizontal(valor - width)
def scrollContentsBy(self, dx, dy):
self._rectTela.translate(dx,dy)
def getDesenhoTela(self):
raise NotImplemented("Metodo abstrato")
def _adicionarScrollBar(self, tela):
if self._mostrarVertical:
tela = self._adicionarScrollVertical(tela)
if self._mostrarHorizontal:
tela = self._adicionarScrollHorizontal(tela)
return tela
def _adicionarScrollVertical(self, texto):
scroll = ''
for i in self._scrollVertical.desenhoTelaConsole(self._rectTela.width()).split('\n'):
scroll += "{0}|\n".format(i)
scroll = "-|\n{0}-|".format(scroll).split('\n')
s = ''
texto = texto.split('\n')
for i in range(len(texto)):
s += "{0:{1}}{2}\n".format(texto[i], self._rectTela.width()+2, scroll[i])
if s.endswith('\n'):
s = s[:len(s)-1]
return s
def _adicionarScrollHorizontal(self, texto):
texto += '\n|{0}|{1}\n'.format(self._scrollHorizontal.desenhoTelaConsole(self._rectTela.width()), 'X|' if self._mostrarVertical else '')
texto += '|{0:-<{1}}|{2}'.format('', self._rectTela.width(), '-|' if self._mostrarVertical else '')
return texto
def _ajustarScroll(self, tela):
linhas = tela.split('\n')
numColunas = max(map(len, linhas))
numLinhasFixas = self._numLinhasFixas()
numLinhas = len(linhas) + numLinhasFixas
self._mostrarVertical = numLinhas > self._rectTela.height()
self._mostrarHorizontal = numColunas > self._rectTela.width()
self._scrollHorizontal.setAteValor(max(0, numColunas-self._rectTela.width()))
self._scrollVertical.setAteValor(max(0, numLinhas-self._rectTela.height()))
def _adicionarLinhasFixas(self, tela):
"""Esse método deve ser sobrescrito pela classe filha para adicionar as linhas fixas na tela"""
return tela
def _numLinhasFixas(self):
return self._adicionarLinhasFixas('').count('\n')
def _linhasVisiveis(self, tela):
linhas = tela.split('\n')
numLinhasFixas = self._numLinhasFixas()
numLinhas = len(linhas) + numLinhasFixas
if numLinhas < self._rectTela.height():
tela = self._adicionarLinhasFixas(tela)
tela += '\n'*(self._rectTela.height()-numLinhas)
else:
top = self.getRectTela().top()
bottom = self.getRectTela().bottom()+1
return self._adicionarLinhasFixas('\n'.join(linhas[top:bottom - numLinhasFixas]))
return tela
def _colunasVisiveis(self, tela):
linhas = tela.split('\n')
numColunas = max(map(len, linhas))+1
if numColunas > self._rectTela.width():
tela = '\n'.join([linha[self._rectTela.left():self._rectTela.right()+1] for linha in linhas])
return tela
def _ajustarTela(self, tela):
tela = self._linhasVisiveis(tela)
tela = self._colunasVisiveis(tela)
return tela
def desenhoTela(self, tam):
tela = self.getDesenhoTela()
self._ajustarScroll(tela)
if self._mostrarVertical:
tam -= 2
if tam-2 != self._rectTela.width():
self._rectTela.setWidth(tam-2)
self._scrollHorizontal.setTamanho(tam-2)
self._ajustarScroll(tela)
tela = self._ajustarTela(tela)
tela = self._colocarBorda(tela, tam)
return self._adicionarScrollBar(tela)
class MincutConnec(QgsMapTool):
canvasClicked = pyqtSignal()
def __init__(self, iface, controller):
""" Class constructor """
self.iface = iface
self.canvas = self.iface.mapCanvas()
self.controller = controller
# Call superclass constructor and set current action
QgsMapTool.__init__(self, self.canvas)
self.dragging = False
# Vertex marker
color = QColor(255, 100, 255)
self.vertex_marker = QgsVertexMarker(self.canvas)
self.vertex_marker.setIconType(QgsVertexMarker.ICON_CIRCLE)
self.vertex_marker.setColor(color)
self.vertex_marker.setIconSize(15)
self.vertex_marker.setPenWidth(3)
# Rubber band
self.rubber_band = QgsRubberBand(self.canvas, QGis.Line)
self.rubber_band.setColor(color)
self.rubber_band.setWidth(1)
# Select rectangle
self.select_rect = QRect()
# TODO: Parametrize
self.connec_group = ["Wjoin", "Tap", "Fountain", "Greentap"]
#self.snapperManager = SnappingConfigManager(self.iface)
self.snapper = QgsMapCanvasSnapper(self.canvas)
def activate(self):
pass
def canvasPressEvent(self, event): #@UnusedVariable
self.select_rect.setRect(0, 0, 0, 0)
self.rubber_band.reset()
def canvasMoveEvent(self, event):
""" With left click the digitizing is finished """
if event.buttons() == Qt.LeftButton:
if not self.dragging:
self.dragging = True
self.select_rect.setTopLeft(event.pos())
self.select_rect.setBottomRight(event.pos())
self.set_rubber_band()
else:
# Hide highlight
self.vertex_marker.hide()
# Get the click
x = event.pos().x()
y = event.pos().y()
event_point = QPoint(x, y)
# Snapping
(retval, result) = self.snapper.snapToBackgroundLayers(
event_point) # @UnusedVariable
# That's the snapped point
if result:
# Check feature
for snap_point in result:
element_type = snap_point.layer.name()
if element_type in self.connec_group:
# Get the point
point = QgsPoint(snap_point.snappedVertex)
# Add marker
self.vertex_marker.setCenter(point)
self.vertex_marker.show()
break
def canvasReleaseEvent(self, event):
""" With left click the digitizing is finished """
if event.button() == Qt.LeftButton:
# Get the click
x = event.pos().x()
y = event.pos().y()
event_point = QPoint(x, y)
# Not dragging, just simple selection
if not self.dragging:
# Snap to node
(retval, result) = self.snapper.snapToBackgroundLayers(
event_point) # @UnusedVariable
# That's the snapped point
if result:
# Check feature
for snapped_point in result:
element_type = snapped_point.layer.name()
if element_type in self.connec_group:
feat_type = 'connec'
else:
continue
point = QgsPoint(
snapped_point.snappedVertex) # @UnusedVariable
# layer.removeSelection()
# layer.select([result[0].snappedAtGeometry])
#snapped_point.layer.removeSelection()
snapped_point.layer.select(
[snapped_point.snappedAtGeometry])
else:
# Set valid values for rectangle's width and height
if self.select_rect.width() == 1:
self.select_rect.setLeft(self.select_rect.left() + 1)
if self.select_rect.height() == 1:
self.select_rect.setBottom(self.select_rect.bottom() + 1)
self.set_rubber_band()
self.select_multiple_features(self.selected_rectangle)
self.dragging = False
# Refresh map canvas
self.rubber_band.reset()
self.refresh_map_canvas()
def set_rubber_band(self):
# Coordinates transform
transform = self.canvas.getCoordinateTransform()
# Coordinates
ll = transform.toMapCoordinates(self.select_rect.left(),
self.select_rect.bottom())
lr = transform.toMapCoordinates(self.select_rect.right(),
self.select_rect.bottom())
ul = transform.toMapCoordinates(self.select_rect.left(),
self.select_rect.top())
ur = transform.toMapCoordinates(self.select_rect.right(),
self.select_rect.top())
# Rubber band
self.rubber_band.reset()
self.rubber_band.addPoint(ll, False)
self.rubber_band.addPoint(lr, False)
self.rubber_band.addPoint(ur, False)
self.rubber_band.addPoint(ul, False)
self.rubber_band.addPoint(ll, True)
self.selected_rectangle = QgsRectangle(ll, ur)
def select_multiple_features(self, rectangle):
if self.connec_group is None:
return
if QGis.QGIS_VERSION_INT >= 21600:
# Selection for all connec group layers
for layer_name in self.connec_group:
# Get layer by his name
layer = self.controller.get_layer_by_layername(layer_name,
log_info=True)
if layer:
self.group_pointers_connec.append(layer)
layer.selectByRect(rectangle)
else:
for layer_name in self.connec_group:
self.iface.setActiveLayer(layer)
layer.removeSelection()
layer.select(rectangle, True)
class BrushingModel(QObject):
brushSizeChanged = pyqtSignal(int)
brushColorChanged = pyqtSignal(QColor)
brushStrokeAvailable = pyqtSignal(QPointF, object)
drawnNumberChanged = pyqtSignal(int)
minBrushSize = 1
maxBrushSize = 61
defaultBrushSize = 3
defaultDrawnNumber = 1
defaultColor = Qt.white
erasingColor = Qt.black
erasingNumber = 100
def __init__(self, parent=None):
QObject.__init__(self, parent=parent)
self.sliceRect = None
self.bb = QRect() #bounding box enclosing the drawing
self.brushSize = self.defaultBrushSize
self.drawColor = self.defaultColor
self._temp_color = None
self._temp_number = None
self.drawnNumber = self.defaultDrawnNumber
self.pos = None
self.erasing = False
self._hasMoved = False
self.drawOnto = None
#an empty scene, where we add all drawn line segments
#a QGraphicsLineItem, and which we can use to then
#render to an image
self.scene = QGraphicsScene()
def toggleErase(self):
self.erasing = not (self.erasing)
if self.erasing:
self.setErasing()
else:
self.disableErasing()
def setErasing(self):
self.erasing = True
self._temp_color = self.drawColor
self._temp_number = self.drawnNumber
self.setBrushColor(self.erasingColor)
self.brushColorChanged.emit(self.erasingColor)
self.setDrawnNumber(self.erasingNumber)
def disableErasing(self):
self.erasing = False
self.setBrushColor(self._temp_color)
self.brushColorChanged.emit(self.drawColor)
self.setDrawnNumber(self._temp_number)
def setBrushSize(self, size):
self.brushSize = size
self.brushSizeChanged.emit(self.brushSize)
def setDrawnNumber(self, num):
self.drawnNumber = num
self.drawnNumberChanged.emit(num)
def getBrushSize(self):
return self.brushSize
def brushSmaller(self):
b = self.brushSize
if b > self.minBrushSize:
self.setBrushSize(b - 1)
def brushBigger(self):
b = self.brushSize
if self.brushSize < self.maxBrushSize:
self.setBrushSize(b + 1)
def setBrushColor(self, color):
self.drawColor = color
self.brushColorChanged.emit(self.drawColor)
def beginDrawing(self, pos, sliceRect):
'''
pos -- QPointF-like
'''
self.sliceRect = sliceRect
self.scene.clear()
self.bb = QRect()
self.pos = QPointF(pos.x(), pos.y())
self._hasMoved = False
def endDrawing(self, pos):
has_moved = self._hasMoved # _hasMoved will change after calling moveTo
if has_moved:
self.moveTo(pos)
else:
assert (self.pos == pos)
self.moveTo(QPointF(pos.x() + 0.0001,
pos.y() + 0.0001)) # move a little
tempi = QImage(QSize(self.bb.width(), self.bb.height()),
QImage.Format_ARGB32_Premultiplied) #TODO: format
tempi.fill(0)
painter = QPainter(tempi)
self.scene.render(painter,
target=QRectF(),
source=QRectF(
QPointF(self.bb.x(), self.bb.y()),
QSizeF(self.bb.width(), self.bb.height())))
painter.end()
ndarr = qimage2ndarray.rgb_view(tempi)[:, :, 0]
labels = numpy.where(ndarr > 0, numpy.uint8(self.drawnNumber),
numpy.uint8(0))
labels = labels.swapaxes(0, 1)
assert labels.shape[0] == self.bb.width()
assert labels.shape[1] == self.bb.height()
##
## ensure that at least one pixel is label when the brush size is 1
##
## this happens when the user just clicked without moving
## in that case the lineitem will be so tiny, that it won't be rendered
## into a single pixel by the code above
if not has_moved and self.brushSize <= 1 and numpy.count_nonzero(
labels) == 0:
labels[labels.shape[0] // 2,
labels.shape[1] // 2] = self.drawnNumber
self.brushStrokeAvailable.emit(QPointF(self.bb.x(), self.bb.y()),
labels)
def dumpDraw(self, pos):
res = self.endDrawing(pos)
self.beginDrawing(pos, self.sliceRect)
return res
def moveTo(self, pos):
#data coordinates
oldX, oldY = self.pos.x(), self.pos.y()
x, y = pos.x(), pos.y()
line = QGraphicsLineItem(oldX, oldY, x, y)
line.setPen(
QPen(QBrush(Qt.white), self.brushSize, Qt.SolidLine, Qt.RoundCap,
Qt.RoundJoin))
self.scene.addItem(line)
self._hasMoved = True
#update bounding Box
if not self.bb.isValid():
self.bb = QRect(QPoint(oldX, oldY), QSize(1, 1))
#grow bounding box
self.bb.setLeft(min(self.bb.left(), max(0,
x - self.brushSize / 2 - 1)))
self.bb.setRight(
max(self.bb.right(),
min(self.sliceRect[0] - 1, x + self.brushSize / 2 + 1)))
self.bb.setTop(min(self.bb.top(), max(0, y - self.brushSize / 2 - 1)))
self.bb.setBottom(
max(self.bb.bottom(),
min(self.sliceRect[1] - 1, y + self.brushSize / 2 + 1)))
#update/move position
self.pos = pos
def paint(self, painter, option, index):
"""
Draws the widget
Arguments:
painter -- a QPainter
option -- a QStyleOptionView
index -- a QModelIndex
"""
# Retrieve the data
model = index.model()
record = model.data(index)
text = record.toString()
zoteroItem = zoteroCache[unicode(text)]
l = zoteroItem.full_format().split("\n")
if zoteroItem.fulltext == None:
pixmap = self.noPdfPixmap
else:
pixmap = self.pdfPixmap
# Choose the colors
self.palette = self.qnotero.ui.listWidgetResults.palette()
if option.state & QStyle.State_MouseOver:
background = self.palette.Highlight
foreground = self.palette.HighlightedText
_note = zoteroItem.get_note()
if _note != None:
self.qnotero.showNoteHint()
else:
self.qnotero.hideNoteHint()
elif option.state & QStyle.State_Selected:
background = self.palette.Dark
foreground = self.palette.WindowText
else:
background = self.palette.Base
foreground = self.palette.WindowText
# Draw the frame
_rect = option.rect.adjusted(self._margin, self._margin, \
-2*self._margin, -self._margin)
pen = painter.pen()
pen.setColor(self.palette.color(background))
painter.setPen(pen)
painter.setBrush(self.palette.brush(background))
painter.drawRoundedRect(_rect, self.roundness, self.roundness)
font = painter.font
pen = painter.pen()
pen.setColor(self.palette.color(foreground))
painter.setPen(pen)
# Draw icon
_rect = QRect(option.rect)
_rect.moveBottom(_rect.bottom() + 0.5*self.dy)
_rect.moveLeft(_rect.left() + 0.5*self.dy)
_rect.setHeight(self.pixmapSize)
_rect.setWidth(self.pixmapSize)
painter.drawPixmap(_rect, pixmap)
# Draw the text
_rect = option.rect.adjusted(self.pixmapSize+self.dy, 0.5*self.dy, \
-self.dy, 0)
f = [self.tagFont, self.italicFont, self.regularFont, \
self.boldFont]
l.reverse()
while len(l) > 0:
s = l.pop()
if len(f) > 0:
painter.setFont(f.pop())
painter.drawText(_rect, Qt.AlignLeft, s)
_rect = _rect.adjusted(0, self.dy, 0, 0)
def paintInterface(self,painter,option,contentRect):
# define some parameters
padding = contentRect.height()/50
fontSize = contentRect.height()/35
txtFieldWidth = contentRect.width()/2 - 2*padding
txtFieldHeight = contentRect.height()/20
current_img_width = contentRect.height()/3
current_img_height = contentRect.height()/3
whiteBrush10p = QBrush(QColor.fromCmyk(0,0,0,0,5))
whiteBrush20p = QBrush(QColor.fromCmyk(0,0,0,0,40))
fcRectWidth = (contentRect.width() - 4 * padding)/3
fcRectHeight = current_img_height + 2 * padding + 2 * txtFieldHeight
textColor = Plasma.Theme.defaultTheme().color(Plasma.Theme.TextColor)
bgColor = Plasma.Theme.defaultTheme().color(Plasma.Theme.BackgroundColor)
textFont = Plasma.Theme.defaultTheme().font(Plasma.Theme.DefaultFont)
# create text rects
rect_text_location = QRect(contentRect.left() + padding ,contentRect.top() + 2*padding, 2*txtFieldWidth, txtFieldHeight)
rect_text_temperature = QRect(contentRect.left() + padding ,contentRect.top() + 3* padding + 1 * txtFieldHeight , txtFieldWidth, txtFieldHeight)
rect_text_condition = QRect(contentRect.left() + padding ,contentRect.top() + 4* padding + 2 * txtFieldHeight , txtFieldWidth, txtFieldHeight)
rect_text_humidity = QRect(contentRect.left() + padding ,contentRect.top() + 5* padding + 3 * txtFieldHeight , txtFieldWidth, txtFieldHeight)
rect_text_wind = QRect(contentRect.left() + padding , contentRect.top() + 6* padding + 4 * txtFieldHeight , txtFieldWidth, txtFieldHeight)
painter.save()
painter.setPen(textColor)
textFont.setPointSize(fontSize)
painter.setFont(textFont)
painter.drawText(rect_text_location,Qt.Alignment(Qt.AlignLeft),"Location: " + self._weather.location)
painter.drawText(rect_text_temperature,Qt.Alignment(Qt.AlignLeft),"Temperature: " + self._weather.current_temperature)
painter.drawText(rect_text_condition,Qt.Alignment(Qt.AlignLeft),"Condition: " + self._weather.current_condition)
painter.drawText(rect_text_humidity,Qt.Alignment(Qt.AlignLeft),self._weather.current_humidity)
painter.drawText(rect_text_wind,Qt.Alignment(Qt.AlignLeft),self._weather.current_wind)
svg_current = Plasma.Svg(self)
curImgName = self._mapper.getMappedImageName(self._weather.current_condition)
svg_current.setImagePath(self._image_prefix + curImgName)
svg_current.resize(current_img_width,current_img_height)
xOffset = contentRect.width()/2 + contentRect.width()/2 - current_img_width
yOffset = contentRect.top() + txtFieldHeight + 2 * padding
svg_current.paint(painter,contentRect.left() + xOffset, yOffset)
# create forecast blocks
fc_rect1 = QRect(contentRect.left() + padding, contentRect.bottom() - fcRectHeight, fcRectWidth, fcRectHeight)
fc_rect2 = QRect(fc_rect1.right() + padding, contentRect.bottom() - fcRectHeight, fcRectWidth, fcRectHeight)
fc_rect3 = QRect(fc_rect2.right() + padding, contentRect.bottom() - fcRectHeight, fcRectWidth, fcRectHeight)
painter.setPen(bgColor)
painter.setBrush(whiteBrush20p)
painter.drawRect(fc_rect1)
painter.drawRect(fc_rect3)
painter.setBrush(whiteBrush10p)
painter.drawRect(fc_rect2)
# text rects for day list
rect_text_dl1 = QRect(fc_rect1.left(),fc_rect1.top() + padding,fcRectWidth,txtFieldHeight)
rect_text_dl2 = QRect(fc_rect2.left(),fc_rect2.top() + padding,fcRectWidth,txtFieldHeight)
rect_text_dl3 = QRect(fc_rect3.left(),fc_rect3.top() + padding,fcRectWidth,txtFieldHeight)
painter.setPen(textColor)
painter.drawText(rect_text_dl1,Qt.Alignment(Qt.AlignCenter),self._weather.fc_dl[0])
painter.drawText(rect_text_dl2,Qt.Alignment(Qt.AlignCenter),self._weather.fc_dl[1])
painter.drawText(rect_text_dl3,Qt.Alignment(Qt.AlignCenter),self._weather.fc_dl[2])
fc_svg1 = Plasma.Svg()
fc_svg2 = Plasma.Svg()
fc_svg3 = Plasma.Svg()
fc_svg1.setImagePath(self._image_prefix + self._mapper.getMappedImageName(self._weather.fc_conditions[0]))
fc_svg2.setImagePath(self._image_prefix + self._mapper.getMappedImageName(self._weather.fc_conditions[1]))
fc_svg3.setImagePath(self._image_prefix + self._mapper.getMappedImageName(self._weather.fc_conditions[2]))
fc_svg1.resize(current_img_width,current_img_height)
fc_svg2.resize(current_img_width,current_img_height)
fc_svg3.resize(current_img_width,current_img_height)
xOffSet = fc_rect1.left() + (fc_rect1.width() - current_img_width)/2
fc_svg1.paint(painter,xOffSet, fc_rect1.top() + txtFieldHeight + 2* padding)
xOffSet = fc_rect2.left() + (fc_rect2.width() - current_img_width)/2
fc_svg2.paint(painter,xOffSet, fc_rect2.top() + txtFieldHeight + 2* padding)
xOffSet = fc_rect3.left() + (fc_rect3.width() - current_img_width)/2
fc_svg3.paint(painter,xOffSet, fc_rect3.top() + txtFieldHeight + 2* padding)
# text rects for high/low temperatures
rect_text_temp1 = QRect(fc_rect1.left(),fc_rect1.bottom() - 3 * padding,fcRectWidth,txtFieldHeight)
rect_text_temp2 = QRect(fc_rect2.left(),fc_rect2.bottom() - 3 * padding,fcRectWidth,txtFieldHeight)
rect_text_temp3 = QRect(fc_rect3.left(),fc_rect3.bottom() - 3 * padding,fcRectWidth,txtFieldHeight)
painter.setPen(textColor)
painter.drawText(rect_text_temp1,Qt.Alignment(Qt.AlignCenter),self._weather.fc_low_high[0])
painter.drawText(rect_text_temp2,Qt.Alignment(Qt.AlignCenter),self._weather.fc_low_high[1])
painter.drawText(rect_text_temp3,Qt.Alignment(Qt.AlignCenter),self._weather.fc_low_high[2])
painter.restore()
class ExtractRasterValue(ParentMapTool):
""" Button 18. User select nodes and assign raster elevation or value """
def __init__(self, iface, settings, action, index_action):
""" Class constructor """
# Call ParentMapTool constructor
super(ExtractRasterValue, self).__init__(iface, settings, action, index_action)
self.dragging = False
# Vertex marker
self.vertexMarker = QgsVertexMarker(self.canvas)
self.vertexMarker.setColor(QColor(255, 25, 25))
self.vertexMarker.setIconSize(11)
self.vertexMarker.setIconType(QgsVertexMarker.ICON_BOX) # or ICON_CROSS, ICON_X
self.vertexMarker.setPenWidth(5)
# Rubber band
self.rubberBand = QgsRubberBand(self.canvas, True)
mFillColor = QColor(100, 0, 0)
self.rubberBand.setColor(mFillColor)
self.rubberBand.setWidth(3)
mBorderColor = QColor(254, 58, 29)
self.rubberBand.setBorderColor(mBorderColor)
# Select rectangle
self.selectRect = QRect()
# Init
self.vectorLayer = None
self.rasterLayer = None
def reset(self):
""" Clear selected features """
layer = self.vectorLayer
if layer is not None:
layer.removeSelection()
# Graphic elements
self.rubberBand.reset()
def set_config_action(self, action_99):
""" Get the config form action"""
self.configAction = action_99
""" QgsMapTools inherited event functions """
def canvasMoveEvent(self, event):
""" With left click the digitizing is finished """
if self.vectorLayer is None:
return
if event.buttons() == Qt.LeftButton:
if not self.dragging:
self.dragging = True
self.selectRect.setTopLeft(event.pos())
self.selectRect.setBottomRight(event.pos())
self.set_rubber_band()
else:
# Hide highlight
self.vertexMarker.hide()
# Get the click
x = event.pos().x()
y = event.pos().y()
eventPoint = QPoint(x, y)
# Snapping
(retval, result) = self.snapper.snapToBackgroundLayers(eventPoint) # @UnusedVariable
# That's the snapped point
if result <> []:
# Check Arc or Node
for snapPoint in result:
if snapPoint.layer == self.vectorLayer:
# Get the point
point = QgsPoint(result[0].snappedVertex)
# Add marker
self.vertexMarker.setCenter(point)
self.vertexMarker.show()
break
def canvasPressEvent(self, event):
self.selectRect.setRect(0, 0, 0, 0)
self.rubberBand.reset()
def canvasReleaseEvent(self, event):
""" With left click the digitizing is finished """
if event.button() == Qt.LeftButton:
# Get the click
x = event.pos().x()
y = event.pos().y()
eventPoint = QPoint(x, y)
# Node layer
layer = self.vectorLayer
# Not dragging, just simple selection
if not self.dragging:
# Snap to node
(retval, result) = self.snapper.snapToBackgroundLayers(eventPoint) # @UnusedVariable
# That's the snapped point
if result <> [] and (result[0].layer.name() == self.vectorLayer.name()):
point = QgsPoint(result[0].snappedVertex) # @UnusedVariable
layer.removeSelection()
layer.select([result[0].snappedAtGeometry])
# Interpolate values
self.raster_interpolate()
# Hide highlight
self.vertexMarker.hide()
else:
# Set valid values for rectangle's width and height
if self.selectRect.width() == 1:
self.selectRect.setLeft(self.selectRect.left() + 1)
if self.selectRect.height() == 1:
self.selectRect.setBottom(self.selectRect.bottom() + 1)
self.set_rubber_band()
selectGeom = self.rubberBand.asGeometry() # @UnusedVariable
self.select_multiple_features(self.selectRectMapCoord)
self.dragging = False
# Interpolate values
self.raster_interpolate()
elif event.button() == Qt.RightButton:
# Interpolate values
self.raster_interpolate()
def activate(self):
# Check button
self.action().setChecked(True)
# Rubber band
self.rubberBand.reset()
# Store user snapping configuration
self.snapperManager.storeSnappingOptions()
# Clear snapping
self.snapperManager.clearSnapping()
# Get layers
res = self.find_raster_layers()
# if res == 0:
# self.controller.show_warning("Raster configuration tool not properly configured.")
# return
# Change cursor
self.canvas.setCursor(self.cursor)
# Show help message when action is activated
if self.show_help:
message = (
"Right click to use current selection, select connec points by clicking or dragging (selection box)"
)
self.controller.show_info(message, context_name="ui_message")
# Control current layer (due to QGIS bug in snapping system)
try:
if self.canvas.currentLayer().type() == QgsMapLayer.VectorLayer:
self.canvas.setCurrentLayer(self.layer_arc)
except:
self.canvas.setCurrentLayer(self.layer_arc)
def deactivate(self):
# Check button
self.action().setChecked(False)
# Rubber band
self.rubberBand.reset()
# Restore previous snapping
self.snapperManager.recoverSnappingOptions()
# Recover cursor
self.canvas.setCursor(self.stdCursor)
def nearestNeighbor(self, thePoint):
ident = self.dataProv.identify(thePoint, QgsRaster.IdentifyFormatValue)
value = None
if ident is not None: # and ident.has_key(choosenBand+1):
try:
value = float(ident.results()[int(self.band)])
except TypeError:
value = None
if value == self.noDataValue:
return None
return value
def writeInterpolation(self, f, fieldIdx):
thePoint = f.geometry().asPoint()
value = self.nearestNeighbor(thePoint)
self.vectorLayer.changeAttributeValue(f.id(), fieldIdx, value)
def raster_interpolate(self):
""" Interpolate features value from raster """
# Interpolate values
if self.vectorLayer is None and self.rasterLayer is None:
return
# Get data provider
layer = self.vectorLayer
self.dataProv = self.rasterLayer.dataProvider()
if self.dataProv.srcNoDataValue(int(self.band)):
self.noDataValue = self.dataProv.srcNoDataValue(int(self.band))
else:
self.noDataValue = None
self.continueProcess = True
self.fieldIdx = ""
self.fieldIdx = layer.fieldNameIndex(self.fieldName)
if self.band == 0:
self.controller.show_warning("You must choose a band for the raster layer.")
return
if self.fieldName == "":
self.controller.show_warning("You must choose a field to write values.")
return
if self.fieldIdx < 0:
self.controller.show_warning("Selected field does not exist in feature layer.")
return
k = 0
c = 0
f = QgsFeature()
# Check features selected
if layer.selectedFeatureCount() == 0:
message = "You have to select at least one feature!"
self.controller.show_warning(message, context_name="ui_message")
return
# Check editable
if not layer.isEditable():
layer.startEditing()
# Get selected id's
ids = self.vectorLayer.selectedFeaturesIds()
for fid in ids:
k += 1
layer.getFeatures(QgsFeatureRequest(fid)).nextFeature(f)
c += 1
self.writeInterpolation(f, self.fieldIdx)
QCoreApplication.processEvents()
self.controller.show_info(
"%u values have been updated in layer %s.%s over %u points using %s raster"
% (c, self.vectorLayer.name(), self.fieldName, k, self.table_raster)
)
# Check editable
if layer.isEditable():
layer.commitChanges()
# Refresh map canvas
self.rubberBand.reset()
self.iface.mapCanvas().refresh()
def set_rubber_band(self):
# Coordinates transform
transform = self.canvas.getCoordinateTransform()
# Coordinates
ll = transform.toMapCoordinates(self.selectRect.left(), self.selectRect.bottom())
lr = transform.toMapCoordinates(self.selectRect.right(), self.selectRect.bottom())
ul = transform.toMapCoordinates(self.selectRect.left(), self.selectRect.top())
ur = transform.toMapCoordinates(self.selectRect.right(), self.selectRect.top())
# Rubber band
self.rubberBand.reset()
self.rubberBand.addPoint(ll, False)
self.rubberBand.addPoint(lr, False)
self.rubberBand.addPoint(ur, False)
self.rubberBand.addPoint(ul, False)
self.rubberBand.addPoint(ll, True)
self.selectRectMapCoord = QgsRectangle(ll, ur)
def select_multiple_features(self, selectGeometry):
# Default choice
behaviour = QgsVectorLayer.SetSelection
# Modifiers
modifiers = QApplication.keyboardModifiers()
if modifiers == Qt.ControlModifier:
behaviour = QgsVectorLayer.AddToSelection
elif modifiers == Qt.ShiftModifier:
behaviour = QgsVectorLayer.RemoveFromSelection
if self.vectorLayer is None:
return
# Change cursor
QApplication.setOverrideCursor(Qt.WaitCursor)
# Selection
self.vectorLayer.selectByRect(selectGeometry, behaviour)
# Old cursor
QApplication.restoreOverrideCursor()
def find_raster_layers(self):
# Query database (form data)
sql = "SELECT *"
sql += " FROM " + self.schema_name + ".config_extract_raster_value"
rows = self.controller.get_rows(sql)
if not rows:
self.controller.show_warning("Any data found in table config_extract_raster_value")
self.configAction.activate(QAction.Trigger)
return 0
# Layers
row = rows[0]
self.table_raster = row[1]
self.band = row[2]
self.table_vector = row[3]
self.fieldName = row[4]
# Check if we have any layer loaded
layers = self.iface.legendInterface().layers()
if len(layers) == 0:
return
# Init layers
self.rasterLayer = None
self.vectorLayer = None
# Iterate over all layers to get the ones specified in 'db' config section
for cur_layer in layers:
if cur_layer.name() == self.table_raster:
self.rasterLayer = cur_layer
(uri_schema, uri_table) = self.controller.get_layer_source(cur_layer) # @UnusedVariable
if uri_table is not None:
if self.table_vector in uri_table:
self.vectorLayer = cur_layer
# Check config
if self.vectorLayer is None or self.rasterLayer is None:
self.configAction.activate(QAction.Trigger)
# Set snapping
if self.vectorLayer <> None:
self.snapperManager.snapToLayer(self.vectorLayer)
else:
self.controller.show_warning("Check vector_layer in config form, layer does not exist or is not defined.")
return 0
if self.rasterLayer == None:
self.controller.show_warning("Check raster_layer in config form, layer does not exist or is not defined.")
return 0
return 1
def paint(self, painter, option, index):
"""
Draws the widget
Arguments:
painter -- a QPainter
option -- a QStyleOptionView
index -- a QModelIndex
"""
# Retrieve the data
model = index.model()
record = model.data(index)
text = record.toString()
zoteroItem = zoteroCache[unicode(text)]
l = zoteroItem.full_format().split(u"\n")
if zoteroItem.fulltext == None:
pixmap = self.noPdfPixmap
else:
pixmap = self.pdfPixmap
# Choose the colors
self.palette = self.qnotero.ui.listWidgetResults.palette()
if option.state & QStyle.State_MouseOver:
background = self.palette.Highlight
foreground = self.palette.HighlightedText
_note = zoteroItem.get_note()
if _note != None:
self.qnotero.showNoteHint()
else:
self.qnotero.hideNoteHint()
elif option.state & QStyle.State_Selected:
background = self.palette.Dark
foreground = self.palette.WindowText
else:
background = self.palette.Base
foreground = self.palette.WindowText
# Draw the frame
_rect = option.rect.adjusted(self._margin, self._margin, \
-2*self._margin, -self._margin)
pen = painter.pen()
pen.setColor(self.palette.color(background))
painter.setPen(pen)
painter.setBrush(self.palette.brush(background))
painter.drawRoundedRect(_rect, self.roundness, self.roundness)
font = painter.font
pen = painter.pen()
pen.setColor(self.palette.color(foreground))
painter.setPen(pen)
# Draw icon
_rect = QRect(option.rect)
_rect.moveBottom(_rect.bottom() + 0.5 * self.dy)
_rect.moveLeft(_rect.left() + 0.5 * self.dy)
_rect.setHeight(self.pixmapSize)
_rect.setWidth(self.pixmapSize)
painter.drawPixmap(_rect, pixmap)
# Draw the text
_rect = option.rect.adjusted(self.pixmapSize+self.dy, 0.5*self.dy, \
-self.dy, 0)
f = [self.tagFont, self.italicFont, self.regularFont, \
self.boldFont]
l.reverse()
while len(l) > 0:
s = l.pop()
if len(f) > 0:
painter.setFont(f.pop())
painter.drawText(_rect, Qt.AlignLeft, s)
_rect = _rect.adjusted(0, self.dy, 0, 0)
def paintHorizontalCell(self, painter: QPainter, hv: QHeaderView, cellIndex: QModelIndex, leafIndex: QModelIndex, logicalLeafIndex: int, styleOptions: QStyleOptionHeader, sectionRect: QRect, top: int):
uniopt = QStyleOptionHeader(styleOptions)
self.setForegroundBrush(uniopt, cellIndex)
self.setBackgroundBrush(uniopt, cellIndex)
height=self.cellSize(cellIndex, hv, uniopt).height()
if cellIndex==leafIndex:
height=sectionRect.height()-top
left=self.currentCellLeft(cellIndex, leafIndex, logicalLeafIndex, sectionRect.left(), hv)
width=self.currentCellWidth(cellIndex, leafIndex, logicalLeafIndex, hv)
r = QRect(left, top, width, height)
uniopt.text = cellIndex.data(Qt.DisplayRole)
painter.save()
uniopt.rect = r
if cellIndex.data(Qt.UserRole):
hv.style().drawControl(QStyle.CE_HeaderSection, uniopt, painter, hv)
m = QMatrix()
m.rotate(-90)
painter.setWorldMatrix(m, True)
new_r = QRect(0, 0, r.height(), r.width())
new_r.moveCenter(QPoint(-r.center().y(), r.center().x()))
uniopt.rect = new_r
hv.style().drawControl(QStyle.CE_HeaderLabel, uniopt, painter, hv)
else:
hv.style().drawControl(QStyle.CE_Header, uniopt, painter, hv)
painter.restore()
return top+height
def paintHorizontalSection(self, painter: QPainter, sectionRect: QRect,
logicalLeafIndex: int, hv: QHeaderView,
styleOptions: QStyleOptionHeader, leafIndex: QModelIndex):
# print(logicalLeafIndex)
oldBO = painter.brushOrigin()
top = sectionRect.y()
indexes = QModelIndexList(self.parentIndexes(leafIndex))
for i in range(indexes.size()):
realStyleOptions = QStyleOptionHeader(styleOptions)
if i<indexes.size()-1 and (realStyleOptions.state&QStyle.State_Sunken or realStyleOptions.state&QStyle.State_On):
t = QStyle.State(QStyle.State_Sunken | QStyle.State_On)
realStyleOptions.state = realStyleOptions.state&~t #FIXME: parent items are not highlighted
if i<indexes.size()-1: #Use sortIndicator for inner level only
realStyleOptions.sortIndicator = False
# if i==0:
# print(self.leafs(indexes[i]), leafIndex)
top=self.paintHorizontalCell(painter, hv, indexes[i], leafIndex, logicalLeafIndex, realStyleOptions, sectionRect, top)
painter.setBrushOrigin(oldBO)
def paintVerticalCell(self, painter: QPainter, hv: QHeaderView, cellIndex: QModelIndex, leafIndex: QModelIndex, logicalLeafIndex: int, styleOptions: QStyleOptionHeader, sectionRect: QRect, left: int):
uniopt = QStyleOptionHeader(styleOptions)
self.setForegroundBrush(uniopt, cellIndex)
self.setBackgroundBrush(uniopt, cellIndex)
width=self.cellSize(cellIndex, hv, uniopt).width()
if cellIndex==leafIndex:
width=sectionRect.width()-left
top=self.currentCellLeft(cellIndex, leafIndex, logicalLeafIndex, sectionRect.top(), hv)
height=self.currentCellWidth(cellIndex, leafIndex, logicalLeafIndex, hv)
r = QRect(left, top, width, height)
uniopt.text = cellIndex.data(Qt.DisplayRole)
painter.save()
uniopt.rect = r
if cellIndex.data(Qt.UserRole):
hv.style().drawControl(QStyle.CE_HeaderSection, uniopt, painter, hv)
m = QMatrix()
m.rotate(-90)
painter.setWorldMatrix(m, True)
new_r = QRect(0, 0, r.height(), r.width())
new_r.moveCenter(QPoint(-r.center().y(), r.center().x()))
uniopt.rect = new_r
hv.style().drawControl(QStyle.CE_HeaderLabel, uniopt, painter, hv)
else:
hv.style().drawControl(QStyle.CE_Header, uniopt, painter, hv)
painter.restore()
return left+width
def paintVerticalSection(self, painter: QPainter, sectionRect: QRect, logicalLeafIndex: int, hv: QHeaderView, styleOptions: QStyleOptionHeader, leafIndex: QModelIndex):
oldBO = painter.brushOrigin()
left = sectionRect.x()
indexes = QModelIndexList(self.parentIndexes(leafIndex))
for i in range(indexes.size()):
realStyleOptions = QStyleOptionHeader(styleOptions)
if i<indexes.size()-1 and (realStyleOptions.state&QStyle.State_Sunken or realStyleOptions.state&QStyle.State_On):
t = QStyle.State(QStyle.State_Sunken | QStyle.State_On)
realStyleOptions.state = realStyleOptions.state&~t #FIXME: parent items are not highlighted
left=self.paintVerticalCell(painter, hv, indexes[i], leafIndex, logicalLeafIndex, realStyleOptions, sectionRect, left)
painter.setBrushOrigin(oldBO)
def __init__(self, orientation: Qt.Orientation, parent: QWidget):
super().__init__(orientation, parent)
self._pd = self.private_data()
self.sectionResized.connect(self.on_sectionResized)
self.setHighlightSections(self.options.get("highlightSections"))
self.setClickable(self.options.get("clickable"))
self.show() #force to be visible
getattr(parent, "set%sHeader"%("Horizontal", "Vertical")[orientation!=Qt.Horizontal])(self)
self.sectionMoved.connect(self.on_sectionMoved)
def on_sectionMoved(self, logicalIndex, oldVisualIndex, newVisualIndex):
view, model = self.parent(), self.parent().model()
if not hasattr(model, "reorder"):
return #reorder underlying data of models with /reorder/ def only
if getattr(self, "manual_move", False):
self.manual_move=False
return
self.manual_move=True
self.moveSection(newVisualIndex, oldVisualIndex) #cancel move
if model.reorder(oldVisualIndex, newVisualIndex, self.orientation()):
#Reorder column widths / row heights
horizontal = self.orientation()==Qt.Horizontal
itemSize = (view.rowHeight, view.columnWidth)[horizontal]
setItemSize = (view.setRowHeight, view.setColumnWidth)[horizontal]
rng = sorted((oldVisualIndex, newVisualIndex))
options = [(itemSize(i), i) for i in range(rng[0], rng[1]+1)]
options.insert(newVisualIndex-rng[0], options.pop(oldVisualIndex-rng[0]))
for i, col in enumerate(range(rng[0], rng[1]+1)):
setItemSize(col, options[i][0])
getattr(view, "select"+("Row", "Column")[horizontal])(newVisualIndex) #FIXME: don't select if sorting is enable?
if self.isSortIndicatorShown():
sortIndIndex = next((i for i, o in enumerate(options) if o[1]==self.sortIndicatorSection()), None)
if sortIndIndex is not None: #sort indicator is among sections being reordered
self.setSortIndicator(sortIndIndex+rng[0], self.sortIndicatorOrder()) #FIXME: does unnecessary sorting
model.layoutChanged.emit() #update view
def styleOptionForCell(self, logicalInd: int)->QStyleOptionHeader:
opt = QStyleOptionHeader()
self.initStyleOption(opt)
if self.isSortIndicatorShown() and self.sortIndicatorSection()==logicalInd:
opt.sortIndicator = (QStyleOptionHeader.SortUp, QStyleOptionHeader.SortDown)[self.sortIndicatorOrder()==Qt.AscendingOrder]
if self.window().isActiveWindow():
opt.state = opt.state|QStyle.State_Active
opt.textAlignment = Qt.AlignCenter
opt.iconAlignment = Qt.AlignVCenter
opt.section = logicalInd
visual = self.visualIndex(logicalInd)
if self.count() == 1:
opt.position = QStyleOptionHeader.OnlyOneSection
else:
if visual == 0:
opt.position = QStyleOptionHeader.Beginning
else:
opt.position = QStyleOptionHeader.End if visual==self.count()-1 else QStyleOptionHeader.Middle
if self.isClickable():
# if logicalIndex == d.hover:
# ...
if self.highlightSections() and self.selectionModel():
if self.orientation()==Qt.Horizontal:
if self.selectionModel().columnIntersectsSelection(logicalInd, self.rootIndex()):
opt.state = opt.state|QStyle.State_On
if self.selectionModel().isColumnSelected(logicalInd, self.rootIndex()):
opt.state = opt.state|QStyle.State_Sunken
else:
if self.selectionModel().rowIntersectsSelection(logicalInd, self.rootIndex()):
opt.state = opt.state|QStyle.State_On
if self.selectionModel().isRowSelected(logicalInd, self.rootIndex()):
opt.state = opt.state|QStyle.State_Sunken
if self.selectionModel():
previousSelected=False
if self.orientation()==Qt.Horizontal:
previousSelected = self.selectionModel().isColumnSelected(self.logicalIndex(visual - 1), self.rootIndex())
else:
previousSelected = self.selectionModel().isRowSelected(self.logicalIndex(visual - 1), self.rootIndex())
nextSelected=False
if self.orientation()==Qt.Horizontal:
nextSelected = self.selectionModel().isColumnSelected(self.logicalIndex(visual + 1), self.rootIndex())
else:
nextSelected = self.selectionModel().isRowSelected(self.logicalIndex(visual + 1), self.rootIndex())
if previousSelected and nextSelected:
opt.selectedPosition = QStyleOptionHeader.NextAndPreviousAreSelected
else:
if previousSelected:
opt.selectedPosition = QStyleOptionHeader.PreviousIsSelected
else:
if nextSelected:
opt.selectedPosition = QStyleOptionHeader.NextIsSelected
else:
opt.selectedPosition = QStyleOptionHeader.NotAdjacent
return opt
def sectionSizeFromContents(self, logicalIndex: int)->QSize:
if self._pd.headerModel:
curLeafIndex = QModelIndex(self._pd.leafIndex(logicalIndex))
if curLeafIndex.isValid():
styleOption = QStyleOptionHeader(self.styleOptionForCell(logicalIndex))
s = QSize(self._pd.cellSize(curLeafIndex, self, styleOption))
curLeafIndex=curLeafIndex.parent()
while curLeafIndex.isValid():
if self.orientation() == Qt.Horizontal:
s.setHeight(s.height()+self._pd.cellSize(curLeafIndex, self, styleOption).height())
else:
s.setWidth(s.width()+self._pd.cellSize(curLeafIndex, self, styleOption).width())
curLeafIndex=curLeafIndex.parent()
return s
return super().sectionSizeFromContents(logicalIndex)
def paintSection(self, painter: QPainter, rect: QRect, logicalIndex: int):
if rect.isValid():
leafIndex = QModelIndex(self._pd.leafIndex(logicalIndex))
if leafIndex.isValid():
if self.orientation() == Qt.Horizontal:
self._pd.paintHorizontalSection(painter, rect, logicalIndex, self, self.styleOptionForCell(logicalIndex), leafIndex)
else:
self._pd.paintVerticalSection(painter, rect, logicalIndex, self, self.styleOptionForCell(logicalIndex), leafIndex)
return
super().paintSection(painter, rect, logicalIndex)
def on_sectionResized(self, logicalIndex: int):
if self.isSectionHidden(logicalIndex):
return
leafIndex = QModelIndex(self._pd.leafIndex(logicalIndex))
if leafIndex.isValid():
leafsList = QModelIndexList(self._pd.leafs(self._pd.findRootIndex(leafIndex)))
for n in range(leafsList.indexOf(leafIndex), 0, -1):
logicalIndex-=1
w = self.viewport().width()
h = self.viewport().height()
pos = self.sectionViewportPosition(logicalIndex)
r = QRect(pos, 0, w - pos, h)
if self.orientation() == Qt.Horizontal:
if self.isRightToLeft():
r.setRect(0, 0, pos + self.sectionSize(logicalIndex), h)
else:
r.setRect(0, pos, w, h - pos)
self.viewport().update(r.normalized())
def setModel(self, model):
super().setModel(model)
model.layoutChanged.connect(self.layoutChanged)
self.layoutChanged()
def layoutChanged(self):
if self.model():
self._pd.initFromNewModel(self.orientation(), self.model())
axis = ("column", "row")[self.orientation()!=Qt.Horizontal]
cnt = getattr(self.model(), axis+"Count")(QModelIndex())
if cnt:
self.initializeSections(0, cnt-1)
MultiIndexHeaderView=HierarchicalHeaderView
class DataFrameModel(QtCore.QAbstractTableModel):
#na_values:least|greatest - for sorting
options = {"striped": True, "stripesColor": "#fafafa", "na_values": "least",
"tooltip_min_len": 21}
def __init__(self, dataframe=None):
super().__init__()
self.setDataFrame(dataframe if dataframe is not None else pd.DataFrame())
def setDataFrame(self, dataframe):
self.df = dataframe.copy()
# self.df_full = self.df
self.layoutChanged.emit()
def rowCount(self, parent):
return len(self.df)
def columnCount(self, parent):
return len(self.df.columns)
def readLevel(self, y=0, xs=0, xe=None, orient=None):
c = getattr(self.df, ("columns", "index")[orient!=HorizontalHeaderDataRole])
if not hasattr(c, "levels"): #not MultiIndex
return [QtGui.QStandardItem(str(i)) for i in c]
sibl = []
section_start, v, xe = xs, None, xe or len(c)
for i in range(xs, xe):
label = c.labels[y][i]
if label!=v:
if y+1<len(c.levels) and i>xs:
children = self.readLevel(y+1, section_start, i, orient=orient)
sibl[-1].appendRow(children)
item = QtGui.QStandardItem(str(c.levels[y][label]))
sibl.append(item)
section_start = i
v=label
if y+1<len(c.levels):
children = self.readLevel(y+1, section_start, orient=orient)
sibl[-1].appendRow(children)
return sibl
def data(self, index, role):
row, col = index.row(), index.column()
if role in (Qt.DisplayRole, Qt.ToolTipRole):
ret = self.df.iat[row, col]
if ret is not None and ret==ret: #convert to str except for None, NaN, NaT
if isinstance(ret, float):
ret = "{:n}".format(ret)
elif isinstance(ret, datetime.date):
#FIXME: show microseconds optionally
ret = ret.strftime(("%x", "%c")[isinstance(ret, datetime.datetime)])
else: ret = str(ret)
if role == Qt.ToolTipRole:
if len(ret)<self.options["tooltip_min_len"]: ret = ""
return ret
elif role == Qt.BackgroundRole:
if self.options["striped"] and row%2:
return QBrush(QColor(self.options["stripesColor"]))
elif role in (HorizontalHeaderDataRole, VerticalHeaderDataRole):
hm = QtGui.QStandardItemModel()
hm.appendRow(self.readLevel(orient=role))
return hm
def reorder(self, oldIndex, newIndex, orientation):
"Reorder columns / rows"
horizontal = orientation==Qt.Horizontal
cols = list(self.df.columns if horizontal else self.df.index)
cols.insert(newIndex, cols.pop(oldIndex))
self.df = self.df[cols] if horizontal else self.df.T[cols].T
return True
# def filter(self, filt=None):
# self.df = self.df_full if filt is None else self.df[filt]
# self.layoutChanged.emit()
def headerData(self, section, orientation, role):
if role != Qt.DisplayRole: return
label = getattr(self.df, ("columns", "index")[orientation!=Qt.Horizontal])[section]
# return label if type(label) is tuple else label
return ("\n", " | ")[orientation!=Qt.Horizontal].join(str(i) for i in label) if type(label) is tuple else str(label)
def dataFrame(self):
return self.df
def sort(self, column, order):
# print("sort", column, order) #FIXME: double sort after setSortingEnabled(True)
if len(self.df):
asc = order==Qt.AscendingOrder
na_pos = 'first' if (self.options["na_values"]=="least")==asc else 'last'
self.df.sort_values(self.df.columns[column], ascending=asc,
inplace=True, na_position=na_pos)
self.layoutChanged.emit()
if __name__=="__main__":
import sys, locale
locale.setlocale(locale.LC_ALL, '') #system locale settings
app = QtGui.QApplication(sys.argv)
form = QtGui.QWidget()
form.setAttribute(Qt.WA_DeleteOnClose) #http://stackoverflow.com/a/27178019/1119602
form.setMinimumSize(700, 260)
view = QtGui.QTableView()
QtGui.QVBoxLayout(form).addWidget(view)
form.show()
#Prepare data
tuples=[('bar', 'one', 'q'), ('bar', 'two', 'q'), ('baz', 'one', 'q'), ('baz', 'two', 'q'),
('foo', 'one', 'q'), ('foo', 'two', 'q'), ('qux', 'one', 'q'), ('qux', 'two', 'q')]
index = pd.MultiIndex.from_tuples(tuples, names=['first', 'second', 'third'])
df=pd.DataFrame(pd.np.random.randn(6, 6), index=index[:6], columns=index[:6])
print("DataFrame:\n%s"%df)
#Prepare view
# oldh, oldv = view.horizontalHeader(), view.verticalHeader()
# oldh.setParent(form), oldv.setParent(form) #Save old headers for some reason
MultiIndexHeaderView(Qt.Horizontal, view)
MultiIndexHeaderView(Qt.Vertical, view)
view.horizontalHeader().setMovable(True) #reorder DataFrame columns manually
#Set data
view.setModel(DataFrameModel(df))
view.resizeColumnsToContents()
view.resizeRowsToContents()
#Set sorting enabled (after setting model)
view.setSortingEnabled(True)
sys.exit(app.exec())
class BrushingModel(QObject):
brushSizeChanged = pyqtSignal(int)
brushColorChanged = pyqtSignal(QColor)
brushStrokeAvailable = pyqtSignal(QPointF, object)
drawnNumberChanged = pyqtSignal(int)
minBrushSize = 1
maxBrushSize = 61
defaultBrushSize = 3
defaultDrawnNumber = 1
defaultColor = Qt.white
erasingColor = Qt.black
erasingNumber = 100
def __init__(self, parent=None):
QObject.__init__(self, parent=parent)
self.sliceRect = None
self.bb = QRect() #bounding box enclosing the drawing
self.brushSize = self.defaultBrushSize
self.drawColor = self.defaultColor
self._temp_color = None
self._temp_number = None
self.drawnNumber = self.defaultDrawnNumber
self.pos = None
self.erasing = False
self._hasMoved = False
self.drawOnto = None
#an empty scene, where we add all drawn line segments
#a QGraphicsLineItem, and which we can use to then
#render to an image
self.scene = QGraphicsScene()
def toggleErase(self):
self.erasing = not (self.erasing)
if self.erasing:
self.setErasing()
else:
self.disableErasing()
def setErasing(self):
self.erasing = True
self._temp_color = self.drawColor
self._temp_number = self.drawnNumber
self.setBrushColor(self.erasingColor)
self.brushColorChanged.emit(self.erasingColor)
self.setDrawnNumber(self.erasingNumber)
def disableErasing(self):
self.erasing = False
self.setBrushColor(self._temp_color)
self.brushColorChanged.emit(self.drawColor)
self.setDrawnNumber(self._temp_number)
def setBrushSize(self, size):
self.brushSize = size
self.brushSizeChanged.emit(self.brushSize)
def setDrawnNumber(self, num):
self.drawnNumber = num
self.drawnNumberChanged.emit(num)
def getBrushSize(self):
return self.brushSize
def brushSmaller(self):
b = self.brushSize
if b > self.minBrushSize:
self.setBrushSize(b - 1)
def brushBigger(self):
b = self.brushSize
if self.brushSize < self.maxBrushSize:
self.setBrushSize(b + 1)
def setBrushColor(self, color):
self.drawColor = color
self.brushColorChanged.emit(self.drawColor)
def beginDrawing(self, pos, sliceRect):
'''
pos -- QPointF-like
'''
self.sliceRect = sliceRect
self.scene.clear()
self.bb = QRect()
self.pos = QPointF(pos.x(), pos.y())
self._hasMoved = False
def endDrawing(self, pos):
has_moved = self._hasMoved # _hasMoved will change after calling moveTo
if has_moved:
self.moveTo(pos)
else:
assert (self.pos == pos)
self.moveTo(QPointF(pos.x() + 0.0001,
pos.y() + 0.0001)) # move a little
# Qt seems to use strange rules for determining which pixels to set when rendering a brush stroke to a QImage.
# We seem to get better results if we do the following:
# 1) Slightly offset the source window because apparently there is a small shift in the data
# 2) Render the scene to an image that is MUCH larger than the scene resolution (4x by 4x)
# 3) Downsample each 4x4 patch from the large image back to a single pixel in the final image,
# applying some threshold to determine if the final pixel is on or off.
tempi = QImage(QSize(4 * self.bb.width(), 4 * self.bb.height()),
QImage.Format_ARGB32_Premultiplied) #TODO: format
tempi.fill(0)
painter = QPainter(tempi)
# Offset the source window. At first I thought the right offset was 0.5, because
# that would seem to make sure points are rounded to pixel CENTERS, but
# experimentation indicates that 0.25 is slightly better for some reason...
source_rect = QRectF(QPointF(self.bb.x() + 0.25,
self.bb.y() + 0.25),
QSizeF(self.bb.width(), self.bb.height()))
target_rect = QRectF(QPointF(0, 0),
QSizeF(4 * self.bb.width(), 4 * self.bb.height()))
self.scene.render(painter, target=target_rect, source=source_rect)
painter.end()
# Now downsample: convert each 4x4 patch into a single pixel by summing and dividing
ndarr = qimage2ndarray.rgb_view(tempi)[:, :, 0].astype(int)
ndarr = ndarr.reshape((ndarr.shape[0], ) + (ndarr.shape[1] // 4, ) +
(4, ))
ndarr = ndarr.sum(axis=-1)
ndarr = ndarr.transpose()
ndarr = ndarr.reshape((ndarr.shape[0], ) + (ndarr.shape[1] // 4, ) +
(4, ))
ndarr = ndarr.sum(axis=-1)
ndarr = ndarr.transpose()
ndarr //= 4 * 4
downsample_threshold = (7. / 16) * 255
labels = numpy.where(ndarr >= downsample_threshold,
numpy.uint8(self.drawnNumber), numpy.uint8(0))
labels = labels.swapaxes(0, 1)
assert labels.shape[0] == self.bb.width()
assert labels.shape[1] == self.bb.height()
##
## ensure that at least one pixel is label when the brush size is 1
##
## this happens when the user just clicked without moving
## in that case the lineitem will be so tiny, that it won't be rendered
## into a single pixel by the code above
if not has_moved and self.brushSize <= 1 and numpy.count_nonzero(
labels) == 0:
labels[labels.shape[0] // 2,
labels.shape[1] // 2] = self.drawnNumber
self.brushStrokeAvailable.emit(QPointF(self.bb.x(), self.bb.y()),
labels)
def dumpDraw(self, pos):
res = self.endDrawing(pos)
self.beginDrawing(pos, self.sliceRect)
return res
def moveTo(self, pos):
#data coordinates
oldX, oldY = self.pos.x(), self.pos.y()
x, y = pos.x(), pos.y()
line = QGraphicsLineItem(oldX, oldY, x, y)
line.setPen(
QPen(QBrush(Qt.white), self.brushSize, Qt.SolidLine, Qt.RoundCap,
Qt.RoundJoin))
self.scene.addItem(line)
self._hasMoved = True
#update bounding Box
if not self.bb.isValid():
self.bb = QRect(QPoint(oldX, oldY), QSize(1, 1))
#grow bounding box
self.bb.setLeft(
min(self.bb.left(), max(0, x - self.brushSize // 2 - 1)))
self.bb.setRight(
max(self.bb.right(),
min(self.sliceRect[0] - 1, x + self.brushSize // 2 + 1)))
self.bb.setTop(min(self.bb.top(), max(0, y - self.brushSize // 2 - 1)))
self.bb.setBottom(
max(self.bb.bottom(),
min(self.sliceRect[1] - 1, y + self.brushSize // 2 + 1)))
#update/move position
self.pos = pos
class Phantom(QObject):
def __init__(self, args, parent=None):
QObject.__init__(self, parent)
# variable declarations
self.m_loadStatus = self.m_state = ''
self.m_var = self.m_paperSize = self.m_loadScript_cache = {}
self.m_verbose = args.verbose
self.m_page = WebPage(self)
self.m_clipRect = QRect()
# setup the values from args
self.m_script = args.script.read()
self.m_scriptFile = args.script.name
self.m_scriptDir = os.path.dirname(args.script.name) + '/'
self.m_args = args.script_args
self.m_upload_file = args.upload_file
autoLoadImages = False if args.load_images == 'no' else True
pluginsEnabled = True if args.load_plugins == 'yes' else False
args.script.close()
do_action('PhantomInitPre', Bunch(locals()))
palette = self.m_page.palette()
palette.setBrush(QPalette.Base, Qt.transparent)
self.m_page.setPalette(palette)
if not args.proxy:
QNetworkProxyFactory.setUseSystemConfiguration(True)
else:
proxy = QNetworkProxy(QNetworkProxy.HttpProxy, args.proxy[0],
int(args.proxy[1]))
QNetworkProxy.setApplicationProxy(proxy)
self.m_page.settings().setAttribute(QWebSettings.AutoLoadImages,
autoLoadImages)
self.m_page.settings().setAttribute(QWebSettings.PluginsEnabled,
pluginsEnabled)
self.m_page.settings().setAttribute(
QWebSettings.FrameFlatteningEnabled, True)
self.m_page.settings().setAttribute(
QWebSettings.OfflineStorageDatabaseEnabled, True)
self.m_page.settings().setAttribute(QWebSettings.LocalStorageEnabled,
True)
self.m_page.settings().setLocalStoragePath(
QDesktopServices.storageLocation(QDesktopServices.DataLocation))
self.m_page.settings().setOfflineStoragePath(
QDesktopServices.storageLocation(QDesktopServices.DataLocation))
# Ensure we have a document.body.
self.m_page.mainFrame().setHtml('<html><body></body></html>')
self.m_page.mainFrame().setScrollBarPolicy(Qt.Horizontal,
Qt.ScrollBarAlwaysOff)
self.m_page.mainFrame().setScrollBarPolicy(Qt.Vertical,
Qt.ScrollBarAlwaysOff)
m_netAccessMan = NetworkAccessManager(args.disk_cache,
args.ignore_ssl_errors, self)
self.m_page.setNetworkAccessManager(m_netAccessMan)
# inject our properties and slots into javascript
self.m_page.mainFrame().javaScriptWindowObjectCleared.connect(
self.inject)
self.m_page.loadFinished.connect(self.finish)
do_action('PhantomInitPost', Bunch(locals()))
def execute(self):
if self.m_script.startswith('#!'):
self.m_script = '//' + self.m_script
if self.m_scriptFile.lower().endswith('.coffee'):
coffee = CSConverter(self)
self.m_script = coffee.convert(self.m_script)
self.m_page.mainFrame().evaluateJavaScript(self.m_script)
def finish(self, success):
self.m_loadStatus = 'success' if success else 'fail'
self.m_page.mainFrame().evaluateJavaScript(self.m_script)
def inject(self):
self.m_page.mainFrame().addToJavaScriptWindowObject('phantom', self)
def renderPdf(self, fileName):
p = QPrinter()
p.setOutputFormat(QPrinter.PdfFormat)
p.setOutputFileName(fileName)
p.setResolution(pdf_dpi)
paperSize = self.m_paperSize
if not len(paperSize):
pageSize = QSize(self.m_page.mainFrame().contentsSize())
paperSize['width'] = str(pageSize.width()) + 'px'
paperSize['height'] = str(pageSize.height()) + 'px'
paperSize['border'] = '0px'
if paperSize.get('width') and paperSize.get('height'):
sizePt = QSizeF(ceil(self.stringToPointSize(paperSize['width'])),
ceil(self.stringToPointSize(paperSize['height'])))
p.setPaperSize(sizePt, QPrinter.Point)
elif 'format' in paperSize:
orientation = QPrinter.Landscape if paperSize.get(
'orientation') and paperSize['orientation'].lower(
) == 'landscape' else QPrinter.Portrait
orientation = QPrinter.Orientation(orientation)
p.setOrientation(orientation)
formats = {
'A3': QPrinter.A3,
'A4': QPrinter.A4,
'A5': QPrinter.A5,
'Legal': QPrinter.Legal,
'Letter': QPrinter.Letter,
'Tabloid': QPrinter.Tabloid
}
p.setPaperSize(QPrinter.A4) # fallback
for format, size in formats.items():
if format.lower() == paperSize['format'].lower():
p.setPaperSize(size)
break
else:
return False
border = floor(self.stringToPointSize(
paperSize['border'])) if paperSize.get('border') else 0
p.setPageMargins(border, border, border, border, QPrinter.Point)
self.m_page.mainFrame().print_(p)
return True
def returnValue(self):
return self.m_returnValue
def stringToPointSize(self, string):
units = (('mm', 72 / 25.4), ('cm', 72 / 2.54), ('in', 72.0),
('px', 72.0 / pdf_dpi / 2.54), ('', 72.0 / pdf_dpi / 2.54))
for unit, format in units:
if string.endswith(unit):
value = string.rstrip(unit)
return float(value) * format
return 0
##
# Properties and methods exposed to JavaScript
##
@pyqtProperty('QStringList')
def args(self):
return self.m_args
@pyqtProperty('QVariantMap')
def clipRect(self):
result = {
'width': self.m_clipRect.width(),
'height': self.m_clipRect.height(),
'top': self.m_clipRect.top(),
'left': self.m_clipRect.left()
}
return result
@clipRect.setter
def clipRect(self, size):
names = ('width', 'height', 'top', 'left')
for item in names:
try:
globals()[item] = int(size[item])
if globals()[item] < 0:
if item not in ('top', 'left'):
globals()[item] = 0
except KeyError:
globals()[item] = getattr(self.m_clipRect, item)()
self.m_clipRect = QRect(left, top, width, height)
@pyqtProperty(str)
def content(self):
return self.m_page.mainFrame().toHtml()
@content.setter
def content(self, content):
self.m_page.mainFrame().setHtml(content)
@pyqtSlot()
@pyqtSlot(int)
def exit(self, code=0):
self.m_returnValue = code
self.m_page.loadFinished.disconnect(self.finish)
QTimer.singleShot(0, qApp, SLOT('quit()'))
@pyqtProperty(str)
def loadStatus(self):
return self.m_loadStatus
@pyqtSlot(str, result=bool)
def loadScript(self, script):
if script in self.m_loadScript_cache:
self.m_page.mainFrame().evaluateJavaScript(
self.m_loadScript_cache[script])
return True
scriptFile = script
try:
script = codecs.open(self.m_scriptDir + script, encoding='utf-8')
script = script.read()
except IOError:
return False
if script.startswith('#!'):
script = '//' + script
if scriptFile.lower().endswith('.coffee'):
coffee = CSConverter(self)
script = coffee.convert(script)
self.m_loadScript_cache[scriptFile] = script
self.m_page.mainFrame().evaluateJavaScript(script)
return True
@pyqtSlot(str, name='open')
def open_(self, address):
qDebug('Opening address %s' % address)
self.m_page.triggerAction(QWebPage.Stop)
self.m_loadStatus = 'loading'
self.m_page.mainFrame().setUrl(QUrl(address))
@pyqtProperty('QVariantMap')
def paperSize(self):
return self.m_paperSize
@paperSize.setter
def paperSize(self, size):
self.m_paperSize = size
@pyqtSlot(str, result=bool)
def render(self, fileName):
fileInfo = QFileInfo(fileName)
path = QDir()
path.mkpath(fileInfo.absolutePath())
if fileName.lower().endswith('.pdf'):
return self.renderPdf(fileName)
viewportSize = QSize(self.m_page.viewportSize())
pageSize = QSize(self.m_page.mainFrame().contentsSize())
bufferSize = QSize()
if not self.m_clipRect.isEmpty():
bufferSize = self.m_clipRect.size()
else:
bufferSize = self.m_page.mainFrame().contentsSize()
if pageSize == '':
return False
image = QImage(bufferSize, QImage.Format_ARGB32)
image.fill(qRgba(255, 255, 255, 0))
p = QPainter(image)
p.setRenderHint(QPainter.Antialiasing, True)
p.setRenderHint(QPainter.TextAntialiasing, True)
p.setRenderHint(QPainter.SmoothPixmapTransform, True)
self.m_page.setViewportSize(pageSize)
if not self.m_clipRect.isEmpty():
p.translate(-self.m_clipRect.left(), -self.m_clipRect.top())
self.m_page.mainFrame().render(p, QRegion(self.m_clipRect))
else:
self.m_page.mainFrame().render(p)
p.end()
self.m_page.setViewportSize(viewportSize)
return image.save(fileName)
@pyqtSlot('QWebElement', str)
def setFormInputFile(self, el, fileTag):
self.m_page.m_nextFileTag = fileTag
el.evaluateJavaScript('''(function(target){
var evt = document.createEvent('MouseEvents');
evt.initMouseEvent("click", true, true, window,
0, 0, 0, 0, 0, false, false, false, false, 0, null);
target.dispatchEvent(evt);})(this);''')
@pyqtSlot(int)
def sleep(self, ms):
startTime = QTime.currentTime()
while True:
QApplication.processEvents(QEventLoop.AllEvents, 25)
if startTime.msecsTo(QTime.currentTime()) > ms:
break
usleep(0.005)
@pyqtProperty(str)
def state(self):
return self.m_state
@state.setter
def state(self, value):
self.m_state = value
@pyqtProperty(str)
def userAgent(self):
return self.m_page.m_userAgent
@userAgent.setter
def userAgent(self, ua):
self.m_page.m_userAgent = ua
@pyqtSlot(str, result='QVariant')
@pyqtSlot(int, result='QVariant')
@pyqtSlot(str, 'QVariant')
@pyqtSlot(int, 'QVariant')
def ctx(self, name, value=None):
if not value:
return self.m_var.get(name)
self.m_var[name] = value
@pyqtProperty('QVariantMap')
def version(self):
version = {
'major': version_major,
'minor': version_minor,
'patch': version_patch
}
return version
@pyqtProperty('QVariantMap')
def viewportSize(self):
size = self.m_page.viewportSize()
result = {'width': size.width(), 'height': size.height()}
return result
@viewportSize.setter
def viewportSize(self, size):
names = ('width', 'height')
for item in names:
try:
globals()[item] = int(size[item])
if globals()[item] < 0:
globals()[item] = 0
except KeyError:
globals()[item] = getattr(self.m_page.viewportSize(), item)()
self.m_page.setViewportSize(QSize(width, height))
do_action('Phantom', Bunch(locals()))
class ArkMapToolInteractive(QgsMapTool):
_active = False
_dragging = False
_panningEnabled = False
_zoomingEnabled = False
_zoomRubberBand = None #QgsRubberBand()
_zoomRect = None # QRect()
_snappingEnabled = False
_snapper = None #QgsMapCanvasSnapper()
_snappingMarker = None # QgsVertexMarker()
_showSnappableVertices = False
_snappableVertices = [] # [QgsPoint()]
_snappableMarkers = [] # [QgsVertexMarker()]
def __init__(self, canvas, snappingEnabled=False, showSnappableVertices=False):
super(ArkMapToolInteractive, self).__init__(canvas)
self._snappingEnabled = snappingEnabled
self._showSnappableVertices = showSnappableVertices
def __del__(self):
if self._active:
self.deactivate()
def isActive(self):
return self._active
def activate(self):
super(ArkMapToolInteractive, self).activate()
self._active = True
self._startSnapping()
def deactivate(self):
self._active = False
if self._snappingEnabled:
self._stopSnapping()
if (self._zoomRubberBand is not None):
self.canvas().scene().removeItem(self._zoomRubberBand)
self._zoomRubberBand = None
super(ArkMapToolInteractive, self).deactivate()
def setAction(self, action):
super(ArkMapToolInteractive, self).setAction(action)
self.action().triggered.connect(self._activate)
def _activate(self):
self.canvas().setMapTool(self)
def panningEnabled(self):
return self._panningEnabled
def setPanningEnabled(self, enabled):
self._panningEnabled = enabled
def zoomingEnabled(self):
return self._zoomingEnabled
def setZoomingEnabled(self, enabled):
self._zoomingEnabled = enabled
def snappingEnabled(self):
return self._snappingEnabled
def setSnappingEnabled(self, enabled):
if (self._snappingEnabled == enabled):
return
self._snappingEnabled = enabled
if not self._active:
return
if enabled:
self._startSnapping()
else:
self._stopSnapping()
def _startSnapping(self):
self._snapper = QgsMapCanvasSnapper()
self._snapper.setMapCanvas(self.canvas())
if self._showSnappableVertices:
self._startSnappableVertices()
def _stopSnapping(self):
self._deleteSnappingMarker()
self._snapper = None
if self._showSnappableVertices:
self._stopSnappableVertices()
def showSnappableVertices(self):
return self._showSnappableVertices
def setShowSnappableVertices(self, show):
if (self._showSnappableVertices == show):
return
self._showSnappableVertices = show
if not self._active:
return
if show:
self._startSnappableVertices()
else:
self._stopSnappableVertices()
def _startSnappableVertices(self):
self.canvas().layersChanged.connect(self._layersChanged)
self.canvas().extentsChanged.connect(self._redrawSnappableMarkers)
QgsProject.instance().snapSettingsChanged.connect(self._layersChanged)
self._layersChanged()
def _stopSnappableVertices(self):
self._deleteSnappableMarkers()
self._snappableLayers = []
self.canvas().layersChanged.disconnect(self._layersChanged)
self.canvas().extentsChanged.disconnect(self._redrawSnappableMarkers)
QgsProject.instance().snapSettingsChanged.disconnect(self._layersChanged)
def canvasMoveEvent(self, e):
super(ArkMapToolInteractive, self).canvasMoveEvent(e)
if not self._active:
return
e.ignore()
if (self._panningEnabled and e.buttons() & Qt.LeftButton):
# Pan map mode
if not self._dragging:
self._dragging = True
self.setCursor(QCursor(Qt.ClosedHandCursor))
self.canvas().panAction(e)
e.accept()
elif (self._zoomingEnabled and e.buttons() & Qt.RightButton):
# Zoom map mode
if not self._dragging:
self._dragging = True
self.setCursor(QCursor(Qt.ClosedHandCursor))
self._zoomRubberBand = QgsRubberBand(self.canvas(), QGis.Polygon)
color = QColor(Qt.blue)
color.setAlpha(63)
self._zoomRubberBand.setColor(color)
self._zoomRect = QRect(0, 0, 0, 0)
self._zoomRect.setTopLeft(e.pos())
self._zoomRect.setBottomRight(e.pos())
if self._zoomRubberBand is not None:
self._zoomRubberBand.setToCanvasRectangle(self._zoomRect)
self._zoomRubberBand.show()
e.accept()
elif self._snappingEnabled:
mapPoint, snapped = self._snapCursorPoint(e.pos())
if (snapped):
self._createSnappingMarker(mapPoint)
else:
self._deleteSnappingMarker()
def canvasReleaseEvent(self, e):
super(ArkMapToolInteractive, self).canvasReleaseEvent(e)
e.ignore()
if (e.button() == Qt.LeftButton):
if self._dragging:
# Pan map mode
self.canvas().panActionEnd(e.pos())
self.setCursor(capture_point_cursor)
self._dragging = False
e.accept()
elif (e.button() == Qt.RightButton):
if self._dragging:
# Zoom mode
self._zoomRect.setBottomRight(e.pos())
if (self._zoomRect.topLeft() != self._zoomRect.bottomRight()):
coordinateTransform = self.canvas().getCoordinateTransform()
ll = coordinateTransform.toMapCoordinates(self._zoomRect.left(), self._zoomRect.bottom())
ur = coordinateTransform.toMapCoordinates(self._zoomRect.right(), self._zoomRect.top())
r = QgsRectangle()
r.setXMinimum(ll.x())
r.setYMinimum(ll.y())
r.setXMaximum(ur.x())
r.setYMaximum(ur.y())
r.normalize()
if (r.width() != 0 and r.height() != 0):
self.canvas().setExtent(r)
self.canvas().refresh()
self._dragging = False
if (self._zoomRubberBand is not None):
self.canvas().scene().removeItem(self._zoomRubberBand)
self._zoomRubberBand = None
e.accept()
def keyPressEvent(self, e):
super(ArkMapToolInteractive, self).keyPressEvent(e)
if (e.key() == Qt.Key_Escape):
self.canvas().unsetMapTool(self)
e.accept()
def _snapCursorPoint(self, cursorPoint):
res, snapResults = self._snapper.snapToBackgroundLayers(cursorPoint)
if (res != 0 or len(snapResults) < 1):
return self.toMapCoordinates(cursorPoint), False
else:
# Take a copy as QGIS will delete the result!
snappedVertex = QgsPoint(snapResults[0].snappedVertex)
return snappedVertex, True
def _createSnappingMarker(self, snapPoint):
if (self._snappingMarker is None):
self._snappingMarker = QgsVertexMarker(self.canvas())
self._snappingMarker.setIconType(QgsVertexMarker.ICON_CROSS)
self._snappingMarker.setColor(Qt.magenta)
self._snappingMarker.setPenWidth(3)
self._snappingMarker.setCenter(snapPoint)
def _deleteSnappingMarker(self):
if (self._snappingMarker is not None):
self.canvas().scene().removeItem(self._snappingMarker)
self._snappingMarker = None
def _createSnappableMarkers(self):
if (not self._showSnappableVertices or not self._snappingEnabled):
return
extent = self.canvas().extent()
for vertex in self._snappableVertices.asMultiPoint():
if (extent.contains(vertex)):
marker = QgsVertexMarker(self.canvas())
marker.setIconType(QgsVertexMarker.ICON_X)
marker.setColor(Qt.gray)
marker.setPenWidth(1)
marker.setCenter(vertex)
self._snappableMarkers.append(marker)
def _deleteSnappableMarkers(self):
for marker in self._snappableMarkers:
self.canvas().scene().removeItem(marker)
del self._snappableMarkers[:]
def _layersChanged(self):
if (not self._showSnappableVertices or not self._snappingEnabled):
return
self._buildSnappableLayers()
self._deleteSnappableMarkers()
self._createSnappableMarkers()
def _redrawSnappableMarkers(self):
if (not self._showSnappableVertices or not self._snappingEnabled):
return
self._deleteSnappableMarkers()
self._createSnappableMarkers()
def _buildSnappableLayers(self):
if (not self._showSnappableVertices or not self._snappingEnabled):
return
vertices = []
for layer in self.canvas().layers():
ok, enabled, type, units, tolerance, avoid = QgsProject.instance().snapSettingsForLayer(layer.id())
if (ok and enabled and not layer.isEditable()):
for feature in layer.getFeatures():
geometry = feature.geometry()
if geometry is None:
pass
elif geometry.type() == QGis.Point:
vertices.extend([geometry.asPoint()])
elif geometry.type() == QGis.Line:
vertices.extend(geometry.asPolyline())
elif geometry.type() == QGis.Polygon:
lines = geometry.asPolygon()
for line in lines:
vertices.extend(line)
self._snappableVertices = QgsGeometry.fromMultiPoint(vertices)
self._snappableVertices.simplify(0)
class MapToolInteractive(QgsMapTool):
"""Tool to interact with map, including panning, zooming, and snapping"""
def __init__(self, canvas, snappingEnabled=False):
super(MapToolInteractive, self).__init__(canvas)
self._active = False
self._dragging = False
self._panningEnabled = False
self._zoomingEnabled = False
self._zoomRubberBand = None # QgsRubberBand()
self._zoomRect = None # QRect()
self._snappingEnabled = snappingEnabled
self._snapper = None # QgsMapCanvasSnapper()
self._snappingMarker = None # QgsVertexMarker()
def __del__(self):
if self._active:
self.deactivate()
def isActive(self):
return self._active
def activate(self):
super(MapToolInteractive, self).activate()
self._active = True
self._startSnapping()
def deactivate(self):
self._active = False
if self._snappingEnabled:
self._stopSnapping()
if (self._zoomRubberBand is not None):
self.canvas().scene().removeItem(self._zoomRubberBand)
self._zoomRubberBand = None
super(MapToolInteractive, self).deactivate()
def setAction(self, action):
super(MapToolInteractive, self).setAction(action)
self.action().triggered.connect(self._activate)
def _activate(self):
self.canvas().setMapTool(self)
def panningEnabled(self):
return self._panningEnabled
def setPanningEnabled(self, enabled):
self._panningEnabled = enabled
def zoomingEnabled(self):
return self._zoomingEnabled
def setZoomingEnabled(self, enabled):
self._zoomingEnabled = enabled
def snappingEnabled(self):
return self._snappingEnabled
def setSnappingEnabled(self, enabled):
if (self._snappingEnabled == enabled):
return
self._snappingEnabled = enabled
if not self._active:
return
if enabled:
self._startSnapping()
else:
self._stopSnapping()
def _startSnapping(self):
self._snapper = QgsMapCanvasSnapper()
self._snapper.setMapCanvas(self.canvas())
def _stopSnapping(self):
self._deleteSnappingMarker()
self._snapper = None
def canvasMoveEvent(self, e):
super(MapToolInteractive, self).canvasMoveEvent(e)
if not self._active:
return
e.ignore()
if (self._panningEnabled and e.buttons() & Qt.LeftButton):
# Pan map mode
if not self._dragging:
self._dragging = True
self.setCursor(QCursor(Qt.ClosedHandCursor))
self.canvas().panAction(e)
e.accept()
elif (self._zoomingEnabled and e.buttons() & Qt.RightButton):
# Zoom map mode
if not self._dragging:
self._dragging = True
self.setCursor(QCursor(Qt.ClosedHandCursor))
self._zoomRubberBand = QgsRubberBand(self.canvas(),
QGis.Polygon)
color = QColor(Qt.blue)
color.setAlpha(63)
self._zoomRubberBand.setColor(color)
self._zoomRect = QRect(0, 0, 0, 0)
self._zoomRect.setTopLeft(e.pos())
self._zoomRect.setBottomRight(e.pos())
if self._zoomRubberBand is not None:
self._zoomRubberBand.setToCanvasRectangle(self._zoomRect)
self._zoomRubberBand.show()
e.accept()
elif self._snappingEnabled:
mapPoint, mapPointV2, snapped = self._snapCursorPoint(e.pos())
if (snapped):
self._createSnappingMarker(mapPoint)
else:
self._deleteSnappingMarker()
def canvasReleaseEvent(self, e):
super(MapToolInteractive, self).canvasReleaseEvent(e)
e.ignore()
if (e.button() == Qt.LeftButton):
if self._dragging:
# Pan map mode
self.canvas().panActionEnd(e.pos())
self.setCursor(CapturePointCursor)
self._dragging = False
e.accept()
elif (e.button() == Qt.RightButton):
if self._dragging:
# Zoom mode
self._zoomRect.setBottomRight(e.pos())
if (self._zoomRect.topLeft() != self._zoomRect.bottomRight()):
coordinateTransform = self.canvas().getCoordinateTransform(
)
ll = coordinateTransform.toMapCoordinates(
self._zoomRect.left(), self._zoomRect.bottom())
ur = coordinateTransform.toMapCoordinates(
self._zoomRect.right(), self._zoomRect.top())
r = QgsRectangle()
r.setXMinimum(ll.x())
r.setYMinimum(ll.y())
r.setXMaximum(ur.x())
r.setYMaximum(ur.y())
r.normalize()
if (r.width() != 0 and r.height() != 0):
self.canvas().setExtent(r)
self.canvas().refresh()
self._dragging = False
if (self._zoomRubberBand is not None):
self.canvas().scene().removeItem(self._zoomRubberBand)
self._zoomRubberBand = None
e.accept()
def keyPressEvent(self, e):
super(MapToolInteractive, self).keyPressEvent(e)
if (e.key() == Qt.Key_Escape):
self.canvas().unsetMapTool(self)
e.accept()
def _snapCursorPoint(self, cursorPoint):
res, snapResults = self._snapper.snapToBackgroundLayers(cursorPoint)
if (res != 0 or len(snapResults) < 1):
clicked = self.toMapCoordinates(cursorPoint)
clickedV2 = QgsPointV2(clicked)
return clicked, clickedV2, False
else:
# Take a copy as QGIS will delete the result!
snapped = QgsPoint(snapResults[0].snappedVertex)
snappedV2 = QgsPointV2(snapped)
return snapped, snappedV2, True
def _createSnappingMarker(self, snapPoint):
if (self._snappingMarker is None):
self._snappingMarker = QgsVertexMarker(self.canvas())
self._snappingMarker.setIconType(QgsVertexMarker.ICON_CROSS)
self._snappingMarker.setColor(Qt.magenta)
self._snappingMarker.setPenWidth(3)
self._snappingMarker.setCenter(snapPoint)
def _deleteSnappingMarker(self):
if (self._snappingMarker is not None):
self.canvas().scene().removeItem(self._snappingMarker)
self._snappingMarker = None
class BrushingModel(QObject):
brushSizeChanged = pyqtSignal(int)
brushColorChanged = pyqtSignal(QColor)
brushStrokeAvailable = pyqtSignal(QPointF, object)
drawnNumberChanged = pyqtSignal(int)
minBrushSize = 1
maxBrushSize = 61
defaultBrushSize = 3
defaultDrawnNumber = 1
defaultColor = Qt.white
erasingColor = Qt.black
erasingNumber = 100
def __init__(self):
QObject.__init__(self)
self.sliceRect = None
self.bb = QRect() #bounding box enclosing the drawing
self.brushSize = self.defaultBrushSize
self.drawColor = self.defaultColor
self._temp_color = None
self._temp_number = None
self.drawnNumber = self.defaultDrawnNumber
self.pos = None
self.erasing = False
self.drawOnto = None
#an empty scene, where we add all drawn line segments
#a QGraphicsLineItem, and which we can use to then
#render to an image
self.scene = QGraphicsScene()
def toggleErase(self):
self.erasing = not(self.erasing)
if self.erasing:
self.setErasing()
else:
self.disableErasing()
def setErasing(self):
self.erasing = True
self._temp_color = self.drawColor
self._temp_number = self.drawnNumber
self.setBrushColor(self.erasingColor)
self.brushColorChanged.emit(self.erasingColor)
self.setDrawnNumber(self.erasingNumber)
def disableErasing(self):
self.erasing = False
self.setBrushColor(self._temp_color)
self.brushColorChanged.emit(self.drawColor)
self.setDrawnNumber(self._temp_number)
def setBrushSize(self, size):
self.brushSize = size
self.brushSizeChanged.emit(self.brushSize)
def setDrawnNumber(self, num):
print "Setting Drawnnumer", num
self.drawnNumber = num
self.drawnNumberChanged.emit(num)
def getBrushSize(self):
return self.brushSize
def brushSmaller(self):
b = self.brushSize
if b > self.minBrushSize:
self.setBrushSize(b-1)
def brushBigger(self):
b = self.brushSize
if self.brushSize < self.maxBrushSize:
self.setBrushSize(b+1)
def setBrushColor(self, color):
self.drawColor = color
self.brushColorChanged.emit(self.drawColor)
def beginDrawing(self, pos, sliceRect):
self.sliceRect = sliceRect
self.scene.clear()
self.bb = QRect()
self.pos = QPointF(pos.x()+0.0001, pos.y()+0.0001)
line = self.moveTo(pos)
return line
def endDrawing(self, pos):
self.moveTo(pos)
tempi = QImage(QSize(self.bb.width(), self.bb.height()), QImage.Format_ARGB32_Premultiplied) #TODO: format
tempi.fill(0)
painter = QPainter(tempi)
self.scene.render(painter, target=QRectF(), source=QRectF(QPointF(self.bb.x(), self.bb.y()), QSizeF(self.bb.width(), self.bb.height())))
painter.end()
ndarr = qimage2ndarray.rgb_view(tempi)[:,:,0]
labels = numpy.where(ndarr>0,numpy.uint8(self.drawnNumber),numpy.uint8(0))
labels = labels.swapaxes(0,1)
assert labels.shape[0] == self.bb.width()
assert labels.shape[1] == self.bb.height()
self.brushStrokeAvailable.emit(QPointF(self.bb.x(), self.bb.y()), labels)
def dumpDraw(self, pos):
res = self.endDrawing(pos)
self.beginDrawing(pos, self.sliceRect)
return res
def moveTo(self, pos):
oldX, oldY = self.pos.x(), self.pos.y()
x,y = pos.x(), pos.y()
#print "BrushingModel.moveTo(pos=%r)" % (pos)
line = QGraphicsLineItem(oldX, oldY, x, y)
line.setPen(QPen( QBrush(Qt.white), self.brushSize, Qt.SolidLine, Qt.RoundCap, Qt.RoundJoin))
self.scene.addItem(line)
#update bounding Box
if not self.bb.isValid():
self.bb = QRect(QPoint(x,y), QSize(1,1))
#grow bounding box
self.bb.setLeft( min(self.bb.left(), max(0, x-self.brushSize/2-1) ) )
self.bb.setRight( max(self.bb.right(), min(self.sliceRect[0]-1, x+self.brushSize/2+1) ) )
self.bb.setTop( min(self.bb.top(), max(0, y-self.brushSize/2-1) ) )
self.bb.setBottom(max(self.bb.bottom(), min(self.sliceRect[1]-1, y+self.brushSize/2+1) ) )
#update/move position
self.pos = pos
def paint(self, painter, option, index):
self.initStyleOption(option, index)
if hasattr(option, "checkState"):
if option.checkState == Qt.Unchecked:
option.checkState = Qt.PartiallyChecked
elif option.checkState == Qt.PartiallyChecked:
option.checkState = Qt.Unchecked
elif option.checkState == Qt.Checked:
option.font = QFont(option.font)
option.font.setStrikeOut(True)
# ref: qt4-x11-4.6.2/src/gui/styles/qcommonstyle.cpp
painter.save()
painter.setClipRect(option.rect)
# QApplication.style().drawControl(
# QStyle.CE_ItemViewItem, option, painter,
# getattr(option, "widget", None))
style = QApplication.style()
widget = getattr(option, "widget", None)
# log.debug("widget: %r style: %r" % (widget, style.metaObject().className()))
style.drawPrimitive(
QStyle.PE_PanelItemViewItem, option, painter, widget)
if option.checkState == Qt.Checked:
painter.setOpacity(0.3)
text_rect = style.subElementRect(
QStyle.SE_ItemViewItemText, option, widget)
item_text = option.fontMetrics.elidedText(
option.text, option.textElideMode, text_rect.width())
painter.setFont(option.font)
style.drawItemText(painter, text_rect, option.displayAlignment,
option.palette, True, item_text, QPalette.Text)
check_rect = style.subElementRect(
QStyle.SE_ItemViewItemCheckIndicator, option, widget)
if option.checkState == Qt.PartiallyChecked:
brush = option.palette.brush(QPalette.Base)
painter.fillRect(check_rect, brush)
bullet_rect = QRect(check_rect)
if bullet_rect.width() > BULLET_SIZE:
bullet_rect.setLeft(
bullet_rect.left() +
(bullet_rect.width() - BULLET_SIZE) / 2)
bullet_rect.setWidth(BULLET_SIZE)
if bullet_rect.height() > BULLET_SIZE:
bullet_rect.setTop(
bullet_rect.top() +
(bullet_rect.height() - BULLET_SIZE) / 2)
bullet_rect.setHeight(BULLET_SIZE)
painter.setPen(QPen(option.palette.color(QPalette.Text)))
painter.setBrush(option.palette.brush(QPalette.Text))
painter.drawEllipse(bullet_rect)
else:
check_opt = QStyleOptionButton()
check_opt.rect = check_rect
check_opt.state = option.state & ~QStyle.State_HasFocus
if option.checkState == Qt.Checked:
check_opt.state |= QStyle.State_On
else:
check_opt.state |= QStyle.State_Off
style.drawPrimitive(
QStyle.PE_IndicatorItemViewItemCheck, check_opt, painter,
widget)
painter.restore()
class WebPage(QObject):
javaScriptAlertSent = pyqtSignal(str)
javaScriptConsoleMessageSent = pyqtSignal(str, int, str)
loadStarted = pyqtSignal()
loadFinished = pyqtSignal(str)
resourceReceived = pyqtSignal('QVariantMap')
resourceRequested = pyqtSignal('QVariantMap')
def __init__(self, parent=None):
QObject.__init__(self, parent)
# variable declarations
self.m_paperSize = {}
self.m_clipRect = QRect()
self.m_libraryPath = ''
self.setObjectName('WebPage')
self.m_webPage = CustomPage(self)
self.m_mainFrame = self.m_webPage.mainFrame()
self.m_webPage.loadStarted.connect(self.loadStarted)
self.m_webPage.loadFinished.connect(self.finish)
# Start with transparent background
palette = self.m_webPage.palette()
palette.setBrush(QPalette.Base, Qt.transparent)
self.m_webPage.setPalette(palette)
# Page size does not need to take scrollbars into account
self.m_webPage.mainFrame().setScrollBarPolicy(Qt.Horizontal,
Qt.ScrollBarAlwaysOff)
self.m_webPage.mainFrame().setScrollBarPolicy(Qt.Vertical,
Qt.ScrollBarAlwaysOff)
self.m_webPage.settings().setAttribute(
QWebSettings.OfflineStorageDatabaseEnabled, True)
self.m_webPage.settings().setOfflineStoragePath(
QDesktopServices.storageLocation(QDesktopServices.DataLocation))
self.m_webPage.settings().setAttribute(
QWebSettings.LocalStorageDatabaseEnabled, True)
self.m_webPage.settings().setAttribute(
QWebSettings.OfflineWebApplicationCacheEnabled, True)
self.m_webPage.settings().setOfflineWebApplicationCachePath(
QDesktopServices.storageLocation(QDesktopServices.DataLocation))
self.m_webPage.settings().setAttribute(
QWebSettings.FrameFlatteningEnabled, True)
self.m_webPage.settings().setAttribute(
QWebSettings.LocalStorageEnabled, True)
self.m_webPage.settings().setLocalStoragePath(
QDesktopServices.storageLocation(QDesktopServices.DataLocation))
# Ensure we have a document.body.
self.m_webPage.mainFrame().setHtml('<html><body></body></html>')
self.m_webPage.setViewportSize(QSize(400, 300))
do_action('WebPageInit', Bunch(locals()))
def applySettings(self, defaults):
opt = self.m_webPage.settings()
opt.setAttribute(QWebSettings.AutoLoadImages, defaults['loadImages'])
opt.setAttribute(QWebSettings.PluginsEnabled, defaults['loadPlugins'])
opt.setAttribute(QWebSettings.LocalContentCanAccessRemoteUrls,
defaults['localAccessRemote'])
if 'userAgent' in defaults:
self.m_webPage.m_userAgent = defaults['userAgent']
def finish(self, ok):
status = 'success' if ok else 'fail'
self.loadFinished.emit(status)
def mainFrame(self):
return self.m_mainFrame
def renderImage(self):
frameRect = QRect(QPoint(0, 0), self.m_mainFrame.contentsSize())
if not self.m_clipRect.isEmpty():
frameRect = self.m_clipRect
viewportSize = self.m_webPage.viewportSize()
self.m_webPage.setViewportSize(self.m_mainFrame.contentsSize())
image = QImage(frameRect.size(), QImage.Format_ARGB32)
image.fill(qRgba(255, 255, 255, 0))
painter = QPainter()
# We use tiling approach to work-around Qt software rasterizer bug
# when dealing with very large paint device.
# See http://code.google.com/p/phantomjs/issues/detail?id=54.
tileSize = 4096
htiles = (image.width() + tileSize - 1) / tileSize
vtiles = (image.height() + tileSize - 1) / tileSize
for x in range(htiles):
for y in range(vtiles):
tileBuffer = QImage(tileSize, tileSize, QImage.Format_ARGB32)
tileBuffer.fill(qRgba(255, 255, 255, 0))
# Render the web page onto the small tile first
painter.begin(tileBuffer)
painter.setRenderHint(QPainter.Antialiasing, True)
painter.setRenderHint(QPainter.TextAntialiasing, True)
painter.setRenderHint(QPainter.SmoothPixmapTransform, True)
painter.translate(-frameRect.left(), -frameRect.top())
painter.translate(-x * tileSize, -y * tileSize)
self.m_mainFrame.render(painter, QRegion(frameRect))
painter.end()
# Copy the tile to the main buffer
painter.begin(image)
painter.setCompositionMode(QPainter.CompositionMode_Source)
painter.drawImage(x * tileSize, y * tileSize, tileBuffer)
painter.end()
self.m_webPage.setViewportSize(viewportSize)
return image
def renderPdf(self, fileName):
p = QPrinter()
p.setOutputFormat(QPrinter.PdfFormat)
p.setOutputFileName(fileName)
p.setResolution(pdf_dpi)
paperSize = self.m_paperSize
if not len(paperSize):
pageSize = QSize(self.m_webPage.mainFrame().contentsSize())
paperSize['width'] = str(pageSize.width()) + 'px'
paperSize['height'] = str(pageSize.height()) + 'px'
paperSize['border'] = '0px'
if paperSize.get('width') and paperSize.get('height'):
sizePt = QSizeF(ceil(self.stringToPointSize(paperSize['width'])),
ceil(self.stringToPointSize(paperSize['height'])))
p.setPaperSize(sizePt, QPrinter.Point)
elif 'format' in paperSize:
orientation = QPrinter.Landscape if paperSize.get(
'orientation') and paperSize['orientation'].lower(
) == 'landscape' else QPrinter.Portrait
orientation = QPrinter.Orientation(orientation)
p.setOrientation(orientation)
formats = {
'A0': QPrinter.A0,
'A1': QPrinter.A1,
'A2': QPrinter.A2,
'A3': QPrinter.A3,
'A4': QPrinter.A4,
'A5': QPrinter.A5,
'A6': QPrinter.A6,
'A7': QPrinter.A7,
'A8': QPrinter.A8,
'A9': QPrinter.A9,
'B0': QPrinter.B0,
'B1': QPrinter.B1,
'B2': QPrinter.B2,
'B3': QPrinter.B3,
'B4': QPrinter.B4,
'B5': QPrinter.B5,
'B6': QPrinter.B6,
'B7': QPrinter.B7,
'B8': QPrinter.B8,
'B9': QPrinter.B9,
'B10': QPrinter.B10,
'C5E': QPrinter.C5E,
'Comm10E': QPrinter.Comm10E,
'DLE': QPrinter.DLE,
'Executive': QPrinter.Executive,
'Folio': QPrinter.Folio,
'Ledger': QPrinter.Ledger,
'Legal': QPrinter.Legal,
'Letter': QPrinter.Letter,
'Tabloid': QPrinter.Tabloid
}
p.setPaperSize(QPrinter.A4) # fallback
for format, size in formats.items():
if format.lower() == paperSize['format'].lower():
p.setPaperSize(size)
break
else:
return False
border = floor(self.stringToPointSize(
paperSize['border'])) if paperSize.get('border') else 0
p.setPageMargins(border, border, border, border, QPrinter.Point)
self.m_webPage.mainFrame().print_(p)
return True
def setNetworkAccessManager(self, networkAccessManager):
self.m_webPage.setNetworkAccessManager(networkAccessManager)
networkAccessManager.resourceRequested.connect(self.resourceRequested)
networkAccessManager.resourceReceived.connect(self.resourceReceived)
def stringToPointSize(self, string):
units = (('mm', 72 / 25.4), ('cm', 72 / 2.54), ('in', 72.0),
('px', 72.0 / pdf_dpi / 2.54), ('', 72.0 / pdf_dpi / 2.54))
for unit, format in units:
if string.endswith(unit):
value = string.rstrip(unit)
return float(value) * format
return 0
def userAgent(self):
return self.m_webPage.m_userAgent
##
# Properties and methods exposed to JavaScript
##
@pyqtSlot(str)
def _appendScriptElement(self, scriptUrl):
self.m_mainFrame.evaluateJavaScript('''
var el = document.createElement('script');
el.onload = function() { alert('%(scriptUrl)s'); };
el.src = '%(scriptUrl)s';
document.body.appendChild(el);
''' % {'scriptUrl': scriptUrl})
@pyqtProperty('QVariantMap')
def clipRect(self):
result = {
'width': self.m_clipRect.width(),
'height': self.m_clipRect.height(),
'top': self.m_clipRect.top(),
'left': self.m_clipRect.left()
}
return result
@clipRect.setter
def clipRect(self, size):
names = ('width', 'height', 'top', 'left')
for item in names:
try:
globals()[item] = int(size[item])
if globals()[item] < 0:
if item not in ('top', 'left'):
globals()[item] = 0
except KeyError:
globals()[item] = getattr(self.m_clipRect, item)()
self.m_clipRect = QRect(left, top, width, height)
@pyqtProperty(str)
def content(self):
return self.m_mainFrame.toHtml()
@content.setter
def content(self, content):
self.m_mainFrame.setHtml(content)
@pyqtSlot(str, result='QVariant')
def evaluate(self, code):
function = '(%s)()' % code
return self.m_mainFrame.evaluateJavaScript(function)
@pyqtSlot(str, result=bool)
def injectJs(self, filePath):
return injectJsInFrame(filePath, self.m_libraryPath, self.m_mainFrame)
@pyqtSlot(str, str, 'QVariantMap')
@pyqtSlot(str, 'QVariantMap', 'QVariantMap')
def openUrl(self, address, op, settings):
operation = op
body = QByteArray()
self.applySettings(settings)
self.m_webPage.triggerAction(QWebPage.Stop)
if type(op) is dict:
operation = op.get('operation')
body = QByteArray(op.get('data', ''))
if operation == '':
operation = 'get'
networkOp = QNetworkAccessManager.CustomOperation
operation = operation.lower()
if operation == 'get':
networkOp = QNetworkAccessManager.GetOperation
elif operation == 'head':
networkOp = QNetworkAccessManager.HeadOperation
elif operation == 'put':
networkOp = QNetworkAccessManager.PutOperation
elif operation == 'post':
networkOp = QNetworkAccessManager.PostOperation
elif operation == 'delete':
networkOp = QNetworkAccessManager.DeleteOperation
if networkOp == QNetworkAccessManager.CustomOperation:
self.m_mainFrame.evaluateJavaScript(
'console.error("Unknown network operation: %s");' % operation)
return
self.m_mainFrame.load(QNetworkRequest(QUrl(address)), networkOp, body)
@pyqtProperty('QVariantMap')
def paperSize(self):
return self.m_paperSize
@paperSize.setter
def paperSize(self, size):
self.m_paperSize = size
@pyqtSlot(str, result=bool)
def render(self, fileName):
if self.m_mainFrame.contentsSize() == '':
return False
fileInfo = QFileInfo(fileName)
path = QDir()
path.mkpath(fileInfo.absolutePath())
if fileName.lower().endswith('.pdf'):
return self.renderPdf(fileName)
image = self.renderImage()
return image.save(fileName)
@pyqtProperty(str)
def libraryPath(self):
return self.m_libraryPath
@libraryPath.setter
def libraryPath(self, dirPath):
self.m_libraryPath = dirPath
@pyqtSlot(str, str)
def uploadFile(self, selector, fileName):
el = self.m_mainFrame.findFirstElement(selector)
if el.isNull():
return
self.m_webPage.m_uploadFile = fileName
el.evaluateJavaScript('''
(function (el) {
var ev = document.createEvent('MouseEvents');
ev.initEvent('click', true, true);
el.dispatchEvent(ev);
})(this)
''')
@pyqtProperty('QVariantMap')
def viewportSize(self):
size = self.m_webPage.viewportSize()
result = {'width': size.width(), 'height': size.height()}
return result
@viewportSize.setter
def viewportSize(self, size):
names = ('width', 'height')
for item in names:
try:
globals()[item] = int(size[item])
if globals()[item] < 0:
globals()[item] = 0
except KeyError:
globals()[item] = getattr(self.m_webPage.viewportSize(),
item)()
self.m_webPage.setViewportSize(QSize(width, height))
do_action('WebPage', Bunch(locals()))
class Phantom(QObject):
def __init__(self, args, parent=None):
QObject.__init__(self, parent)
# variable declarations
self.m_loadStatus = self.m_state = ''
self.m_var = self.m_paperSize = self.m_loadScript_cache = {}
self.m_verbose = args.verbose
self.m_page = WebPage(self)
self.m_clipRect = QRect()
# setup the values from args
self.m_script = args.script.read()
self.m_scriptFile = args.script.name
self.m_scriptDir = os.path.dirname(args.script.name) + '/'
self.m_args = args.script_args
self.m_upload_file = args.upload_file
autoLoadImages = False if args.load_images == 'no' else True
pluginsEnabled = True if args.load_plugins == 'yes' else False
args.script.close()
do_action('PhantomInitPre', Bunch(locals()))
palette = self.m_page.palette()
palette.setBrush(QPalette.Base, Qt.transparent)
self.m_page.setPalette(palette)
if not args.proxy:
QNetworkProxyFactory.setUseSystemConfiguration(True)
else:
proxy = QNetworkProxy(QNetworkProxy.HttpProxy, args.proxy[0], int(args.proxy[1]))
QNetworkProxy.setApplicationProxy(proxy)
self.m_page.settings().setAttribute(QWebSettings.AutoLoadImages, autoLoadImages)
self.m_page.settings().setAttribute(QWebSettings.PluginsEnabled, pluginsEnabled)
self.m_page.settings().setAttribute(QWebSettings.FrameFlatteningEnabled, True)
self.m_page.settings().setAttribute(QWebSettings.OfflineStorageDatabaseEnabled, True)
self.m_page.settings().setAttribute(QWebSettings.LocalStorageEnabled, True)
self.m_page.settings().setLocalStoragePath(QDesktopServices.storageLocation(QDesktopServices.DataLocation))
self.m_page.settings().setOfflineStoragePath(QDesktopServices.storageLocation(QDesktopServices.DataLocation))
# Ensure we have a document.body.
self.m_page.mainFrame().setHtml('<html><body></body></html>')
self.m_page.mainFrame().setScrollBarPolicy(Qt.Horizontal, Qt.ScrollBarAlwaysOff)
self.m_page.mainFrame().setScrollBarPolicy(Qt.Vertical, Qt.ScrollBarAlwaysOff)
m_netAccessMan = NetworkAccessManager(args.disk_cache, args.ignore_ssl_errors, self)
self.m_page.setNetworkAccessManager(m_netAccessMan)
# inject our properties and slots into javascript
self.m_page.mainFrame().javaScriptWindowObjectCleared.connect(self.inject)
self.m_page.loadFinished.connect(self.finish)
do_action('PhantomInitPost', Bunch(locals()))
def execute(self):
if self.m_script.startswith('#!'):
self.m_script = '//' + self.m_script
if self.m_scriptFile.lower().endswith('.coffee'):
coffee = CSConverter(self)
self.m_script = coffee.convert(self.m_script)
self.m_page.mainFrame().evaluateJavaScript(self.m_script)
def finish(self, success):
self.m_loadStatus = 'success' if success else 'fail'
self.m_page.mainFrame().evaluateJavaScript(self.m_script)
def inject(self):
self.m_page.mainFrame().addToJavaScriptWindowObject('phantom', self)
def renderPdf(self, fileName):
p = QPrinter()
p.setOutputFormat(QPrinter.PdfFormat)
p.setOutputFileName(fileName)
p.setResolution(pdf_dpi)
paperSize = self.m_paperSize
if not len(paperSize):
pageSize = QSize(self.m_page.mainFrame().contentsSize())
paperSize['width'] = str(pageSize.width()) + 'px'
paperSize['height'] = str(pageSize.height()) + 'px'
paperSize['border'] = '0px'
if paperSize.get('width') and paperSize.get('height'):
sizePt = QSizeF(ceil(self.stringToPointSize(paperSize['width'])),
ceil(self.stringToPointSize(paperSize['height'])))
p.setPaperSize(sizePt, QPrinter.Point)
elif 'format' in paperSize:
orientation = QPrinter.Landscape if paperSize.get('orientation') and paperSize['orientation'].lower() == 'landscape' else QPrinter.Portrait
orientation = QPrinter.Orientation(orientation)
p.setOrientation(orientation)
formats = {
'A3': QPrinter.A3,
'A4': QPrinter.A4,
'A5': QPrinter.A5,
'Legal': QPrinter.Legal,
'Letter': QPrinter.Letter,
'Tabloid': QPrinter.Tabloid
}
p.setPaperSize(QPrinter.A4) # fallback
for format, size in formats.items():
if format.lower() == paperSize['format'].lower():
p.setPaperSize(size)
break
else:
return False
border = floor(self.stringToPointSize(paperSize['border'])) if paperSize.get('border') else 0
p.setPageMargins(border, border, border, border, QPrinter.Point)
self.m_page.mainFrame().print_(p)
return True
def returnValue(self):
return self.m_returnValue
def stringToPointSize(self, string):
units = (
('mm', 72 / 25.4),
('cm', 72 / 2.54),
('in', 72.0),
('px', 72.0 / pdf_dpi / 2.54),
('', 72.0 / pdf_dpi / 2.54)
)
for unit, format in units:
if string.endswith(unit):
value = string.rstrip(unit)
return float(value) * format
return 0
##
# Properties and methods exposed to JavaScript
##
@pyqtProperty('QStringList')
def args(self):
return self.m_args
@pyqtProperty('QVariantMap')
def clipRect(self):
result = {
'width': self.m_clipRect.width(),
'height': self.m_clipRect.height(),
'top': self.m_clipRect.top(),
'left': self.m_clipRect.left()
}
return result
@clipRect.setter
def clipRect(self, size):
names = ('width', 'height', 'top', 'left')
for item in names:
try:
globals()[item] = int(size[item])
if globals()[item] < 0:
if item not in ('top', 'left'):
globals()[item] = 0
except KeyError:
globals()[item] = getattr(self.m_clipRect, item)()
self.m_clipRect = QRect(left, top, width, height)
@pyqtProperty(str)
def content(self):
return self.m_page.mainFrame().toHtml()
@content.setter
def content(self, content):
self.m_page.mainFrame().setHtml(content)
@pyqtSlot()
@pyqtSlot(int)
def exit(self, code=0):
self.m_returnValue = code
self.m_page.loadFinished.disconnect(self.finish)
QTimer.singleShot(0, qApp, SLOT('quit()'))
@pyqtProperty(str)
def loadStatus(self):
return self.m_loadStatus
@pyqtSlot(str, result=bool)
def loadScript(self, script):
if script in self.m_loadScript_cache:
self.m_page.mainFrame().evaluateJavaScript(self.m_loadScript_cache[script])
return True
scriptFile = script
try:
script = codecs.open(self.m_scriptDir + script, encoding='utf-8')
script = script.read()
except IOError:
return False
if script.startswith('#!'):
script = '//' + script
if scriptFile.lower().endswith('.coffee'):
coffee = CSConverter(self)
script = coffee.convert(script)
self.m_loadScript_cache[scriptFile] = script
self.m_page.mainFrame().evaluateJavaScript(script)
return True
@pyqtSlot(str, name='open')
def open_(self, address):
qDebug('Opening address %s' % address)
self.m_page.triggerAction(QWebPage.Stop)
self.m_loadStatus = 'loading'
self.m_page.mainFrame().setUrl(QUrl(address))
@pyqtProperty('QVariantMap')
def paperSize(self):
return self.m_paperSize
@paperSize.setter
def paperSize(self, size):
self.m_paperSize = size
@pyqtSlot(str, result=bool)
def render(self, fileName):
fileInfo = QFileInfo(fileName)
path = QDir()
path.mkpath(fileInfo.absolutePath())
if fileName.lower().endswith('.pdf'):
return self.renderPdf(fileName)
viewportSize = QSize(self.m_page.viewportSize())
pageSize = QSize(self.m_page.mainFrame().contentsSize())
bufferSize = QSize()
if not self.m_clipRect.isEmpty():
bufferSize = self.m_clipRect.size()
else:
bufferSize = self.m_page.mainFrame().contentsSize()
if pageSize == '':
return False
image = QImage(bufferSize, QImage.Format_ARGB32)
image.fill(qRgba(255, 255, 255, 0))
p = QPainter(image)
p.setRenderHint(QPainter.Antialiasing, True)
p.setRenderHint(QPainter.TextAntialiasing, True)
p.setRenderHint(QPainter.SmoothPixmapTransform, True)
self.m_page.setViewportSize(pageSize)
if not self.m_clipRect.isEmpty():
p.translate(-self.m_clipRect.left(), -self.m_clipRect.top())
self.m_page.mainFrame().render(p, QRegion(self.m_clipRect))
else:
self.m_page.mainFrame().render(p)
p.end()
self.m_page.setViewportSize(viewportSize)
return image.save(fileName)
@pyqtSlot('QWebElement', str)
def setFormInputFile(self, el, fileTag):
self.m_page.m_nextFileTag = fileTag
el.evaluateJavaScript('''(function(target){
var evt = document.createEvent('MouseEvents');
evt.initMouseEvent("click", true, true, window,
0, 0, 0, 0, 0, false, false, false, false, 0, null);
target.dispatchEvent(evt);})(this);''')
@pyqtSlot(int)
def sleep(self, ms):
startTime = QTime.currentTime()
while True:
QApplication.processEvents(QEventLoop.AllEvents, 25)
if startTime.msecsTo(QTime.currentTime()) > ms:
break
usleep(0.005)
@pyqtProperty(str)
def state(self):
return self.m_state
@state.setter
def state(self, value):
self.m_state = value
@pyqtProperty(str)
def userAgent(self):
return self.m_page.m_userAgent
@userAgent.setter
def userAgent(self, ua):
self.m_page.m_userAgent = ua
@pyqtSlot(str, result='QVariant')
@pyqtSlot(int, result='QVariant')
@pyqtSlot(str, 'QVariant')
@pyqtSlot(int, 'QVariant')
def ctx(self, name, value=None):
if not value:
return self.m_var.get(name)
self.m_var[name] = value
@pyqtProperty('QVariantMap')
def version(self):
version = {
'major': version_major,
'minor': version_minor,
'patch': version_patch
}
return version
@pyqtProperty('QVariantMap')
def viewportSize(self):
size = self.m_page.viewportSize()
result = {
'width': size.width(),
'height': size.height()
}
return result
@viewportSize.setter
def viewportSize(self, size):
names = ('width', 'height')
for item in names:
try:
globals()[item] = int(size[item])
if globals()[item] < 0:
globals()[item] = 0
except KeyError:
globals()[item] = getattr(self.m_page.viewportSize(), item)()
self.m_page.setViewportSize(QSize(width, height))
do_action('Phantom', Bunch(locals()))
class PlottingThread(QThread):
def __init__(self, parent):
QThread.__init__(self)
self.result = None
self.parent = parent
self._stopped = False
self.mutex = QMutex()
self.filePrefix = None
self.fileFormat = None
self.wallColoring = None
self.cellColoring = None
self.pointColoring = None
self.extraDrawing = []
self.pointSize = None
self.pointLineColor = None
self.pointLineThickness = None
self.ellipsisDraw = None
self.overSampling = None
self.wallThickness = None
self.bgColor = None
self.loading = False
self._crop = QRect(0, 0, 1, 1)
self._pix = None
self._end_image_plot = False
self._loading_arguments = {}
self.retryObject = None
def end_step(self):
return len(self.result) + 1
def stop(self, value=True):
self.mutex.lock()
self._stopped = value
self.mutex.unlock()
def stopped(self):
self.mutex.lock()
val = self._stopped
self.mutex.unlock()
return val
def nextImage(self):
QCoreApplication.postEvent(self.parent, NextImageEvent())
def abort(self, reason, **others):
e = AbortPlottingEvent(reason)
if others:
e.others = others
QCoreApplication.postEvent(self.parent, e)
def finished(self):
if self.loading:
QCoreApplication.postEvent(self.parent, FinishLoadingEvent())
self.loading = False
else:
QCoreApplication.postEvent(self.parent, FinishPlottingEvent())
def image_ready(self):
QCoreApplication.postEvent(self.parent, ImageReadyPlottingEvent())
def update_nb_images(self, nb):
QCoreApplication.postEvent(self.parent, UpdateNbImageEvent(nb))
@property
def crop_left(self):
return self._crop.left()
@crop_left.setter
def crop_left(self, value):
self._crop.moveLeft(int(value))
@property
def crop_top(self):
return self._crop.top()
@crop_top.setter
def crop_top(self, value):
self._crop.moveTop(int(value))
@property
def crop_width(self):
return self._crop.width()
@crop_width.setter
def crop_width(self, value):
self._crop.setWidth(int(value))
@property
def crop_height(self):
return self._crop.height()
@crop_height.setter
def crop_height(self, value):
self._crop.setHeight(int(value))
def reset_crop(self):
self._crop = QRect(QPoint(0, 0), self.img_size)
@property
def crop(self):
return QRect(self._crop)
@crop.deleter
def crop(self):
self.reset_crop()
@property
def end_image_plot(self):
'''
If true, plot the growth data on the end image rather than the start image of the growth calculation.
'''
return self._end_image_plot
@end_image_plot.setter
def end_image_plot(self, value):
self._end_image_plot = bool(value)
@property
def pix(self):
'''Thread-safe image storage.'''
self.mutex.lock()
pix = self._pix
self.mutex.unlock()
return pix
@pix.setter
def pix(self, value):
self.mutex.lock()
self._pix = value
self.mutex.unlock()
def render_valid(self):
if self.result is None:
log_debug("result is None")
return False
if self.parent is None:
log_debug("parent is None")
return False
if self.ellipsisDraw is None:
log_debug("ellipsisDraw is None")
return False
if self.cellColoring is None:
log_debug("cellColoring is None")
return False
if self.wallColoring is None:
log_debug("wallColoring is None")
return False
if self.pointColoring is None:
log_debug("pointColoring is None")
return False
if self.pointSize is None:
log_debug("pointSize is None")
return False
if self.pointLineThickness is None:
log_debug("pointSize is None")
return False
if self.pointLineColor is None:
log_debug("pointSize is None")
return False
if self.wallThickness is None:
log_debug("wallThickness is None")
return False
if self.overSampling is None:
log_debug("overSampling is None")
return False
if self.bgColor is None:
log_debug("bgColor is None")
return False
return True
def valid(self):
if self.filePrefix is None:
log_debug("filePrefix is None")
return False
if not self.filePrefix:
log_debug("filePrefix is Empty")
return False
if self.fileFormat is None:
log_debug("fileFormat is None")
return False
return self.render_valid()
def drawImage(self, imageid):
cache = image_cache.cache
cellColoring = self.cellColoring
wallColoring = self.wallColoring
pointColoring = self.pointColoring
ellipsisDraw = self.ellipsisDraw
overSampling = self.overSampling
extraDrawing = self.extraDrawing
bgColor = self.bgColor.rgb()
result = self.result
if self.result_type == "Data":
data = result
img_name = result.images_name[imageid]
else:
data = result.data
img_name = result.images[imageid]
#scale = data.images_scale[img_name]
min_scale = data.minScale()
img = cache.image(data.image_path(img_name))
img_data = data[img_name]
size = self._crop.size()
pix = QImage(size * overSampling, QImage.Format_ARGB32)
pix.fill(bgColor)
painter = QPainter()
if not painter.begin(pix):
self.abort("Cannot create painter on QImage")
return None, None, None
painter.setRenderHints(QPainter.SmoothPixmapTransform, True)
painter.setRenderHints(QPainter.Antialiasing, True)
if overSampling > 1:
painter.scale(overSampling, overSampling)
painter.translate(-self._crop.topLeft())
painter.save()
painter.translate(self.translate)
log_debug("Translating: %gx%g" %
(self.translate.x(), self.translate.y()))
painter.scale(1 / min_scale, 1 / min_scale)
painter.save()
matrix = img_data.matrix()
painter.setWorldTransform(matrix, True)
painter.drawImage(QPoint(0, 0), img)
painter.restore()
#pt_matrix = QTransform()
#pt_matrix.scale(1/min_scale, 1/min_scale)
#painter.setTransform(pt_matrix, True)
cellColoring.startImage(painter, imageid)
wallColoring.startImage(painter, imageid)
for ed in extraDrawing:
ed.startImage(painter, imageid)
if self.result_type == "Growth":
cells = result.cells[imageid]
walls = result.walls[imageid]
else:
cells = img_data.cells
walls = set()
for cid in img_data.cells:
pts = [pt for pt in data.cells[cid] if pt in img_data]
if len(pts) > 1:
for i in range(len(pts)):
walls.add(data.wallId(pts[i - 1], pts[i]))
# Now, draw the cells and the ellipsis
for cid in cells:
painter.setPen(Qt.NoPen)
color = cellColoring(imageid, cid)
painter.setBrush(color)
pts = data.cellAtTime(cid, img_data.index)
if pts:
pts.append(pts[0])
ppts = []
for p1, p2 in zip(pts[:-1], pts[1:]):
ppts.append(img_data[p1])
ppts.extend(img_data.walls[p1, p2])
ppts.append(ppts[0])
poly = QPolygonF(ppts)
painter.drawPolygon(poly)
# And draw the walls
wallThickness = self.wallThickness * min_scale
for wid in walls:
color = wallColoring(imageid, wid)
if color.alpha() > 0:
pen = QPen(color)
pen.setWidthF(wallThickness)
painter.setPen(pen)
pts = [img_data[wid[0]]
] + img_data.walls[wid[0], wid[1]] + [img_data[wid[1]]]
#painter.drawLine(img_data[wid[0]], img_data[wid[1]])
painter.drawPolyline(*pts)
# Then, draw the points
pointSize = self.pointSize * min_scale
pointLineColor = self.pointLineColor
pointLineThickness = self.pointLineThickness * min_scale
log_debug("pointSize = %g" % pointSize)
for pid in img_data:
color = pointColoring(imageid, pid)
if color.alpha() > 0:
pen = QPen(pointLineColor)
pen.setWidthF(pointLineThickness)
brush = QBrush(color)
painter.setPen(pen)
painter.setBrush(brush)
pos = img_data[pid]
rect = QRectF(pos.x() - pointSize,
pos.y() - pointSize, 2 * pointSize,
2 * pointSize)
painter.drawEllipse(rect)
if ellipsisDraw.plot:
for cid in cells:
pts = data.cellAtTime(cid, img_data.index)
if pts:
pts.append(pts[0])
ppts = []
for p1, p2 in zip(pts[:-1], pts[1:]):
ppts.append(img_data[p1])
ppts.extend(img_data.walls[p1, p2])
ppts.append(ppts[0])
#poly = QPolygonF(ppts)
#painter.drawPolygon(poly)
ellipsisDraw(painter, imageid, cid, ppts, min_scale)
# At last, draw the extra data
for ed in extraDrawing:
ed(painter, imageid)
tr = painter.worldTransform()
painter.restore()
pic_w = wallColoring.finalizeImage(painter, imageid, tr, self.crop)
pic_c = cellColoring.finalizeImage(painter, imageid, tr, self.crop)
for ed in extraDrawing:
ed.finalizeImage(painter, imageid, tr, self.crop)
painter.end()
return pix, pic_w, pic_c
def start(self):
if self.isRunning():
assert not self.rendering_all, "Cannot run twice the rendering of all images with the same object."
return
if parameters.instance.use_thread:
log_debug("Starting rendering thread.")
QThread.start(self)
return False
else:
self.run()
return True
def render_all(self):
self.rendering_all = True
return self.start()
def render_single(self, img_id, retry=False):
if retry:
while self.isRunning():
self.wait(10000)
elif self.isRunning():
return
self.rendering_all = False
self.current_image = img_id
return self.start()
def load(self, filename):
self.loading = True
self.result = filename
return self.start()
def run(self):
if self.loading:
self.run_loader()
elif self.rendering_all:
self.run_full()
else:
self.run_single()
def run_single(self):
img = self.current_image
self.cellColoring.init()
self.wallColoring.init()
self.pointColoring.init()
log_debug("Rendering image %d" % img)
self.pix, self.pic_w, self.pic_c = self.drawImage(img)
if self.pic_w is not None:
log_debug("Has wall image")
if self.pic_c is not None:
log_debug("Has cell image")
if self.pix is not None:
log_debug("Pix correctly rendered")
log_debug("Rendered image %d = %s" % (img, self.pix))
self.image_ready()
def reload(self):
if self.retryObject is None:
return
self._loading_arguments.update(self.retryObject.method_args)
self.load(self.retryObject.filename)
def run_loader(self):
filename = self.result
try:
self.retryObject = None
# First, prepare the data by getting the images and computing how big they
# should be
f = open(filename)
first_line = f.readline()
f.close()
if first_line.startswith("TRKR_VERSION"):
result = Result(None)
result.load(self.result, **self._loading_arguments)
result_type = "Growth"
else:
result = TrackingData()
result.load(self.result, **self._loading_arguments)
result_type = "Data"
self.result = result
self.result_type = result_type
if result_type == "Data":
data = result
images = data.images_name
if data.cells:
self.has_cells = True
self.has_walls = True
else:
self.has_cells = False
self.has_walls = False
self.has_points = bool(data.cell_points)
else:
data = result.data
images = result.images
self.has_cells = False
self.has_walls = False
self.has_points = False
self.images = images
cache = image_cache.cache
self.update_nb_images(len(result))
bbox = QRectF()
ms = data.minScale()
for i in range(len(result)):
img_name = images[i]
img_data = data[img_name]
img = cache.image(data.image_path(img_name))
matrix = QTransform()
matrix = img_data.matrix()
sc = QTransform()
sc.scale(1.0 / ms, 1.0 / ms)
matrix *= sc
r = QRectF(img.rect())
rbox = matrix.map(QPolygonF(r)).boundingRect()
bbox |= rbox
log_debug(
"Image '%s':\n\tSize = %gx%g\n\tTransformed = %gx%g %+g %+g\n\tGlobal bbox = %gx%g %+g %+g\n"
% (img_name, r.width(), r.height(), rbox.width(),
rbox.height(), rbox.left(), rbox.top(), bbox.width(),
bbox.height(), bbox.left(), bbox.top()))
log_debug("Matrix:\n%g\t%g\t%g\n%g\t%g\t%g\n" %
(matrix.m11(), matrix.m12(), matrix.dx(),
matrix.m21(), matrix.m22(), matrix.dy()))
if result_type == "Growth":
if result.cells[i]:
self.has_cells = True
if result.walls[i]:
self.has_walls = True
self.has_points = bool(result.data.cell_points)
self.nextImage()
translate = bbox.topLeft()
translate *= -1
self.translate = translate
size = bbox.size().toSize()
self.img_size = size
self._crop = QRect(QPoint(0, 0), size)
self.finished()
self._loading_arguments = {
} # All done, we don't need that anymore
except RetryTrackingDataException as ex:
ex.filename = filename
self.retryObject = ex
self.finished()
return
except Exception as ex:
_, _, exceptionTraceback = sys.exc_info()
self.abort(ex, traceback=exceptionTraceback)
raise
def run_full(self):
if not self.valid():
self.abort("Object was not correctly initialized")
return
self.stop(False)
painter = None
try:
result = self.result
self.update_nb_images(len(result))
# if self.result_type == "Data":
# data = result
# images = result.images_name
# else:
# data = result.data
# images = result.images
# cache = image_cache.cache
cellColoring = self.cellColoring
wallColoring = self.wallColoring
pointColoring = self.pointColoring
file_format = self.fileFormat
file_pattern = "%s%%0%dd.%s" % (self.filePrefix,
len(str(len(result))), file_format)
wall_file_pattern = "%s%%0%dd_wall.%s" % (
self.filePrefix, len(str(len(result))), file_format)
cell_file_pattern = "%s%%0%dd_cell.%s" % (
self.filePrefix, len(str(len(result))), file_format)
cellColoring.init()
wallColoring.init()
pointColoring.init()
self.nextImage()
for i in range(len(result)):
if self.stopped():
self.abort("User interruption")
return
pix, pic_w, pic_c = self.drawImage(i)
pix.save(file_pattern % (i + 1), file_format)
if pic_w is not None:
self.saveExtra(pic_w, wall_file_pattern % (i + 1),
file_format)
if pic_c is not None:
self.saveExtra(pic_c, cell_file_pattern % (i + 1),
file_format)
self.nextImage()
self.finished()
except Exception as ex:
if painter is not None:
painter.end()
_, _, exceptionTraceback = sys.exc_info()
self.abort(ex, traceback=exceptionTraceback)
raise
def saveExtra(self, picture, file_name, file_format):
rect = picture.boundingRect()
pix = QImage(rect.size(), QImage.Format_ARGB32)
pix.fill(QColor(0, 0, 0, 0).rgba())
paint = QPainter()
paint.begin(pix)
paint.drawPicture(rect.topLeft() * -1, picture)
paint.end()
pix.save(file_name, file_format)
class WebPage(QObject):
javaScriptAlertSent = pyqtSignal(str)
javaScriptConsoleMessageSent = pyqtSignal(str, int, str)
loadStarted = pyqtSignal()
loadFinished = pyqtSignal(str)
resourceReceived = pyqtSignal('QVariantMap')
resourceRequested = pyqtSignal('QVariantMap')
def __init__(self, parent=None):
QObject.__init__(self, parent)
# variable declarations
self.m_paperSize = {}
self.m_clipRect = QRect()
self.m_libraryPath = ''
self.setObjectName('WebPage')
self.m_webPage = CustomPage(self)
self.m_mainFrame = self.m_webPage.mainFrame()
self.m_webPage.loadStarted.connect(self.loadStarted)
self.m_webPage.loadFinished.connect(self.finish)
# Start with transparent background
palette = self.m_webPage.palette()
palette.setBrush(QPalette.Base, Qt.transparent)
self.m_webPage.setPalette(palette)
# Page size does not need to take scrollbars into account
self.m_webPage.mainFrame().setScrollBarPolicy(Qt.Horizontal, Qt.ScrollBarAlwaysOff)
self.m_webPage.mainFrame().setScrollBarPolicy(Qt.Vertical, Qt.ScrollBarAlwaysOff)
self.m_webPage.settings().setAttribute(QWebSettings.OfflineStorageDatabaseEnabled, True)
self.m_webPage.settings().setOfflineStoragePath(QDesktopServices.storageLocation(QDesktopServices.DataLocation))
self.m_webPage.settings().setAttribute(QWebSettings.LocalStorageDatabaseEnabled, True)
self.m_webPage.settings().setAttribute(QWebSettings.OfflineWebApplicationCacheEnabled, True)
self.m_webPage.settings().setOfflineWebApplicationCachePath(QDesktopServices.storageLocation(QDesktopServices.DataLocation))
self.m_webPage.settings().setAttribute(QWebSettings.FrameFlatteningEnabled, True)
self.m_webPage.settings().setAttribute(QWebSettings.LocalStorageEnabled, True)
self.m_webPage.settings().setLocalStoragePath(QDesktopServices.storageLocation(QDesktopServices.DataLocation))
# Ensure we have a document.body.
self.m_webPage.mainFrame().setHtml('<html><body></body></html>')
self.m_webPage.setViewportSize(QSize(400, 300))
do_action('WebPageInit')
def applySettings(self, defaults):
opt = self.m_webPage.settings()
opt.setAttribute(QWebSettings.AutoLoadImages, defaults['loadImages'])
opt.setAttribute(QWebSettings.PluginsEnabled, defaults['loadPlugins'])
opt.setAttribute(QWebSettings.LocalContentCanAccessRemoteUrls, defaults['localAccessRemote'])
if 'userAgent' in defaults:
self.m_webPage.m_userAgent = defaults['userAgent']
def finish(self, ok):
status = 'success' if ok else 'fail'
self.loadFinished.emit(status)
def mainFrame(self):
return self.m_mainFrame
def renderImage(self):
viewportSize = self.m_webPage.viewportSize()
frameRect = QRect(QPoint(0, 0), viewportSize)
if not self.m_clipRect.isEmpty():
frameRect = self.m_clipRect
if self.m_webPage.scrollPosition:
self.m_webPage.mainFrame().\
setScrollPosition(QPoint(self.m_webPage.scrollPosition.x(),
self.m_webPage.scrollPosition.y() ))
image = QImage(frameRect.size(), QImage.Format_ARGB32)
image.fill(qRgba(255, 255, 255, 0))
painter = QPainter()
# We use tiling approach to work-around Qt software rasterizer bug
# when dealing with very large paint device.
# See http://code.google.com/p/phantomjs/issues/detail?id=54.
tileSize = 4096
htiles = (image.width() + tileSize - 1) / tileSize
vtiles = (image.height() + tileSize - 1) / tileSize
for x in range(htiles):
for y in range(vtiles):
tileBuffer = QImage(tileSize, tileSize, QImage.Format_ARGB32)
tileBuffer.fill(qRgba(255, 255, 255, 0))
# Render the web page onto the small tile first
painter.begin(tileBuffer)
painter.setRenderHint(QPainter.Antialiasing, True)
painter.setRenderHint(QPainter.TextAntialiasing, True)
painter.setRenderHint(QPainter.SmoothPixmapTransform, True)
painter.translate(-frameRect.left(), -frameRect.top())
painter.translate(-x * tileSize, -y * tileSize)
self.m_mainFrame.render(painter, QRegion(frameRect))
painter.end()
# Copy the tile to the main buffer
painter.begin(image)
painter.setCompositionMode(QPainter.CompositionMode_Source)
painter.drawImage(x * tileSize, y * tileSize, tileBuffer)
painter.end()
self.m_webPage.setViewportSize(viewportSize)
return image
def renderPdf(self, fileName):
p = QPrinter()
p.setOutputFormat(QPrinter.PdfFormat)
p.setOutputFileName(fileName)
p.setResolution(pdf_dpi)
paperSize = self.m_paperSize
if not len(paperSize):
pageSize = QSize(self.m_webPage.mainFrame().contentsSize())
paperSize['width'] = str(pageSize.width()) + 'px'
paperSize['height'] = str(pageSize.height()) + 'px'
paperSize['border'] = '0px'
if paperSize.get('width') and paperSize.get('height'):
sizePt = QSizeF(ceil(self.stringToPointSize(paperSize['width'])),
ceil(self.stringToPointSize(paperSize['height'])))
p.setPaperSize(sizePt, QPrinter.Point)
elif 'format' in paperSize:
orientation = QPrinter.Landscape if paperSize.get('orientation') and paperSize['orientation'].lower() == 'landscape' else QPrinter.Portrait
orientation = QPrinter.Orientation(orientation)
p.setOrientation(orientation)
formats = {
'A0': QPrinter.A0,
'A1': QPrinter.A1,
'A2': QPrinter.A2,
'A3': QPrinter.A3,
'A4': QPrinter.A4,
'A5': QPrinter.A5,
'A6': QPrinter.A6,
'A7': QPrinter.A7,
'A8': QPrinter.A8,
'A9': QPrinter.A9,
'B0': QPrinter.B0,
'B1': QPrinter.B1,
'B2': QPrinter.B2,
'B3': QPrinter.B3,
'B4': QPrinter.B4,
'B5': QPrinter.B5,
'B6': QPrinter.B6,
'B7': QPrinter.B7,
'B8': QPrinter.B8,
'B9': QPrinter.B9,
'B10': QPrinter.B10,
'C5E': QPrinter.C5E,
'Comm10E': QPrinter.Comm10E,
'DLE': QPrinter.DLE,
'Executive': QPrinter.Executive,
'Folio': QPrinter.Folio,
'Ledger': QPrinter.Ledger,
'Legal': QPrinter.Legal,
'Letter': QPrinter.Letter,
'Tabloid': QPrinter.Tabloid
}
p.setPaperSize(QPrinter.A4) # fallback
for format, size in formats.items():
if format.lower() == paperSize['format'].lower():
p.setPaperSize(size)
break
else:
return False
border = floor(self.stringToPointSize(paperSize['border'])) if paperSize.get('border') else 0
p.setPageMargins(border, border, border, border, QPrinter.Point)
self.m_webPage.mainFrame().print_(p)
return True
def setNetworkAccessManager(self, networkAccessManager):
self.m_webPage.setNetworkAccessManager(networkAccessManager)
networkAccessManager.resourceRequested.connect(self.resourceRequested)
networkAccessManager.resourceReceived.connect(self.resourceReceived)
def stringToPointSize(self, string):
units = (
('mm', 72 / 25.4),
('cm', 72 / 2.54),
('in', 72.0),
('px', 72.0 / pdf_dpi / 2.54),
('', 72.0 / pdf_dpi / 2.54)
)
for unit, format in units:
if string.endswith(unit):
value = string.rstrip(unit)
return float(value) * format
return 0
def userAgent(self):
return self.m_webPage.m_userAgent
##
# Properties and methods exposed to JavaScript
##
@pyqtSlot(str)
def _appendScriptElement(self, scriptUrl):
self.m_mainFrame.evaluateJavaScript('''
var el = document.createElement('script');
el.onload = function() { alert('%(scriptUrl)s'); };
el.src = '%(scriptUrl)s';
document.body.appendChild(el);
''' % {'scriptUrl': scriptUrl})
@pyqtProperty('QVariantMap')
def clipRect(self):
result = {
'width': self.m_clipRect.width(),
'height': self.m_clipRect.height(),
'top': self.m_clipRect.top(),
'left': self.m_clipRect.left()
}
return result
@clipRect.setter
def clipRect(self, size):
sizes = {'width': 0, 'height': 0, 'top': 0, 'left': 0}
for item in sizes.keys():
try:
sizes[item] = int(size[item])
if sizes[item] < 0:
if item not in ('top', 'left'):
sizes[item] = 0
except (KeyError, ValueError):
sizes[item] = self.clipRect[item]
self.m_clipRect = QRect(sizes['left'], sizes['top'], sizes['width'], sizes['height'])
@pyqtProperty(str)
def content(self):
return self.m_mainFrame.toHtml()
@content.setter
def content(self, content):
self.m_mainFrame.setHtml(content)
@pyqtSlot(str, result='QVariant')
def evaluate(self, code):
function = '(%s)()' % code
return self.m_mainFrame.evaluateJavaScript(function)
@pyqtSlot(str, result=bool)
def injectJs(self, filePath):
return injectJsInFrame(filePath, self.m_libraryPath, self.m_mainFrame)
@pyqtSlot(str, str, 'QVariantMap')
@pyqtSlot(str, 'QVariantMap', 'QVariantMap')
def openUrl(self, address, op, settings):
operation = op
body = QByteArray()
self.applySettings(settings)
self.m_webPage.triggerAction(QWebPage.Stop)
if type(op) is dict:
operation = op.get('operation')
body = QByteArray(op.get('data', ''))
if operation == '':
operation = 'get'
networkOp = QNetworkAccessManager.CustomOperation
operation = operation.lower()
if operation == 'get':
networkOp = QNetworkAccessManager.GetOperation
elif operation == 'head':
networkOp = QNetworkAccessManager.HeadOperation
elif operation == 'put':
networkOp = QNetworkAccessManager.PutOperation
elif operation == 'post':
networkOp = QNetworkAccessManager.PostOperation
elif operation == 'delete':
networkOp = QNetworkAccessManager.DeleteOperation
if networkOp == QNetworkAccessManager.CustomOperation:
self.m_mainFrame.evaluateJavaScript('console.error("Unknown network operation: %s");' % operation)
return
self.m_mainFrame.load(QNetworkRequest(QUrl(address)), networkOp, body)
@pyqtProperty('QVariantMap')
def paperSize(self):
return self.m_paperSize
@paperSize.setter
def paperSize(self, size):
self.m_paperSize = size
@pyqtSlot(str, result=bool)
def render(self, fileName):
if self.m_mainFrame.contentsSize() == '':
return False
fileInfo = QFileInfo(fileName)
path = QDir()
path.mkpath(fileInfo.absolutePath())
if fileName.lower().endswith('.pdf'):
return self.renderPdf(fileName)
image = self.renderImage()
return image.save(fileName)
@pyqtProperty(str)
def libraryPath(self):
return self.m_libraryPath
@libraryPath.setter
def libraryPath(self, dirPath):
self.m_libraryPath = dirPath
@pyqtSlot(str, str)
def uploadFile(self, selector, fileName):
el = self.m_mainFrame.findFirstElement(selector)
if el.isNull():
return
self.m_webPage.m_uploadFile = fileName
el.evaluateJavaScript('''
(function (el) {
var ev = document.createEvent('MouseEvents');
ev.initEvent('click', true, true);
el.dispatchEvent(ev);
})(this)
''')
@pyqtProperty('QVariantMap')
def viewportSize(self):
size = self.m_webPage.viewportSize()
result = {
'width': size.width(),
'height': size.height()
}
return result
@viewportSize.setter
def viewportSize(self, size):
sizes = {'width': 0, 'height': 0}
for item in sizes.keys():
try:
sizes[item] = int(size[item])
if sizes[item] < 0:
sizes[item] = 0
except (KeyError, ValueError):
sizes[item] = self.viewportSize[item]
self.m_webPage.setViewportSize(QSize(sizes['width'], sizes['height']))
@pyqtProperty('QVariantMap')
def scrollPosition(self):
scroll = self.m_webPage.scrollPosition
result = {
'left': scroll.x(),
'top': scroll.y()
}
return result
@scrollPosition.setter
def scrollPosition(self, size):
names = ('left', 'top')
for item in names:
try:
globals()[item] = int(size[item])
if globals()[item] < 0:
globals()[item] = 0
except KeyError:
globals()[item] = getattr(self.m_webPage.scrollPosition, item)()
self.m_webPage.scrollPosition = QPoint(left, top)
do_action('WebPage')
class ConnecMapTool(ParentMapTool):
""" Button 20. User select connections from layer 'connec'
Execute SQL function: 'gw_fct_connect_to_network' """
def __init__(self, iface, settings, action, index_action):
""" Class constructor """
# Call ParentMapTool constructor
super(ConnecMapTool, self).__init__(iface, settings, action, index_action)
self.dragging = False
# Vertex marker
self.vertexMarker = QgsVertexMarker(self.canvas)
self.vertexMarker.setColor(QColor(255, 25, 25))
self.vertexMarker.setIconSize(11)
self.vertexMarker.setIconType(QgsVertexMarker.ICON_BOX) # or ICON_CROSS, ICON_X
self.vertexMarker.setPenWidth(5)
# Rubber band
self.rubberBand = QgsRubberBand(self.canvas, True)
mFillColor = QColor(100, 0, 0)
self.rubberBand.setColor(mFillColor)
self.rubberBand.setWidth(3)
mBorderColor = QColor(254, 58, 29)
self.rubberBand.setBorderColor(mBorderColor)
# Select rectangle
self.selectRect = QRect()
def reset(self):
""" Clear selected features """
layer = self.layer_connec
if layer is not None:
layer.removeSelection()
# Graphic elements
self.rubberBand.reset()
""" QgsMapTools inherited event functions """
def canvasMoveEvent(self, event):
""" With left click the digitizing is finished """
if event.buttons() == Qt.LeftButton:
if not self.dragging:
self.dragging = True
self.selectRect.setTopLeft(event.pos())
self.selectRect.setBottomRight(event.pos())
self.set_rubber_band()
else:
# Hide highlight
self.vertexMarker.hide()
# Get the click
x = event.pos().x()
y = event.pos().y()
eventPoint = QPoint(x, y)
# Snapping
(retval, result) = self.snapper.snapToBackgroundLayers(eventPoint) # @UnusedVariable
# That's the snapped point
if result <> []:
# Check Arc or Node
for snapPoint in result:
if snapPoint.layer == self.layer_connec:
# Get the point
point = QgsPoint(result[0].snappedVertex)
# Add marker
self.vertexMarker.setCenter(point)
self.vertexMarker.show()
break
def canvasPressEvent(self, event):
self.selectRect.setRect(0, 0, 0, 0)
self.rubberBand.reset()
def canvasReleaseEvent(self, event):
""" With left click the digitizing is finished """
if event.button() == Qt.LeftButton:
# Get the click
x = event.pos().x()
y = event.pos().y()
eventPoint = QPoint(x, y)
# Node layer
layer = self.layer_connec
# Not dragging, just simple selection
if not self.dragging:
# Snap to node
(retval, result) = self.snapper.snapToBackgroundLayers(eventPoint) # @UnusedVariable
# That's the snapped point
if result <> [] and (result[0].layer.name() == self.layer_connec.name()):
point = QgsPoint(result[0].snappedVertex) # @UnusedVariable
layer.removeSelection()
layer.select([result[0].snappedAtGeometry])
# Create link
self.link_connec()
# Hide highlight
self.vertexMarker.hide()
else:
# Set valid values for rectangle's width and height
if self.selectRect.width() == 1:
self.selectRect.setLeft(self.selectRect.left() + 1)
if self.selectRect.height() == 1:
self.selectRect.setBottom(self.selectRect.bottom() + 1)
self.set_rubber_band()
selectGeom = self.rubberBand.asGeometry() # @UnusedVariable
self.select_multiple_features(self.selectRectMapCoord)
self.dragging = False
# Create link
self.link_connec()
elif event.button() == Qt.RightButton:
# Create link
self.link_connec()
def activate(self):
# Check button
self.action().setChecked(True)
# Rubber band
self.rubberBand.reset()
# Store user snapping configuration
self.snapperManager.storeSnappingOptions()
# Clear snapping
self.snapperManager.clearSnapping()
# Set snapping to arc and node
self.snapperManager.snapToConnec()
# Change cursor
self.canvas.setCursor(self.cursor)
# Show help message when action is activated
if self.show_help:
message = (
"Right click to use current selection, select connec points by clicking or dragging (selection box)"
)
self.controller.show_info(message, context_name="ui_message")
# Control current layer (due to QGIS bug in snapping system)
try:
if self.canvas.currentLayer().type() == QgsMapLayer.VectorLayer:
self.canvas.setCurrentLayer(self.layer_connec)
except:
self.canvas.setCurrentLayer(self.layer_connec)
def deactivate(self):
# Check button
self.action().setChecked(False)
# Rubber band
self.rubberBand.reset()
# Restore previous snapping
self.snapperManager.recoverSnappingOptions()
# Recover cursor
self.canvas.setCursor(self.stdCursor)
def link_connec(self):
""" Link selected connec to the pipe """
# Get selected features (from layer 'connec')
aux = "{"
layer = self.layer_connec
if layer.selectedFeatureCount() == 0:
message = "You have to select at least one feature!"
self.controller.show_warning(message, context_name="ui_message")
return
features = layer.selectedFeatures()
for feature in features:
connec_id = feature.attribute("connec_id")
aux += str(connec_id) + ", "
connec_array = aux[:-2] + "}"
# Execute function
function_name = "gw_fct_connect_to_network"
sql = "SELECT " + self.schema_name + "." + function_name + "('" + connec_array + "');"
self.controller.execute_sql(sql)
# Refresh map canvas
self.rubberBand.reset()
self.iface.mapCanvas().refresh()
def set_rubber_band(self):
# Coordinates transform
transform = self.canvas.getCoordinateTransform()
# Coordinates
ll = transform.toMapCoordinates(self.selectRect.left(), self.selectRect.bottom())
lr = transform.toMapCoordinates(self.selectRect.right(), self.selectRect.bottom())
ul = transform.toMapCoordinates(self.selectRect.left(), self.selectRect.top())
ur = transform.toMapCoordinates(self.selectRect.right(), self.selectRect.top())
# Rubber band
self.rubberBand.reset()
self.rubberBand.addPoint(ll, False)
self.rubberBand.addPoint(lr, False)
self.rubberBand.addPoint(ur, False)
self.rubberBand.addPoint(ul, False)
self.rubberBand.addPoint(ll, True)
self.selectRectMapCoord = QgsRectangle(ll, ur)
def select_multiple_features(self, selectGeometry):
# Default choice
behaviour = QgsVectorLayer.SetSelection
# Modifiers
modifiers = QApplication.keyboardModifiers()
if modifiers == Qt.ControlModifier:
behaviour = QgsVectorLayer.AddToSelection
elif modifiers == Qt.ShiftModifier:
behaviour = QgsVectorLayer.RemoveFromSelection
if self.layer_connec is None:
return
# Change cursor
QApplication.setOverrideCursor(Qt.WaitCursor)
# Selection
self.layer_connec.selectByRect(selectGeometry, behaviour)
# Old cursor
QApplication.restoreOverrideCursor()