def svg(self, filename, rect=None, resolution=72.0, paperColor=None):
"""Create a SVG file for the selected rect or the whole page.
The filename may be a string or a QIODevice object. The rectangle is
relative to our top-left position. Normally vector graphics are
rendered, but in cases where that is not possible, the resolution will
be used to determine the DPI for the generated rendering.
"""
# map to the original page
source = self.pageRect() if rect is None else self.mapFromPage().rect(
rect)
# scale to target size
w = source.width() * self.scaleX
h = source.height() * self.scaleY
if self.computedRotation & 1:
w, h = h, w
targetSize = QSizeF(w, h) * resolution / self.dpi
svg = QSvgGenerator()
if isinstance(filename, str):
svg.setFileName(filename)
else:
svg.setOutputDevice(filename)
svg.setResolution(int(resolution))
svg.setSize(targetSize.toSize())
svg.setViewBox(QRectF(0, 0, targetSize.width(), targetSize.height()))
return self.output(svg, source, paperColor)
def max_size(self):
size = QSizeF(0, 0)
for cluster in self.__clusters:
for obj in cluster.objects:
if obj.x() > size.width():
size.setWidth(obj.x())
if obj.y() > size.height():
size.setHeight(obj.y())
return size
def boundingRect(self, arg):
tp = type(arg)
if tp == QRect:
rect = arg
tileWidth = self.map().tileWidth()
tileHeight = self.map().tileHeight()
return QRect(rect.x() * tileWidth,
rect.y() * tileHeight,
rect.width() * tileWidth,
rect.height() * tileHeight)
elif tp == MapObject:
object = arg
bounds = object.bounds()
boundingRect = QRectF()
if (not object.cell().isEmpty()):
bottomLeft = bounds.topLeft()
tile = object.cell().tile
imgSize = tile.image().size()
tileOffset = tile.offset()
objectSize = object.size()
scale = QSizeF(objectSize.width() / imgSize.width(),
objectSize.height() / imgSize.height())
boundingRect = QRectF(
bottomLeft.x() + (tileOffset.x() * scale.width()),
bottomLeft.y() +
(tileOffset.y() * scale.height() - objectSize.height()),
objectSize.width(),
objectSize.height()).adjusted(-1, -1, 1, 1)
else:
extraSpace = max(self.objectLineWidth(), 1.0)
x = object.shape()
if x == MapObject.Ellipse or x == MapObject.Rectangle:
if (bounds.isNull()):
boundingRect = bounds.adjusted(-10 - extraSpace,
-10 - extraSpace,
10 + extraSpace + 1,
10 + extraSpace + 1)
else:
boundingRect = bounds.adjusted(-extraSpace,
-extraSpace,
extraSpace + 1,
extraSpace + 1)
elif x == MapObject.Polygon or x == MapObject.Polyline:
# Make some more room for the starting dot
extraSpace += self.objectLineWidth() * 4
pos = object.position()
polygon = object.polygon().translated(pos)
screenPolygon = self.pixelToScreenCoords_(polygon)
boundingRect = screenPolygon.boundingRect().adjusted(
-extraSpace, -extraSpace, extraSpace + 1,
extraSpace + 1)
return boundingRect
def boundingRect(self, arg):
tp = type(arg)
if tp==QRect:
rect = arg
tileWidth = self.map().tileWidth()
tileHeight = self.map().tileHeight()
return QRect(rect.x() * tileWidth,
rect.y() * tileHeight,
rect.width() * tileWidth,
rect.height() * tileHeight)
elif tp==MapObject:
object = arg
bounds = object.bounds()
boundingRect = QRectF()
if (not object.cell().isEmpty()):
bottomLeft = bounds.topLeft()
tile = object.cell().tile
imgSize = tile.image().size()
tileOffset = tile.offset()
objectSize = object.size()
scale = QSizeF(objectSize.width() / imgSize.width(), objectSize.height() / imgSize.height())
boundingRect = QRectF(bottomLeft.x() + (tileOffset.x() * scale.width()),
bottomLeft.y() + (tileOffset.y() * scale.height() - objectSize.height()),
objectSize.width(),
objectSize.height()).adjusted(-1, -1, 1, 1)
else:
extraSpace = max(self.objectLineWidth(), 1.0)
x = object.shape()
if x==MapObject.Ellipse or x==MapObject.Rectangle:
if (bounds.isNull()):
boundingRect = bounds.adjusted(-10 - extraSpace,
-10 - extraSpace,
10 + extraSpace + 1,
10 + extraSpace + 1)
else:
boundingRect = bounds.adjusted(-extraSpace,
-extraSpace,
extraSpace + 1,
extraSpace + 1)
elif x==MapObject.Polygon or x==MapObject.Polyline:
# Make some more room for the starting dot
extraSpace += self.objectLineWidth() * 4
pos = object.position()
polygon = object.polygon().translated(pos)
screenPolygon = self.pixelToScreenCoords_(polygon)
boundingRect = screenPolygon.boundingRect().adjusted(-extraSpace,
-extraSpace,
extraSpace + 1,
extraSpace + 1)
return boundingRect
def boundingRect(self, arg):
tp = type(arg)
if tp == QRect:
rect = arg
tileWidth = self.map().tileWidth()
tileHeight = self.map().tileHeight()
originX = int(self.map().height() * tileWidth / 2)
pos = QPoint(
(rect.x() - (rect.y() + rect.height())) * tileWidth / 2 +
originX, (rect.x() + rect.y()) * tileHeight / 2)
side = rect.height() + rect.width()
size = QSize(side * tileWidth / 2, side * tileHeight / 2)
return QRect(pos, size)
elif tp == MapObject:
object = arg
if (not object.cell().isEmpty()):
bottomCenter = self.pixelToScreenCoords_(object.position())
tile = object.cell().tile
imgSize = tile.image().size()
tileOffset = tile.offset()
objectSize = object.size()
scale = QSizeF(objectSize.width() / imgSize.width(),
objectSize.height() / imgSize.height())
return QRectF(
bottomCenter.x() + (tileOffset.x() * scale.width()) -
objectSize.width() / 2,
bottomCenter.y() + (tileOffset.y() * scale.height()) -
objectSize.height(), objectSize.width(),
objectSize.height()).adjusted(-1, -1, 1, 1)
elif (not object.polygon().isEmpty()):
extraSpace = max(self.objectLineWidth(), 1.0)
# Make some more room for the starting dot
extraSpace += self.objectLineWidth() * 4
pos = object.position()
polygon = object.polygon().translated(pos)
screenPolygon = self.pixelToScreenCoords_(polygon)
return screenPolygon.boundingRect().adjusted(
-extraSpace, -extraSpace - 1, extraSpace, extraSpace)
else:
# Take the bounding rect of the projected object, and then add a few
# pixels on all sides to correct for the line width.
base = self.pixelRectToScreenPolygon(
object.bounds()).boundingRect()
extraSpace = max(self.objectLineWidth() / 2, 1.0)
return base.adjusted(-extraSpace, -extraSpace - 1, extraSpace,
extraSpace)
def paint_screenshot_image(
painter: QPainter,
scene: QGraphicsScene,
image_size: QSize,
scene_rect: QRectF = QRectF(),
transparent_background=False,
) -> QImage:
# with elapsed_timer() as elapsed:
painter.fillRect(QRect(QPoint(0, 0), image_size),
painter.background().color())
scene_items = scene.items(scene_rect, Qt.IntersectsItemBoundingRect)
only_leaf_items = [
item for item in scene_items if len(item.childItems()) == 0
]
item_parents = {}
item_groups = {}
for item in only_leaf_items:
if item.group():
item_groups[item] = item.group()
item.group().setVisible(False)
elif item.parentItem():
item_parents[item] = item.parentItem()
item.parentItem().setVisible(False)
group_for_screenshot = QGraphicsItemGroup()
for item in only_leaf_items:
group_for_screenshot.addToGroup(item)
scene.addItem(group_for_screenshot)
group_for_screenshot.setVisible(True)
# scene_items2 = scene.items(scene_rect, Qt.IntersectsItemBoundingRect)
# print(scene_items2)
# print("before render==========================================")
rendered_size = scene_rect.size().scaled(QSizeF(image_size),
Qt.KeepAspectRatio)
dsize = QSizeF(image_size) - rendered_size
top_left = QPointF(dsize.width() / 2, dsize.height() / 2)
scene.render(painter, QRectF(top_left, rendered_size), scene_rect,
Qt.KeepAspectRatio)
scene.destroyItemGroup(group_for_screenshot)
for item in item_parents:
parent = item_parents[item]
item.setParentItem(parent)
parent.setVisible(True)
for item in item_groups:
group = item_groups[item]
group.addToGroup(item)
group.setVisible(True)
def boundingRect(self, arg):
tp = type(arg)
if tp == QRect:
rect = arg
tileWidth = self.map().tileWidth()
tileHeight = self.map().tileHeight()
originX = int(self.map().height() * tileWidth / 2)
pos = QPoint((rect.x() - (rect.y() + rect.height())) * tileWidth / 2 + originX, (rect.x() + rect.y()) * tileHeight / 2)
side = rect.height() + rect.width()
size = QSize(side * tileWidth / 2, side * tileHeight / 2)
return QRect(pos, size)
elif tp == MapObject:
object = arg
if (not object.cell().isEmpty()):
bottomCenter = self.pixelToScreenCoords_(object.position())
tile = object.cell().tile
imgSize = tile.image().size()
tileOffset = tile.offset()
objectSize = object.size()
scale = QSizeF(objectSize.width() / imgSize.width(), objectSize.height() / imgSize.height())
return QRectF(bottomCenter.x() + (tileOffset.x() * scale.width()) - objectSize.width() / 2,
bottomCenter.y() + (tileOffset.y() * scale.height()) - objectSize.height(),
objectSize.width(),
objectSize.height()).adjusted(-1, -1, 1, 1)
elif (not object.polygon().isEmpty()):
extraSpace = max(self.objectLineWidth(), 1.0)
# Make some more room for the starting dot
extraSpace += self.objectLineWidth() * 4
pos = object.position()
polygon = object.polygon().translated(pos)
screenPolygon = self.pixelToScreenCoords_(polygon)
return screenPolygon.boundingRect().adjusted(-extraSpace,
-extraSpace - 1,
extraSpace,
extraSpace)
else:
# Take the bounding rect of the projected object, and then add a few
# pixels on all sides to correct for the line width.
base = self.pixelRectToScreenPolygon(object.bounds()).boundingRect()
extraSpace = max(self.objectLineWidth() / 2, 1.0)
return base.adjusted(-extraSpace,
-extraSpace - 1,
extraSpace, extraSpace)
class PandaWidget(QWidget):
def __init__(self,
panda3DWorld,
label_info,
parent=None,
FPS=60,
debug=False):
QWidget.__init__(self, parent)
# set fixed geometry
self.panda3DWorld = panda3DWorld
self.panda3DWorld.set_parent(self)
self.label_info = label_info
self.setFocusPolicy(Qt.StrongFocus)
self.paintSurface = QPainter()
self.rotate = QTransform()
self.rotate.rotate(180)
self.out_image = QImage()
size = self.panda3DWorld.cam.node().get_lens().get_film_size()
self.initial_film_size = QSizeF(size.x, size.y)
self.initial_size = self.size()
self.synchronizer = QPanda3DSynchronizer(self, FPS)
self.synchronizer.start()
self.debug = debug
self.update_sgam()
def get_scene_graph_analyzer_meter(self):
return self.panda3DWorld.get_scene_graph_analyzer_meter()
def update_sgam(self):
text = sceneGraphAnalyzerMeterParser(
self.get_scene_graph_analyzer_meter()).toText()
self.label_info.setText(text)
def mousePressEvent(self, event):
self.panda3DWorld.camera_controller.mouse_press(
event.button(), event.x(), event.y())
def mouseReleaseEvent(self, event):
self.panda3DWorld.camera_controller.mouse_release(
event.button(), event.x(), event.y())
def mouseMoveEvent(self, event):
self.panda3DWorld.camera_controller.mouse_move(event.button(),
event.x(), event.y())
def wheelEvent(self, evt):
delta = -evt.angleDelta().y()
self.panda3DWorld.camera_controller.zoom_event(delta)
def keyPressEvent(self, evt):
key = evt.key()
try:
k = "{}{}".format(get_panda_key_modifiers_prefix(evt),
QPanda3D_Key_translation[key])
if self.debug:
print(k)
messenger.send(k)
except:
print(
"Unimplemented key. Please send an issue on github to fix this problem"
)
def keyReleaseEvent(self, evt):
key = evt.key()
try:
k = "{}{}-up".format(get_panda_key_modifiers_prefix(evt),
QPanda3D_Key_translation[key])
if self.debug:
print(k)
messenger.send(k)
except:
print(
"Unimplemented key. Please send an issue on github to fix this problem"
)
def resizeEvent(self, evt):
lens = self.panda3DWorld.cam.node().get_lens()
lens.set_film_size(
self.initial_film_size.width() * evt.size().width() /
self.initial_size.width(),
self.initial_film_size.height() * evt.size().height() /
self.initial_size.height())
self.panda3DWorld.buff.setSize(evt.size().width(), evt.size().height())
def minimumSizeHint(self):
return QSize(400, 300)
# Use the paint event to pull the contents of the panda texture to the widget
def paintEvent(self, event):
if self.panda3DWorld.screenTexture.mightHaveRamImage():
self.panda3DWorld.screenTexture.setFormat(Texture.FRgba32)
data = self.panda3DWorld.screenTexture.getRamImage().getData()
img = QImage(data, self.panda3DWorld.screenTexture.getXSize(),
self.panda3DWorld.screenTexture.getYSize(),
QImage.Format_ARGB32).mirrored()
self.paintSurface.begin(self)
self.paintSurface.drawImage(0, 0, img)
self.paintSurface.end()
def rotateX(self, value):
self.panda3DWorld.camera_controller.rotateTheta(value)
def rotateY(self, value):
self.panda3DWorld.camera_controller.rotatePhi(value)
def render(self, cell, pos, cellSize, origin):
if (self.mTile != cell.tile):
self.flush()
image = cell.tile.currentFrameImage()
size = image.size()
if cellSize == QSizeF(0, 0):
objectSize = size
else:
objectSize = cellSize
scale = QSizeF(objectSize.width() / size.width(),
objectSize.height() / size.height())
offset = cell.tile.offset()
sizeHalf = QPointF(objectSize.width() / 2, objectSize.height() / 2)
fragment = QPainter.PixmapFragment()
fragment.x = pos.x() + (offset.x() * scale.width()) + sizeHalf.x()
fragment.y = pos.y() + (
offset.y() * scale.height()) + sizeHalf.y() - objectSize.height()
fragment.sourceLeft = 0
fragment.sourceTop = 0
fragment.width = size.width()
fragment.height = size.height()
if cell.flippedHorizontally:
fragment.scaleX = -1
else:
fragment.scaleX = 1
if cell.flippedVertically:
fragment.scaleY = -1
else:
fragment.scaleY = 1
fragment.rotation = 0
fragment.opacity = 1
flippedHorizontally = cell.flippedHorizontally
flippedVertically = cell.flippedVertically
if (origin == CellRenderer.BottomCenter):
fragment.x -= sizeHalf.x()
if (cell.flippedAntiDiagonally):
fragment.rotation = 90
flippedHorizontally = cell.flippedVertically
flippedVertically = not cell.flippedHorizontally
# Compensate for the swap of image dimensions
halfDiff = sizeHalf.y() - sizeHalf.x()
fragment.y += halfDiff
if (origin != CellRenderer.BottomCenter):
fragment.x += halfDiff
if flippedHorizontally:
x = -1
else:
x = 1
fragment.scaleX = scale.width() * x
if flippedVertically:
x = -1
else:
x = 1
fragment.scaleY = scale.height() * x
if (self.mIsOpenGL or (fragment.scaleX > 0 and fragment.scaleY > 0)):
self.mTile = cell.tile
self.mFragments.append(fragment)
return
# The Raster paint engine as of Qt 4.8.4 / 5.0.2 does not support
# drawing fragments with a negative scaling factor.
self.flush() # make sure we drew all tiles so far
oldTransform = self.mPainter.transform()
transform = oldTransform
transform.translate(fragment.x, fragment.y)
transform.rotate(fragment.rotation)
transform.scale(fragment.scaleX, fragment.scaleY)
target = QRectF(fragment.width * -0.5, fragment.height * -0.5,
fragment.width, fragment.height)
source = QRectF(0, 0, fragment.width, fragment.height)
self.mPainter.setTransform(transform)
self.mPainter.drawPixmap(target, image, source)
self.mPainter.setTransform(oldTransform)
def updateResizingSingleItem(self, resizingOrigin, screenPos, modifiers):
renderer = self.mapDocument().renderer()
object = self.mMovingObjects.first()
mapObject = object.item.mapObject()
## The resizingOrigin, screenPos and mStart are affected by the ObjectGroup
# offset. We will un-apply it to these variables since the resize for
# single items happens in local coordinate space.
##
offset = mapObject.objectGroup().offset()
## These transformations undo and redo the object rotation, which is always
# applied in screen space.
##
unrotate = rotateAt(object.oldItemPosition, -object.oldRotation)
rotate = rotateAt(object.oldItemPosition, object.oldRotation)
origin = (resizingOrigin - offset) * unrotate
pos = (screenPos - offset) * unrotate
start = (self.mStart - offset) * unrotate
oldPos = object.oldItemPosition
## In order for the resizing to work somewhat sanely in isometric mode,
# the resizing is performed in pixel space except for tile objects, which
# are not affected by isometric projection apart from their position.
##
pixelSpace = resizeInPixelSpace(mapObject)
preserveAspect = modifiers & Qt.ControlModifier
if (pixelSpace):
origin = renderer.screenToPixelCoords_(origin)
pos = renderer.screenToPixelCoords_(pos)
start = renderer.screenToPixelCoords_(start)
oldPos = object.oldPosition
newPos = oldPos
newSize = object.oldSize
## In case one of the anchors was used as-is, the desired size can be
# derived directly from the distance from the origin for rectangle
# and ellipse objects. This allows scaling up a 0-sized object without
# dealing with infinite scaling factor issues.
#
# For obvious reasons this can't work on polygons or polylines, nor when
# preserving the aspect ratio.
##
if (self.mClickedResizeHandle.resizingOrigin() == resizingOrigin and (mapObject.shape() == MapObject.Rectangle or
mapObject.shape() == MapObject.Ellipse) and not preserveAspect):
newBounds = QRectF(newPos, newSize)
newBounds = align(newBounds, mapObject.alignment())
x = self.mClickedResizeHandle.anchorPosition()
if x==AnchorPosition.LeftAnchor or x==AnchorPosition.TopLeftAnchor or x==AnchorPosition.BottomLeftAnchor:
newBounds.setLeft(min(pos.x(), origin.x()))
elif x==AnchorPosition.RightAnchor or x==AnchorPosition.TopRightAnchor or x==AnchorPosition.BottomRightAnchor:
newBounds.setRight(max(pos.x(), origin.x()))
else:
# nothing to do on this axis
pass
x = self.mClickedResizeHandle.anchorPosition()
if x==AnchorPosition.TopAnchor or x==AnchorPosition.TopLeftAnchor or x==AnchorPosition.TopRightAnchor:
newBounds.setTop(min(pos.y(), origin.y()))
elif x==AnchorPosition.BottomAnchor or x==AnchorPosition.BottomLeftAnchor or x==AnchorPosition.BottomRightAnchor:
newBounds.setBottom(max(pos.y(), origin.y()))
else:
# nothing to do on this axis
pass
newBounds = unalign(newBounds, mapObject.alignment())
newSize = newBounds.size()
newPos = newBounds.topLeft()
else:
relPos = pos - origin
startDiff = start - origin
try:
newx = relPos.x() / startDiff.x()
except:
newx = 0
try:
newy = relPos.y() / startDiff.y()
except:
newy = 0
scalingFactor = QSizeF(max(0.01, newx), max(0.01, newy))
if not math.isfinite(scalingFactor.width()):
scalingFactor.setWidth(1)
if not math.isfinite(scalingFactor.height()):
scalingFactor.setHeight(1)
if (self.mResizingLimitHorizontal):
if preserveAspect:
scalingFactor.setWidth(scalingFactor.height())
else:
scalingFactor.setWidth(1)
elif (self.mResizingLimitVertical):
if preserveAspect:
scalingFactor.setHeight(scalingFactor.width())
else:
scalingFactor.setHeight(1)
elif (preserveAspect):
scale = min(scalingFactor.width(), scalingFactor.height())
scalingFactor.setWidth(scale)
scalingFactor.setHeight(scale)
oldRelPos = oldPos - origin
newPos = origin + QPointF(oldRelPos.x() * scalingFactor.width(), oldRelPos.y() * scalingFactor.height())
newSize.setWidth(newSize.width() * scalingFactor.width())
newSize.setHeight(newSize.height() * scalingFactor.height())
if (not object.oldPolygon.isEmpty()):
newPolygon = QPolygonF(object.oldPolygon.size())
for n in range(object.oldPolygon.size()):
point = object.oldPolygon[n]
newPolygon[n] = QPointF(point.x() * scalingFactor.width(), point.y() * scalingFactor.height())
mapObject.setPolygon(newPolygon)
if (pixelSpace):
newPos = renderer.pixelToScreenCoords_(newPos)
newPos = renderer.screenToPixelCoords_(newPos * rotate)
mapObject.setSize(newSize)
mapObject.setPosition(newPos)
self.mapDocument().mapObjectModel().emitObjectsChanged(self.changingObjects())
class MapObject(Object):
##
# Enumerates the different object shapes. Rectangle is the default shape.
# When a polygon is set, the shape determines whether it should be
# interpreted as a filled polygon or a line.
##
Rectangle, Polygon, Polyline, Ellipse = range(4)
def __init__(self, *args):
super().__init__(Object.MapObjectType)
self.mPolygon = QPolygonF()
self.mName = QString()
self.mPos = QPointF()
self.mCell = Cell()
self.mType = QString()
self.mId = 0
self.mShape = MapObject.Rectangle
self.mObjectGroup = None
self.mRotation = 0.0
self.mVisible = True
l = len(args)
if l == 0:
self.mSize = QSizeF(0, 0)
elif l == 4:
name, _type, pos, size = args
self.mName = name
self.mType = _type
self.mPos = pos
self.mSize = QSizeF(size)
##
# Returns the id of this object. Each object gets an id assigned that is
# unique for the map the object is on.
##
def id(self):
return self.mId
##
# Sets the id of this object.
##
def setId(self, id):
self.mId = id
##
# Returns the name of this object. The name is usually just used for
# identification of the object in the editor.
##
def name(self):
return self.mName
##
# Sets the name of this object.
##
def setName(self, name):
self.mName = name
##
# Returns the type of this object. The type usually says something about
# how the object is meant to be interpreted by the engine.
##
def type(self):
return self.mType
##
# Sets the type of this object.
##
def setType(self, type):
self.mType = type
##
# Returns the position of this object.
##
def position(self):
return QPointF(self.mPos)
##
# Sets the position of this object.
##
def setPosition(self, pos):
self.mPos = pos
##
# Returns the x position of this object.
##
def x(self):
return self.mPos.x()
##
# Sets the x position of this object.
##
def setX(self, x):
self.mPos.setX(x)
##
# Returns the y position of this object.
##
def y(self):
return self.mPos.y()
##
# Sets the x position of this object.
##
def setY(self, y):
self.mPos.setY(y)
##
# Returns the size of this object.
##
def size(self):
return self.mSize
##
# Sets the size of this object.
##
def setSize(self, *args):
l = len(args)
if l == 1:
size = args[0]
self.mSize = QSizeF(size)
elif l == 2:
width, height = args
self.setSize(QSizeF(width, height))
##
# Returns the width of this object.
##
def width(self):
return self.mSize.width()
##
# Sets the width of this object.
##
def setWidth(self, width):
self.mSize.setWidth(width)
##
# Returns the height of this object.
##
def height(self):
return self.mSize.height()
##
# Sets the height of this object.
##
def setHeight(self, height):
self.mSize.setHeight(height)
##
# Sets the polygon associated with this object. The polygon is only used
# when the object shape is set to either Polygon or Polyline.
#
# \sa setShape()
##
def setPolygon(self, polygon):
self.mPolygon = polygon
##
# Returns the polygon associated with this object. Returns an empty
# polygon when no polygon is associated with this object.
##
def polygon(self):
return QPolygonF(self.mPolygon)
##
# Sets the shape of the object.
##
def setShape(self, shape):
self.mShape = shape
##
# Returns the shape of the object.
##
def shape(self):
return self.mShape
##
# Shortcut to getting a QRectF from position() and size().
##
def bounds(self):
return QRectF(self.mPos, self.mSize)
##
# Shortcut to getting a QRectF from position() and size() that uses cell tile if present.
##
def boundsUseTile(self):
if (self.mCell.isEmpty()):
# No tile so just use regular bounds
return self.bounds()
# Using the tile for determing boundary
# Note the position given is the bottom-left corner so correct for that
return QRectF(
QPointF(self.mPos.x(),
self.mPos.y() - self.mCell.tile.height()),
self.mCell.tile.size())
##
# Sets the tile that is associated with this object. The object will
# display as the tile image.
#
# \warning The object shape is ignored for tile objects!
##
def setCell(self, cell):
self.mCell = cell
##
# Returns the tile associated with this object.
##
def cell(self):
return self.mCell
##
# Returns the object group this object belongs to.
##
def objectGroup(self):
return self.mObjectGroup
##
# Sets the object group this object belongs to. Should only be called
# from the ObjectGroup class.
##
def setObjectGroup(self, objectGroup):
self.mObjectGroup = objectGroup
##
# Returns the rotation of the object in degrees.
##
def rotation(self):
return self.mRotation
##
# Sets the rotation of the object in degrees.
##
def setRotation(self, rotation):
self.mRotation = rotation
##
# This is somewhat of a workaround for dealing with the ways different objects
# align.
#
# Traditional rectangle objects have top-left alignment.
# Tile objects have bottom-left alignment on orthogonal maps, but
# bottom-center alignment on isometric maps.
#
# Eventually, the object alignment should probably be configurable. For
# backwards compatibility, it will need to be configurable on a per-object
# level.
##
def alignment(self):
if (self.mCell.isEmpty()):
return Alignment.TopLeft
elif (self.mObjectGroup):
map = self.mObjectGroup.map()
if map:
if (map.orientation() == Map.Orientation.Isometric):
return Alignment.Bottom
return Alignment.BottomLeft
def isVisible(self):
return self.mVisible
def setVisible(self, visible):
self.mVisible = visible
##
# Flip this object in the given \a direction. This doesn't change the size
# of the object.
##
def flip(self, direction):
if (not self.mCell.isEmpty()):
if (direction == FlipDirection.FlipHorizontally):
self.mCell.flippedHorizontally = not self.mCell.flippedHorizontally
elif (direction == FlipDirection.FlipVertically):
self.mCell.flippedVertically = not self.mCell.flippedVertically
if (not self.mPolygon.isEmpty()):
center2 = self.mPolygon.boundingRect().center() * 2
if (direction == FlipDirection.FlipHorizontally):
for i in range(self.mPolygon.size()):
# oh, QPointF mPolygon returned is a copy of internal object
self.mPolygon[i] = QPointF(
center2.x() - self.mPolygon[i].x(),
self.mPolygon[i].y())
elif (direction == FlipDirection.FlipVertically):
for i in range(self.mPolygon.size()):
self.mPolygon[i] = QPointF(
self.mPolygon[i].x(),
center2.y() - self.mPolygon[i].y())
##
# Returns a duplicate of this object. The caller is responsible for the
# ownership of this newly created object.
##
def clone(self):
o = MapObject(self.mName, self.mType, self.mPos, self.mSize)
o.setProperties(self.properties())
o.setPolygon(self.mPolygon)
o.setShape(self.mShape)
o.setCell(self.mCell)
o.setRotation(self.mRotation)
return o
def updateResizingSingleItem(self, resizingOrigin, screenPos, modifiers):
renderer = self.mapDocument().renderer()
object = self.mMovingObjects.first()
mapObject = object.item.mapObject()
## The resizingOrigin, screenPos and mStart are affected by the ObjectGroup
# offset. We will un-apply it to these variables since the resize for
# single items happens in local coordinate space.
##
offset = mapObject.objectGroup().offset()
## These transformations undo and redo the object rotation, which is always
# applied in screen space.
##
unrotate = rotateAt(object.oldItemPosition, -object.oldRotation)
rotate = rotateAt(object.oldItemPosition, object.oldRotation)
origin = (resizingOrigin - offset) * unrotate
pos = (screenPos - offset) * unrotate
start = (self.mStart - offset) * unrotate
oldPos = object.oldItemPosition
## In order for the resizing to work somewhat sanely in isometric mode,
# the resizing is performed in pixel space except for tile objects, which
# are not affected by isometric projection apart from their position.
##
pixelSpace = resizeInPixelSpace(mapObject)
preserveAspect = modifiers & Qt.ControlModifier
if (pixelSpace):
origin = renderer.screenToPixelCoords_(origin)
pos = renderer.screenToPixelCoords_(pos)
start = renderer.screenToPixelCoords_(start)
oldPos = object.oldPosition
newPos = oldPos
newSize = object.oldSize
## In case one of the anchors was used as-is, the desired size can be
# derived directly from the distance from the origin for rectangle
# and ellipse objects. This allows scaling up a 0-sized object without
# dealing with infinite scaling factor issues.
#
# For obvious reasons this can't work on polygons or polylines, nor when
# preserving the aspect ratio.
##
if (self.mClickedResizeHandle.resizingOrigin() == resizingOrigin
and (mapObject.shape() == MapObject.Rectangle
or mapObject.shape() == MapObject.Ellipse)
and not preserveAspect):
newBounds = QRectF(newPos, newSize)
newBounds = align(newBounds, mapObject.alignment())
x = self.mClickedResizeHandle.anchorPosition()
if x == AnchorPosition.LeftAnchor or x == AnchorPosition.TopLeftAnchor or x == AnchorPosition.BottomLeftAnchor:
newBounds.setLeft(min(pos.x(), origin.x()))
elif x == AnchorPosition.RightAnchor or x == AnchorPosition.TopRightAnchor or x == AnchorPosition.BottomRightAnchor:
newBounds.setRight(max(pos.x(), origin.x()))
else:
# nothing to do on this axis
pass
x = self.mClickedResizeHandle.anchorPosition()
if x == AnchorPosition.TopAnchor or x == AnchorPosition.TopLeftAnchor or x == AnchorPosition.TopRightAnchor:
newBounds.setTop(min(pos.y(), origin.y()))
elif x == AnchorPosition.BottomAnchor or x == AnchorPosition.BottomLeftAnchor or x == AnchorPosition.BottomRightAnchor:
newBounds.setBottom(max(pos.y(), origin.y()))
else:
# nothing to do on this axis
pass
newBounds = unalign(newBounds, mapObject.alignment())
newSize = newBounds.size()
newPos = newBounds.topLeft()
else:
relPos = pos - origin
startDiff = start - origin
try:
newx = relPos.x() / startDiff.x()
except:
newx = 0
try:
newy = relPos.y() / startDiff.y()
except:
newy = 0
scalingFactor = QSizeF(max(0.01, newx), max(0.01, newy))
if not math.isfinite(scalingFactor.width()):
scalingFactor.setWidth(1)
if not math.isfinite(scalingFactor.height()):
scalingFactor.setHeight(1)
if (self.mResizingLimitHorizontal):
if preserveAspect:
scalingFactor.setWidth(scalingFactor.height())
else:
scalingFactor.setWidth(1)
elif (self.mResizingLimitVertical):
if preserveAspect:
scalingFactor.setHeight(scalingFactor.width())
else:
scalingFactor.setHeight(1)
elif (preserveAspect):
scale = min(scalingFactor.width(), scalingFactor.height())
scalingFactor.setWidth(scale)
scalingFactor.setHeight(scale)
oldRelPos = oldPos - origin
newPos = origin + QPointF(oldRelPos.x() * scalingFactor.width(),
oldRelPos.y() * scalingFactor.height())
newSize.setWidth(newSize.width() * scalingFactor.width())
newSize.setHeight(newSize.height() * scalingFactor.height())
if (not object.oldPolygon.isEmpty()):
newPolygon = QPolygonF(object.oldPolygon.size())
for n in range(object.oldPolygon.size()):
point = object.oldPolygon[n]
newPolygon[n] = QPointF(point.x() * scalingFactor.width(),
point.y() * scalingFactor.height())
mapObject.setPolygon(newPolygon)
if (pixelSpace):
newPos = renderer.pixelToScreenCoords_(newPos)
newPos = renderer.screenToPixelCoords_(newPos * rotate)
mapObject.setSize(newSize)
mapObject.setPosition(newPos)
self.mapDocument().mapObjectModel().emitObjectsChanged(
self.changingObjects())
def denormalize_rect(area: QSizeF, rect: QRectF) -> QRectF:
return QRectF(rect.x() * area.width(),
rect.y() * area.height(),
rect.width() * area.width(),
rect.height() * area.height())
def paint(self, painter):
painter.setRenderHint(QPainter.Antialiasing)
pixelRatio = self.devicePixelRatioF()
rect = QRectF(0, 0,
self.width() * pixelRatio,
self.height() * pixelRatio)
sz = QSizeF(self.width() * pixelRatio,
self.height() * pixelRatio).toSize()
self.resizePixmap(sz)
yOffset = rect.toRect().topLeft().y() + (100 - self.value() -
10) * sz.height() / 100
# draw water
waterImage = QImage(sz, QImage.Format_ARGB32_Premultiplied)
waterPainter = QPainter()
waterPainter.begin(waterImage)
waterPainter.setRenderHint(QPainter.Antialiasing)
waterPainter.setCompositionMode(QPainter.CompositionMode_Source)
pointStart = QPointF(sz.width() / 2, 0)
pointEnd = QPointF(sz.width() / 2, sz.height())
linear = QLinearGradient(pointStart, pointEnd)
startColor = QColor('#1F08FF')
startColor.setAlphaF(1)
endColor = QColor('#50FFF7')
endColor.setAlphaF(0.28)
linear.setColorAt(0, startColor)
linear.setColorAt(1, endColor)
linear.setSpread(QGradient.PadSpread)
waterPainter.setPen(Qt.NoPen)
waterPainter.setBrush(linear)
waterPainter.drawEllipse(waterImage.rect().center(),
sz.width() / 2 + 1,
sz.height() / 2 + 1)
waterPainter.setCompositionMode(QPainter.CompositionMode_SourceOver)
waterPainter.drawImage(int(self.backXOffset), yOffset,
self.waterBackImage)
waterPainter.drawImage(
int(self.backXOffset) - self.waterBackImage.width(), yOffset,
self.waterBackImage)
waterPainter.drawImage(int(self.frontXOffset), yOffset,
self.waterFrontImage)
waterPainter.drawImage(
int(self.frontXOffset) - self.waterFrontImage.width(), yOffset,
self.waterFrontImage)
# draw pop
if self.value() > 30:
for pop in self.pops:
popPath = QPainterPath()
popPath.addEllipse(pop.xOffset * sz.width() / 100,
(100 - pop.yOffset) * sz.height() / 100,
pop.size * sz.width() / 100,
pop.size * sz.height() / 100)
waterPainter.fillPath(popPath, QColor(255, 255, 255,
255 * 0.3))
if self.isTextVisible():
font = waterPainter.font()
rectValue = QRect()
progressText = self.text().strip('%')
if progressText == '100':
font.setPixelSize(sz.height() * 35 / 100)
waterPainter.setFont(font)
rectValue.setWidth(sz.width() * 60 / 100)
rectValue.setHeight(sz.height() * 35 / 100)
rectValue.moveCenter(rect.center().toPoint())
waterPainter.setPen(Qt.white)
waterPainter.drawText(rectValue, Qt.AlignCenter, progressText)
else:
font.setPixelSize(sz.height() * 40 / 100)
waterPainter.setFont(font)
rectValue.setWidth(sz.width() * 45 / 100)
rectValue.setHeight(sz.height() * 40 / 100)
rectValue.moveCenter(rect.center().toPoint())
rectValue.moveLeft(rect.left() + rect.width() * 0.45 * 0.5)
waterPainter.setPen(Qt.white)
waterPainter.drawText(rectValue, Qt.AlignCenter, progressText)
font.setPixelSize(font.pixelSize() / 2)
waterPainter.setFont(font)
rectPerent = QRect(
QPoint(rectValue.right(),
rectValue.bottom() - rect.height() * 20 / 100),
QPoint(rectValue.right() + rect.width() * 20 / 100,
rectValue.bottom()))
waterPainter.drawText(rectPerent, Qt.AlignCenter, '%')
waterPainter.end()
maskPixmap = QPixmap(sz)
maskPixmap.fill(Qt.transparent)
path = QPainterPath()
path.addEllipse(QRectF(0, 0, sz.width(), sz.height()))
maskPainter = QPainter()
maskPainter.begin(maskPixmap)
maskPainter.setRenderHint(QPainter.Antialiasing)
maskPainter.setPen(QPen(Qt.white, 1))
maskPainter.fillPath(path, QBrush(Qt.white))
maskPainter.end()
mode = QPainter.CompositionMode_SourceIn
contentImage = QImage(sz, QImage.Format_ARGB32_Premultiplied)
contentPainter = QPainter()
contentPainter.begin(contentImage)
contentPainter.setCompositionMode(QPainter.CompositionMode_Source)
contentPainter.fillRect(contentImage.rect(), Qt.transparent)
contentPainter.setCompositionMode(QPainter.CompositionMode_SourceOver)
contentPainter.drawImage(0, 0, maskPixmap.toImage())
contentPainter.setCompositionMode(mode)
contentPainter.drawImage(0, 0, waterImage)
contentPainter.setCompositionMode(
QPainter.CompositionMode_DestinationOver)
contentPainter.end()
contentImage.setDevicePixelRatio(pixelRatio)
painter.drawImage(self.rect(), contentImage)
def drawMapObject(self, painter, object, color):
painter.save()
pen = QPen(Qt.black)
pen.setCosmetic(True)
cell = object.cell()
if (not cell.isEmpty()):
tile = cell.tile
imgSize = tile.size()
pos = self.pixelToScreenCoords_(object.position())
tileOffset = tile.offset()
CellRenderer(painter).render(cell, pos, object.size(), CellRenderer.BottomCenter)
if (self.testFlag(RenderFlag.ShowTileObjectOutlines)):
rect = QRectF(QPointF(pos.x() - imgSize.width() / 2 + tileOffset.x(),
pos.y() - imgSize.height() + tileOffset.y()),
QSizeF(imgSize))
pen.setStyle(Qt.SolidLine)
painter.setPen(pen)
painter.drawRect(rect)
pen.setStyle(Qt.DotLine)
pen.setColor(color)
painter.setPen(pen)
painter.drawRect(rect)
else:
lineWidth = self.objectLineWidth()
scale = self.painterScale()
x = 1
if lineWidth != 0:
x = lineWidth
shadowOffset = x / scale
brushColor = QColor(color)
brushColor.setAlpha(50)
brush = QBrush(brushColor)
pen.setJoinStyle(Qt.RoundJoin)
pen.setCapStyle(Qt.RoundCap)
pen.setWidth(lineWidth)
colorPen = QPen(pen)
colorPen.setColor(color)
painter.setPen(pen)
painter.setRenderHint(QPainter.Antialiasing)
# TODO: Do something sensible to make null-sized objects usable
x = object.shape()
if x==MapObject.Ellipse:
polygon = self.pixelRectToScreenPolygon(object.bounds())
tw = self.map().tileWidth()
th = self.map().tileHeight()
transformScale = QPointF(1, 1)
if (tw > th):
transformScale = QPointF(1, th/tw)
else:
transformScale = QPointF(tw/th, 1)
l1 = polygon.at(1) - polygon.at(0)
l2 = polygon.at(3) - polygon.at(0)
trans = QTransform()
trans.scale(transformScale.x(), transformScale.y())
trans.rotate(45)
iTrans, ok = trans.inverted()
l1x = iTrans.map(l1)
l2x = iTrans.map(l2)
ellipseSize = QSizeF(l1x.manhattanLength(), l2x.manhattanLength())
if (ellipseSize.width() > 0 and ellipseSize.height() > 0):
painter.save()
painter.setPen(pen)
painter.translate(polygon.at(0))
painter.scale(transformScale.x(), transformScale.y())
painter.rotate(45)
painter.drawEllipse(QRectF(QPointF(0, 0), ellipseSize))
painter.restore()
painter.setBrush(Qt.NoBrush)
painter.drawPolygon(polygon)
painter.setPen(colorPen)
painter.setBrush(Qt.NoBrush)
painter.translate(QPointF(0, -shadowOffset))
painter.drawPolygon(polygon)
painter.setBrush(brush)
if (ellipseSize.width() > 0 and ellipseSize.height() > 0):
painter.save()
painter.translate(polygon.at(0))
painter.scale(transformScale.x(), transformScale.y())
painter.rotate(45)
painter.drawEllipse(QRectF(QPointF(0, 0), ellipseSize))
painter.restore()
elif x==MapObject.Rectangle:
polygon = self.pixelRectToScreenPolygon(object.bounds())
painter.drawPolygon(polygon)
painter.setPen(colorPen)
painter.setBrush(brush)
polygon.translate(0, -shadowOffset)
painter.drawPolygon(polygon)
elif x==MapObject.Polygon:
pos = object.position()
polygon = object.polygon().translated(pos)
screenPolygon = self.pixelToScreenCoords_(polygon)
thickPen = QPen(pen)
thickColorPen = QPen(colorPen)
thickPen.setWidthF(thickPen.widthF() * 4)
thickColorPen.setWidthF(thickColorPen.widthF() * 4)
painter.drawPolygon(screenPolygon)
painter.setPen(thickPen)
painter.drawPoint(screenPolygon.first())
painter.setPen(colorPen)
painter.setBrush(brush)
screenPolygon.translate(0, -shadowOffset)
painter.drawPolygon(screenPolygon)
painter.setPen(thickColorPen)
painter.drawPoint(screenPolygon.first())
elif x==MapObject.Polyline:
pos = object.position()
polygon = object.polygon().translated(pos)
screenPolygon = self.pixelToScreenCoords_(polygon)
thickPen = QPen(pen)
thickColorPen = QPen(colorPen)
thickPen.setWidthF(thickPen.widthF() * 4)
thickColorPen.setWidthF(thickColorPen.widthF() * 4)
painter.drawPolyline(screenPolygon)
painter.setPen(thickPen)
painter.drawPoint(screenPolygon.first())
painter.setPen(colorPen)
screenPolygon.translate(0, -shadowOffset)
painter.drawPolyline(screenPolygon)
painter.setPen(thickColorPen)
painter.drawPoint(screenPolygon.first())
painter.restore()
def drawMapObject(self, painter, object, color):
painter.save()
pen = QPen(Qt.black)
pen.setCosmetic(True)
cell = object.cell()
if (not cell.isEmpty()):
tile = cell.tile
imgSize = tile.size()
pos = self.pixelToScreenCoords_(object.position())
tileOffset = tile.offset()
CellRenderer(painter).render(cell, pos, object.size(),
CellRenderer.BottomCenter)
if (self.testFlag(RenderFlag.ShowTileObjectOutlines)):
rect = QRectF(
QPointF(pos.x() - imgSize.width() / 2 + tileOffset.x(),
pos.y() - imgSize.height() + tileOffset.y()),
QSizeF(imgSize))
pen.setStyle(Qt.SolidLine)
painter.setPen(pen)
painter.drawRect(rect)
pen.setStyle(Qt.DotLine)
pen.setColor(color)
painter.setPen(pen)
painter.drawRect(rect)
else:
lineWidth = self.objectLineWidth()
scale = self.painterScale()
x = 1
if lineWidth != 0:
x = lineWidth
shadowOffset = x / scale
brushColor = QColor(color)
brushColor.setAlpha(50)
brush = QBrush(brushColor)
pen.setJoinStyle(Qt.RoundJoin)
pen.setCapStyle(Qt.RoundCap)
pen.setWidth(lineWidth)
colorPen = QPen(pen)
colorPen.setColor(color)
painter.setPen(pen)
painter.setRenderHint(QPainter.Antialiasing)
# TODO: Do something sensible to make null-sized objects usable
x = object.shape()
if x == MapObject.Ellipse:
polygon = self.pixelRectToScreenPolygon(object.bounds())
tw = self.map().tileWidth()
th = self.map().tileHeight()
transformScale = QPointF(1, 1)
if (tw > th):
transformScale = QPointF(1, th / tw)
else:
transformScale = QPointF(tw / th, 1)
l1 = polygon.at(1) - polygon.at(0)
l2 = polygon.at(3) - polygon.at(0)
trans = QTransform()
trans.scale(transformScale.x(), transformScale.y())
trans.rotate(45)
iTrans, ok = trans.inverted()
l1x = iTrans.map(l1)
l2x = iTrans.map(l2)
ellipseSize = QSizeF(l1x.manhattanLength(),
l2x.manhattanLength())
if (ellipseSize.width() > 0 and ellipseSize.height() > 0):
painter.save()
painter.setPen(pen)
painter.translate(polygon.at(0))
painter.scale(transformScale.x(), transformScale.y())
painter.rotate(45)
painter.drawEllipse(QRectF(QPointF(0, 0), ellipseSize))
painter.restore()
painter.setBrush(Qt.NoBrush)
painter.drawPolygon(polygon)
painter.setPen(colorPen)
painter.setBrush(Qt.NoBrush)
painter.translate(QPointF(0, -shadowOffset))
painter.drawPolygon(polygon)
painter.setBrush(brush)
if (ellipseSize.width() > 0 and ellipseSize.height() > 0):
painter.save()
painter.translate(polygon.at(0))
painter.scale(transformScale.x(), transformScale.y())
painter.rotate(45)
painter.drawEllipse(QRectF(QPointF(0, 0), ellipseSize))
painter.restore()
elif x == MapObject.Rectangle:
polygon = self.pixelRectToScreenPolygon(object.bounds())
painter.drawPolygon(polygon)
painter.setPen(colorPen)
painter.setBrush(brush)
polygon.translate(0, -shadowOffset)
painter.drawPolygon(polygon)
elif x == MapObject.Polygon:
pos = object.position()
polygon = object.polygon().translated(pos)
screenPolygon = self.pixelToScreenCoords_(polygon)
thickPen = QPen(pen)
thickColorPen = QPen(colorPen)
thickPen.setWidthF(thickPen.widthF() * 4)
thickColorPen.setWidthF(thickColorPen.widthF() * 4)
painter.drawPolygon(screenPolygon)
painter.setPen(thickPen)
painter.drawPoint(screenPolygon.first())
painter.setPen(colorPen)
painter.setBrush(brush)
screenPolygon.translate(0, -shadowOffset)
painter.drawPolygon(screenPolygon)
painter.setPen(thickColorPen)
painter.drawPoint(screenPolygon.first())
elif x == MapObject.Polyline:
pos = object.position()
polygon = object.polygon().translated(pos)
screenPolygon = self.pixelToScreenCoords_(polygon)
thickPen = QPen(pen)
thickColorPen = QPen(colorPen)
thickPen.setWidthF(thickPen.widthF() * 4)
thickColorPen.setWidthF(thickColorPen.widthF() * 4)
painter.drawPolyline(screenPolygon)
painter.setPen(thickPen)
painter.drawPoint(screenPolygon.first())
painter.setPen(colorPen)
screenPolygon.translate(0, -shadowOffset)
painter.drawPolyline(screenPolygon)
painter.setPen(thickColorPen)
painter.drawPoint(screenPolygon.first())
painter.restore()
def chgRowHeight(self, index: QModelIndex, size: QSizeF):
if not index.isValid():
return
row = index.row()
self.table.setRowHeight(row, size.height())
class MapObject(Object):
##
# Enumerates the different object shapes. Rectangle is the default shape.
# When a polygon is set, the shape determines whether it should be
# interpreted as a filled polygon or a line.
##
Rectangle, Polygon, Polyline, Ellipse = range(4)
def __init__(self, *args):
super().__init__(Object.MapObjectType)
self.mPolygon = QPolygonF()
self.mName = QString()
self.mPos = QPointF()
self.mCell = Cell()
self.mType = QString()
self.mId = 0
self.mShape = MapObject.Rectangle
self.mObjectGroup = None
self.mRotation = 0.0
self.mVisible = True
l = len(args)
if l==0:
self.mSize = QSizeF(0, 0)
elif l==4:
name, _type, pos, size = args
self.mName = name
self.mType = _type
self.mPos = pos
self.mSize = QSizeF(size)
##
# Returns the id of this object. Each object gets an id assigned that is
# unique for the map the object is on.
##
def id(self):
return self.mId
##
# Sets the id of this object.
##
def setId(self, id):
self.mId = id
##
# Returns the name of this object. The name is usually just used for
# identification of the object in the editor.
##
def name(self):
return self.mName
##
# Sets the name of this object.
##
def setName(self, name):
self.mName = name
##
# Returns the type of this object. The type usually says something about
# how the object is meant to be interpreted by the engine.
##
def type(self):
return self.mType
##
# Sets the type of this object.
##
def setType(self, type):
self.mType = type
##
# Returns the position of this object.
##
def position(self):
return QPointF(self.mPos)
##
# Sets the position of this object.
##
def setPosition(self, pos):
self.mPos = pos
##
# Returns the x position of this object.
##
def x(self):
return self.mPos.x()
##
# Sets the x position of this object.
##
def setX(self, x):
self.mPos.setX(x)
##
# Returns the y position of this object.
##
def y(self):
return self.mPos.y()
##
# Sets the x position of this object.
##
def setY(self, y):
self.mPos.setY(y)
##
# Returns the size of this object.
##
def size(self):
return self.mSize
##
# Sets the size of this object.
##
def setSize(self, *args):
l = len(args)
if l==1:
size = args[0]
self.mSize = QSizeF(size)
elif l==2:
width, height = args
self.setSize(QSizeF(width, height))
##
# Returns the width of this object.
##
def width(self):
return self.mSize.width()
##
# Sets the width of this object.
##
def setWidth(self, width):
self.mSize.setWidth(width)
##
# Returns the height of this object.
##
def height(self):
return self.mSize.height()
##
# Sets the height of this object.
##
def setHeight(self, height):
self.mSize.setHeight(height)
##
# Sets the polygon associated with this object. The polygon is only used
# when the object shape is set to either Polygon or Polyline.
#
# \sa setShape()
##
def setPolygon(self, polygon):
self.mPolygon = polygon
##
# Returns the polygon associated with this object. Returns an empty
# polygon when no polygon is associated with this object.
##
def polygon(self):
return QPolygonF(self.mPolygon)
##
# Sets the shape of the object.
##
def setShape(self, shape):
self.mShape = shape
##
# Returns the shape of the object.
##
def shape(self):
return self.mShape
##
# Shortcut to getting a QRectF from position() and size().
##
def bounds(self):
return QRectF(self.mPos, self.mSize)
##
# Shortcut to getting a QRectF from position() and size() that uses cell tile if present.
##
def boundsUseTile(self):
if (self.mCell.isEmpty()):
# No tile so just use regular bounds
return self.bounds()
# Using the tile for determing boundary
# Note the position given is the bottom-left corner so correct for that
return QRectF(QPointF(self.mPos.x(),
self.mPos.y() - self.mCell.tile.height()),
self.mCell.tile.size())
##
# Sets the tile that is associated with this object. The object will
# display as the tile image.
#
# \warning The object shape is ignored for tile objects!
##
def setCell(self, cell):
self.mCell = cell
##
# Returns the tile associated with this object.
##
def cell(self):
return self.mCell
##
# Returns the object group this object belongs to.
##
def objectGroup(self):
return self.mObjectGroup
##
# Sets the object group this object belongs to. Should only be called
# from the ObjectGroup class.
##
def setObjectGroup(self, objectGroup):
self.mObjectGroup = objectGroup
##
# Returns the rotation of the object in degrees.
##
def rotation(self):
return self.mRotation
##
# Sets the rotation of the object in degrees.
##
def setRotation(self, rotation):
self.mRotation = rotation
##
# This is somewhat of a workaround for dealing with the ways different objects
# align.
#
# Traditional rectangle objects have top-left alignment.
# Tile objects have bottom-left alignment on orthogonal maps, but
# bottom-center alignment on isometric maps.
#
# Eventually, the object alignment should probably be configurable. For
# backwards compatibility, it will need to be configurable on a per-object
# level.
##
def alignment(self):
if (self.mCell.isEmpty()):
return Alignment.TopLeft
elif (self.mObjectGroup):
map = self.mObjectGroup.map()
if map:
if (map.orientation() == Map.Orientation.Isometric):
return Alignment.Bottom
return Alignment.BottomLeft
def isVisible(self):
return self.mVisible
def setVisible(self, visible):
self.mVisible = visible
##
# Flip this object in the given \a direction. This doesn't change the size
# of the object.
##
def flip(self, direction):
if (not self.mCell.isEmpty()):
if (direction == FlipDirection.FlipHorizontally):
self.mCell.flippedHorizontally = not self.mCell.flippedHorizontally
elif (direction == FlipDirection.FlipVertically):
self.mCell.flippedVertically = not self.mCell.flippedVertically
if (not self.mPolygon.isEmpty()):
center2 = self.mPolygon.boundingRect().center() * 2
if (direction == FlipDirection.FlipHorizontally):
for i in range(self.mPolygon.size()):
# oh, QPointF mPolygon returned is a copy of internal object
self.mPolygon[i] = QPointF(center2.x() - self.mPolygon[i].x(), self.mPolygon[i].y())
elif (direction == FlipDirection.FlipVertically):
for i in range(self.mPolygon.size()):
self.mPolygon[i] = QPointF(self.mPolygon[i].x(), center2.y() - self.mPolygon[i].y())
##
# Returns a duplicate of this object. The caller is responsible for the
# ownership of this newly created object.
##
def clone(self):
o = MapObject(self.mName, self.mType, self.mPos, self.mSize)
o.setProperties(self.properties())
o.setPolygon(self.mPolygon)
o.setShape(self.mShape)
o.setCell(self.mCell)
o.setRotation(self.mRotation)
return o
def render(self, cell, pos, cellSize, origin):
if (self.mTile != cell.tile):
self.flush()
image = cell.tile.currentFrameImage()
size = image.size()
if cellSize == QSizeF(0,0):
objectSize = size
else:
objectSize = cellSize
scale = QSizeF(objectSize.width() / size.width(), objectSize.height() / size.height())
offset = cell.tile.offset()
sizeHalf = QPointF(objectSize.width() / 2, objectSize.height() / 2)
fragment = QPainter.PixmapFragment()
fragment.x = pos.x() + (offset.x() * scale.width()) + sizeHalf.x()
fragment.y = pos.y() + (offset.y() * scale.height()) + sizeHalf.y() - objectSize.height()
fragment.sourceLeft = 0
fragment.sourceTop = 0
fragment.width = size.width()
fragment.height = size.height()
if cell.flippedHorizontally:
fragment.scaleX = -1
else:
fragment.scaleX = 1
if cell.flippedVertically:
fragment.scaleY = -1
else:
fragment.scaleY = 1
fragment.rotation = 0
fragment.opacity = 1
flippedHorizontally = cell.flippedHorizontally
flippedVertically = cell.flippedVertically
if (origin == CellRenderer.BottomCenter):
fragment.x -= sizeHalf.x()
if (cell.flippedAntiDiagonally):
fragment.rotation = 90
flippedHorizontally = cell.flippedVertically
flippedVertically = not cell.flippedHorizontally
# Compensate for the swap of image dimensions
halfDiff = sizeHalf.y() - sizeHalf.x()
fragment.y += halfDiff
if (origin != CellRenderer.BottomCenter):
fragment.x += halfDiff
if flippedHorizontally:
x = -1
else:
x = 1
fragment.scaleX = scale.width() * x
if flippedVertically:
x = -1
else:
x = 1
fragment.scaleY = scale.height() * x
if (self.mIsOpenGL or (fragment.scaleX > 0 and fragment.scaleY > 0)):
self.mTile = cell.tile
self.mFragments.append(fragment)
return
# The Raster paint engine as of Qt 4.8.4 / 5.0.2 does not support
# drawing fragments with a negative scaling factor.
self.flush() # make sure we drew all tiles so far
oldTransform = self.mPainter.transform()
transform = oldTransform
transform.translate(fragment.x, fragment.y)
transform.rotate(fragment.rotation)
transform.scale(fragment.scaleX, fragment.scaleY)
target = QRectF(fragment.width * -0.5, fragment.height * -0.5, fragment.width, fragment.height)
source = QRectF(0, 0, fragment.width, fragment.height)
self.mPainter.setTransform(transform)
self.mPainter.drawPixmap(target, image, source)
self.mPainter.setTransform(oldTransform)