def __pickColor(self):
self.origColor = LEUtils.strToQColor(self.getItemData())
color = LEUtils.strToQColor(self.getItemData())
colorDlg = QtWidgets.QColorDialog(color, self)
colorDlg.setOptions(QtWidgets.QColorDialog.DontUseNativeDialog)
colorDlg.setModal(True)
colorDlg.currentColorChanged.connect(self.adjustToColorAndSetData)
colorDlg.finished.connect(self.__colorDlgFinished)
colorDlg.open()
colorDlg.blockSignals(True)
colorDlg.setCurrentColor(color)
colorDlg.blockSignals(False)
self.colorDlg = colorDlg
def create(self, generator, mins, maxs, material, roundDecimals, temp = False):
wallWidth = self.wallWidth.getValue()
if wallWidth < 1:
return []
numSides = self.numSides.getValue()
if numSides < 3:
return []
# Very similar to the cylinder, except that we have multiple solids this time
width = maxs.x - mins.x
length = maxs.y - mins.y
height = maxs.z - mins.z
center = (maxs + mins) / 2
majorOut = width / 2
majorIn = majorOut - wallWidth
minorOut = length / 2
minorIn = minorOut - wallWidth
angle = 2 * math.pi / numSides
# Calc the X,Y for the inner and outer ellipses
outer = []
inner = []
for i in range(numSides):
a = i * angle
x = center.x + majorOut * math.cos(a)
y = center.y + minorOut * math.sin(a)
z = mins.z
outer.append(LEUtils.roundVector(Point3(x, y, z), roundDecimals))
x = center.x + majorIn * math.cos(a)
y = center.y + minorIn * math.sin(a)
inner.append(LEUtils.roundVector(Point3(x, y, z), roundDecimals))
color = LEUtils.getRandomSolidColor()
# Create the solids
solids = []
z = LEUtils.roundVector(Point3(0, 0, height), roundDecimals)
for i in range(numSides):
faces = []
next = (i + 1) % numSides
faces.append([ outer[i], outer[i] + z, outer[next] + z, outer[next] ])
faces.append([ inner[next], inner[next] + z, inner[i] + z, inner[i] ])
faces.append([ outer[next], outer[next] + z, inner[next] + z, inner[next] ])
faces.append([ inner[i], inner[i] + z, outer[i] + z, outer[i] ])
faces.append([ inner[next] + z, outer[next] + z, outer[i] + z, inner[i] + z ])
faces.append([ inner[i], outer[i], outer[next], inner[next] ])
solids.append(self.makeSolid(generator, faces, material, temp, color))
return solids
def getObjectsUnderMouse(self):
vp = base.viewportMgr.activeViewport
if not vp:
return []
entries = vp.click(self.Mask)
if not entries or len(entries) == 0:
return []
objects = []
key = self.Key
for i in range(len(entries)):
# Our entries have been sorted by distance, so use the first (closest) one.
entry = entries[i]
np = entry.getIntoNodePath().findNetPythonTag(key)
if not np.isEmpty():
# Don't backface cull if there is a billboard effect on or above this node
if entry.hasSurfaceNormal() and not LEUtils.hasNetBillboard(
entry.getIntoNodePath()):
surfNorm = entry.getSurfaceNormal(vp.cam).normalized()
rayDir = entry.getFrom().getDirection().normalized()
if surfNorm.dot(rayDir) >= 0:
# Backface cull
continue
obj = np.getPythonTag(key)
actual = self.getActualObject(obj, entry)
objects.append((actual, entry))
return objects
def create(self,
generator,
mins,
maxs,
material,
roundDecimals,
temp=False):
faces = LEUtils.getBoxFaces(mins, maxs, roundDecimals)
return [self.makeSolid(generator, faces, material, temp)]
def create(self,
generator,
mins,
maxs,
material,
roundDecimals,
temp=False):
numSides = self.numSides.getValue()
if numSides < 3:
return []
# Cylinders can be elliptical so use both major and minor rather than just the radius
# NOTE: when a low number (< 10ish) of faces are selected this will cause the cylinder to not touch all edges of the box.
width = maxs.x - mins.x
length = maxs.y - mins.y
height = maxs.z - mins.z
center = (mins + maxs) / 2
major = width / 2
minor = length / 2
angle = 2 * math.pi / numSides
# Calculate the X and Y points for the ellipse
points = []
for i in range(numSides):
a = i * angle
xval = center.x + major * math.cos(a)
yval = center.y + minor * math.sin(a)
zval = mins.z
points.append(
LEUtils.roundVector(Point3(xval, yval, zval), roundDecimals))
faces = []
z = LEUtils.roundVector(Point3(0, 0, height), roundDecimals)
for i in range(numSides):
next = (i + 1) % numSides
faces.append(
[points[i], points[i] + z, points[next] + z, points[next]])
# Add the elliptical top and bottom faces
faces.append(points)
faces.append([x + z for x in reversed(points)])
solid = self.makeSolid(generator, faces, material, temp)
return [solid]
def create(self,
generator,
mins,
maxs,
material,
roundDecimals,
temp=False):
# The lower Z plane will be base
center = (mins + maxs) / 2
c1 = LEUtils.roundVector(Point3(mins.x, mins.y, mins.z), roundDecimals)
c2 = LEUtils.roundVector(Point3(maxs.x, mins.y, mins.z), roundDecimals)
c3 = LEUtils.roundVector(Point3(maxs.x, maxs.y, mins.z), roundDecimals)
c4 = LEUtils.roundVector(Point3(mins.x, maxs.y, mins.z), roundDecimals)
c5 = LEUtils.roundVector(Point3(center.x, center.y, maxs.z),
roundDecimals)
faces = [[c1, c2, c3, c4], [c2, c1, c5], [c3, c2, c5], [c4, c3, c5],
[c1, c4, c5]]
return [self.makeSolid(generator, faces, material, temp)]
def __init__(self, widget, axis):
TransformWidgetAxis.__init__(self, widget, axis)
segs = LineSegs()
segs.setThickness(2)
vertices = LEUtils.circle(0, 0, 1, 64)
for i in range(len(vertices)):
x1, y1 = vertices[i]
x2, y2 = vertices[(i + 1) % len(vertices)]
segs.moveTo(x1, 0, y1)
segs.drawTo(x2, 0, y2)
self.axisCircle = self.attachNewNode(segs.create())
self.axisCircle.setAntialias(AntialiasAttrib.MLine)
def mouseDown(self):
vp = base.viewportMgr.activeViewport
if not vp:
return
if vp.is3D():
# If we clicked in the 3D viewport, try to intersect with an existing MapObject
# and immediately place the entity at the intersection point. If we didn't click on any
# MapObject, place the entity on the grid where we clicked.
entries = vp.click(GeomNode.getDefaultCollideMask())
if entries and len(entries) > 0:
for i in range(len(entries)):
entry = entries[i]
# Don't backface cull if there is a billboard effect on or above this node
if not LEUtils.hasNetBillboard(entry.getIntoNodePath()):
surfNorm = entry.getSurfaceNormal(vp.cam).normalized()
rayDir = entry.getFrom().getDirection().normalized()
if surfNorm.dot(rayDir) >= 0:
# Backface cull
continue
# We clicked on an object, use the contact point as the
# location of our new entity.
self.pos = entry.getSurfacePoint(self.doc.render)
self.hasPlaced = True
# Create it!
self.confirm()
break
else:
# Didn't click on an object, intersect our mouse ray with the grid plane.
plane = LPlane(0, 0, 1, 0)
worldMouse = vp.viewportToWorld(vp.getMouse())
theCamera = vp.cam.getPos(render)
# Ensure that the camera and mouse positions are on opposite
# sides of the plane, or else the entity would place behind us.
sign1 = plane.distToPlane(worldMouse) >= 0
sign2 = plane.distToPlane(theCamera) >= 0
if sign1 != sign2:
pointOnPlane = Point3()
ret = plane.intersectsLine(pointOnPlane, theCamera,
worldMouse)
if ret:
# Our mouse intersected the grid plane. Place an entity at the plane intersection point.
self.pos = pointOnPlane
self.hasPlaced = True
self.confirm()
return
# The user clicked in the 2D viewport, draw the visualization where they clicked.
self.showVis()
self.updatePosFromViewport(vp)
self.mouseIsDown = True
self.hasPlaced = True
def create(self,
generator,
mins,
maxs,
material,
roundDecimals,
temp=False):
numSides = self.numSides.getValue()
if numSides < 3:
return []
# This is all very similar to the cylinder brush.
width = maxs.x - mins.x
length = maxs.y - mins.y
center = (mins + maxs) / 2
major = width / 2
minor = length / 2
angle = 2 * math.pi / numSides
points = []
for i in range(numSides):
a = i * angle
xval = center.x + major * math.cos(a)
yval = center.y + minor * math.sin(a)
zval = mins.z
points.append(
LEUtils.roundVector(Point3(xval, yval, zval), roundDecimals))
faces = []
point = LEUtils.roundVector(Point3(center.x, center.y, maxs.z),
roundDecimals)
for i in range(numSides):
next = (i + 1) % numSides
faces.append([points[i], point, points[next]])
faces.append(points)
solid = self.makeSolid(generator, faces, material, temp)
return [solid]
def getPointOnGizmo(self):
vp = base.viewportMgr.activeViewport
if not vp or not vp.is3D():
return
axis = self.widget.activeAxis.axisIdx
gray = self.getGizmoRay(axis)
mray = vp.getMouseRay()
# Move into world space
mray.xform(vp.cam.getMat(NodePath()))
distance = LEUtils.closestDistanceBetweenLines(gray, mray)
return gray.origin + (gray.direction * -gray.t)
def create(self,
generator,
mins,
maxs,
material,
roundDecimals,
temp=False):
useCentroid = self.useCentroid.getValue()
center = (mins + maxs) / 2
# The lower Z plane will be the triangle, with the lower Y value getting the two corners
c1 = LEUtils.roundVector(Point3(mins.x, mins.y, mins.z), roundDecimals)
c2 = LEUtils.roundVector(Point3(maxs.x, mins.y, mins.z), roundDecimals)
c3 = LEUtils.roundVector(Point3(center.x, maxs.y, mins.z),
roundDecimals)
if useCentroid:
c4 = Point3((c1.x + c2.x + c3.x) / 3, (c1.y + c2.y + c3.y) / 3,
maxs.z)
else:
c4 = LEUtils.roundVector(Point3(center.x, center.y, maxs.z),
roundDecimals)
faces = [[c1, c2, c3], [c4, c1, c3], [c4, c3, c2], [c4, c2, c1]]
return [self.makeSolid(generator, faces, material, temp)]
def __init__(self, parent, item, model):
BaseEditor.__init__(self, parent, item, model)
self.lineEdit = QtWidgets.QLineEdit("", self)
self.lineEdit.returnPressed.connect(self.__confirmColorText)
self.layout().addWidget(self.lineEdit)
self.colorLbl = QtWidgets.QLabel("", self)
self.colorLbl.setSizePolicy(QtWidgets.QSizePolicy.Expanding,
QtWidgets.QSizePolicy.Preferred)
self.layout().addWidget(self.colorLbl)
self.editButton = QtWidgets.QPushButton("Pick Color", self)
self.editButton.clicked.connect(self.__pickColor)
self.layout().addWidget(self.editButton)
self.colorDlg = None
self.adjustToColor(LEUtils.strToQColor(self.getItemData()))
def computeValueText(self):
return LEUtils.boolToStr(self.flagsItem.prop.hasFlags(self.spawnFlag.value))
def create(self,
generator,
mins,
maxs,
material,
roundDecimals,
temp=False):
numSides = self.numSides.getValue()
if numSides < 3:
return []
roundDecimals = 2 # Don't support rounding
width = maxs.x - mins.x
length = maxs.y - mins.y
height = maxs.z - mins.z
center = (maxs + mins) / 2
major = width / 2
minor = length / 2
heightRadius = height / 2
angleV = deg2Rad(180) / numSides
angleH = deg2Rad(360) / numSides
faces = []
bottom = LEUtils.roundVector(Point3(center.x, center.y, mins.z),
roundDecimals)
top = LEUtils.roundVector(Point3(center.x, center.y, maxs.z),
roundDecimals)
for i in range(numSides):
# Top -> bottom
zAngleStart = angleV * i
zAngleEnd = angleV * (i + 1)
zStart = heightRadius * math.cos(zAngleStart)
zEnd = heightRadius * math.cos(zAngleEnd)
zMultStart = math.sin(zAngleStart)
zMultEnd = math.sin(zAngleEnd)
for j in range(numSides):
# Go around the circle in X/Y
xyAngleStart = angleH * j
xyAngleEnd = angleH * ((j + 1) % numSides)
xyStartX = major * math.cos(xyAngleStart)
xyStartY = minor * math.sin(xyAngleStart)
xyEndX = major * math.cos(xyAngleEnd)
xyEndY = minor * math.sin(xyAngleEnd)
a = LEUtils.roundVector(
Point3(xyStartX * zMultStart, xyStartY * zMultStart,
zStart) + center, roundDecimals)
b = LEUtils.roundVector(
Point3(xyEndX * zMultStart, xyEndY * zMultStart, zStart) +
center, roundDecimals)
c = LEUtils.roundVector(
Point3(xyEndX * zMultEnd, xyEndY * zMultEnd, zEnd) +
center, roundDecimals)
d = LEUtils.roundVector(
Point3(xyStartX * zMultEnd, xyStartY * zMultEnd, zEnd) +
center, roundDecimals)
if i == 0:
# Top faces are triangles
faces.append([top, c, d])
elif i == (numSides - 1):
# Bottom faces are also triangles
faces.append([bottom, a, b])
else:
# Inner faces are quads
faces.append([a, b, c, d])
return [self.makeSolid(generator, faces, material, temp)]
def setEditorData(self, index):
val = LEUtils.strToBool(self.getItemData())
self.check.blockSignals(True)
self.check.setChecked(val)
self.check.blockSignals(False)
def pickRandomColor(self):
# Picks a random shade of blue/green for this solid.
self.setColor(LEUtils.getRandomSolidColor())
def setModelData(self, model, index):
model.setData(index, LEUtils.boolToStr(self.check.isChecked()),
QtCore.Qt.EditRole)
def __confirmColorText(self):
self.setModelData(self.model, self.item.index())
self.adjustToColor(LEUtils.strToQColor(self.lineEdit.text()))
def snapToGrid(self, point):
if GridSettings.GridSnap:
return LEUtils.snapToGrid(GridSettings.DefaultStep, point)
return point
def invRotate(self, point):
quat = Quat()
quat.setHpr(self.getViewHpr())
return LEUtils.makeForwardAxis(point, quat)
def create(self,
generator,
mins,
maxs,
material,
roundDecimals,
temp=False):
solids = []
numSides = self.numSides.getValue()
if numSides < 3:
return solids
wallWidth = self.wallWidth.getValue()
if wallWidth < 1:
return solids
arc = self.arc.getValue()
if arc < 1:
return solids
startAngle = self.startAngle.getValue()
if startAngle < 0 or startAngle > 359:
return solids
addHeight = self.addHeight.getValue()
curvedRamp = self.curvedRamp.getValue()
tiltAngle = self.tiltAngle.getValue()
if abs(tiltAngle % 180) == 90:
return solids
tiltInterp = curvedRamp and self.tiltInterp.getValue()
# Very similar to the pipe brush, except with options for start angle, arc, height, and tilt.
width = maxs.x - mins.x
length = maxs.y - mins.y
height = maxs.z - mins.z
majorOut = width / 2
majorIn = majorOut - wallWidth
minorOut = length / 2
minorIn = minorOut - wallWidth
start = deg2Rad(startAngle)
tilt = deg2Rad(tiltAngle)
angle = deg2Rad(arc) / numSides
center = (mins + maxs) / 2
# Calculate the coordinates of the inner and outer ellipses' points.
outer = []
inner = []
for i in range(numSides + 1):
a = start + i * angle
h = i * addHeight
interp = 1
if tiltInterp:
interp = math.cos(math.pi / numSides * (i - numSides / 2))
tiltHeight = wallWidth / 2 * interp * math.tan(tilt)
xval = center.x + majorOut * math.cos(a)
yval = center.y + minorOut * math.sin(a)
zval = mins.z
if curvedRamp:
zval += h + tiltHeight
outer.append(
LEUtils.roundVector(Point3(xval, yval, zval), roundDecimals))
xval = center.x + majorIn * math.cos(a)
yval = center.y + minorIn * math.sin(a)
zval = mins.z
if curvedRamp:
zval += h - tiltHeight
inner.append(
LEUtils.roundVector(Point3(xval, yval, zval), roundDecimals))
color = LEUtils.getRandomSolidColor()
# create the solids
z = LEUtils.roundVector(Point3(0, 0, height), roundDecimals)
for i in range(numSides):
faces = []
# Since we are triangulating/splitting each arch segment, we need to generate 2 brushes per side
if curvedRamp:
# The splitting orientation depends on the curving direction of the arch
if addHeight >= 0:
faces.append([
outer[i], outer[i] + z, outer[i + 1] + z, outer[i + 1]
])
faces.append([
outer[i + 1], outer[i + 1] + z, inner[i] + z, inner[i]
])
faces.append(
[inner[i], inner[i] + z, outer[i] + z, outer[i]])
faces.append(
[outer[i] + z, inner[i] + z, outer[i + 1] + z])
faces.append([outer[i + 1], inner[i], outer[i]])
else:
faces.append([
inner[i + 1], inner[i + 1] + z, inner[i] + z, inner[i]
])
faces.append([
outer[i], outer[i] + z, inner[i + 1] + z, inner[i + 1]
])
faces.append(
[inner[i], inner[i] + z, outer[i] + z, outer[i]])
faces.append(
[inner[i + 1] + z, outer[i] + z, inner[i] + z])
faces.append([inner[i], outer[i], inner[i + 1]])
solids.append(
self.makeSolid(generator, faces, material, temp, color))
faces.clear()
if addHeight >= 0:
faces.append([
inner[i + 1], inner[i + 1] + z, inner[i] + z, inner[i]
])
faces.append([
inner[i], inner[i] + z, outer[i + 1] + z, outer[i + 1]
])
faces.append([
outer[i + 1], outer[i + 1] + z, inner[i + 1] + z,
inner[i + 1]
])
faces.append(
[inner[i + 1] + z, outer[i + 1] + z, inner[i] + z])
faces.append([inner[i], outer[i + 1], inner[i + 1]])
else:
faces.append([
outer[i], outer[i] + z, outer[i + 1] + z, outer[i + 1]
])
faces.append([
inner[i + 1], inner[i + 1] + z, outer[i] + z, outer[i]
])
faces.append([
outer[i + 1], outer[i + 1] + z, inner[i + 1] + z,
inner[i + 1]
])
faces.append(
[outer[i] + z, inner[i + 1] + z, outer[i + 1] + z])
faces.append([outer[i + 1], inner[i + 1], outer[i]])
solids.append(
self.makeSolid(generator, faces, material, temp, color))
else:
h = Vec3.unitZ() * i * addHeight
faces.append([
outer[i] + h, outer[i] + z + h, outer[i + 1] + z + h,
outer[i + 1] + h
])
faces.append([
inner[i + 1] + h, inner[i + 1] + z + h, inner[i] + z + h,
inner[i] + h
])
faces.append([
outer[i + 1] + h, outer[i + 1] + z + h,
inner[i + 1] + z + h, inner[i + 1] + h
])
faces.append([
inner[i] + h, inner[i] + z + h, outer[i] + z + h,
outer[i] + h
])
faces.append([
inner[i + 1] + z + h, outer[i + 1] + z + h,
outer[i] + z + h, inner[i] + z + h
])
faces.append([
inner[i] + h, outer[i] + h, outer[i + 1] + h,
inner[i + 1] + h
])
solids.append(
self.makeSolid(generator, faces, material, temp, color))
return solids
