def getCurveSegmentLength(self):
pointA = Vector3(
cmds.pointPosition(self.curveName + '.cv[0]')[0],
cmds.pointPosition(self.curveName + '.cv[0]')[1],
cmds.pointPosition(self.curveName + '.cv[0]')[2])
pointB = Vector3(
cmds.pointPosition(self.curveName + '.cv[1]')[0],
cmds.pointPosition(self.curveName + '.cv[1]')[1],
cmds.pointPosition(self.curveName + '.cv[1]')[2])
return Vector3.getDistanceBetweenTwoPoints(pointA, pointB)
def createSegmentsWalls(self, wallName):
wallsSegmentNames = []
segmentLength = self.getCurveSegmentLength()
wallsNeeded = int(math.ceil(segmentLength / self.getWallSize().x))
spawnPointA = Vector3(
cmds.pointPosition(self.curveName + '.cv[' + str(self.resolution) +
']')[0],
cmds.pointPosition(self.curveName + '.cv[' + str(self.resolution) +
']')[1],
cmds.pointPosition(self.curveName + '.cv[' + str(self.resolution) +
']')[2])
spawnPointB = Vector3(
cmds.pointPosition(self.curveName + '.cv[' +
str(self.resolution - 1) + ']')[0],
cmds.pointPosition(self.curveName + '.cv[' +
str(self.resolution - 1) + ']')[1],
cmds.pointPosition(self.curveName + '.cv[' +
str(self.resolution - 1) + ']')[2])
for i in range(0, self.resolution):
#Create a segment of wall
for j in range(0, wallsNeeded):
spawnWallPosition = Vector3(
spawnPointA.x -
(spawnPointA.x - spawnPointB.x) * j / wallsNeeded -
(spawnPointA.x - spawnPointB.x) / wallsNeeded / 2, 0,
spawnPointA.z -
(spawnPointA.z - spawnPointB.z) * j / wallsNeeded -
(spawnPointA.z - spawnPointB.z) / wallsNeeded / 2)
wall = self.createWall(
spawnWallPosition,
Vector3(
0.0,
float(self.apertureAngle / 2.0 +
(360.0 - self.apertureAngle) / self.resolution /
2), 0.0))
self.walls.append(wall)
wallsSegmentNames.append(wall.name)
cmds.group(wallsSegmentNames,
n=wallName + str(self.wallsSegmentIndex))
cmds.xform(wallName + str(self.wallsSegmentIndex), piv=(0, 0, 0))
wallsSegmentNames = []
cmds.rotate(0,
float((360.0 - self.apertureAngle) / self.resolution *
i),
0,
wallName + str(self.wallsSegmentIndex),
p=(self.center.x, self.center.y, self.center.z))
self.IncrementWallsSegmentIndex()
class OuterDoor(Door):
#Valeur indicative à modifier en fonction des assets
doorSize = Vector3(80.0, 20.0, 30.0)
def __init__(self, position, rotation):
super(OuterDoor, self).__init__('outer_door')
if (cmds.objExists("ASSET_Porte_ext:porte_exter")):
self.door = cmds.duplicate("ASSET_Porte_ext:porte_exter",
n='outer_door')
else:
self.door = cmds.polyCube(w=self.doorSize.x,
h=self.doorSize.y,
d=self.doorSize.z,
n="outer_door")
#cmds.xform('outer_door',piv=(0,-self.doorSize.y/2,0))
self.locatorLeft = cmds.spaceLocator(
p=(-self.doorSize.x / 2, cmds.getAttr("outer_door.translateY"), 0),
n='outer_door_locator_left')
self.locatorRight = cmds.spaceLocator(
p=(self.doorSize.x / 2, cmds.getAttr("outer_door.translateY"), 0),
n='outer_door_locator_right')
cmds.group(('outer_door', 'outer_door_locator_left',
'outer_door_locator_right'),
n=self.groupName)
cmds.xform(self.groupName, piv=cmds.getAttr("outer_door.translate")[0])
cmds.move(position.x, position.y, position.z, self.groupName)
cmds.rotate(rotation.x, rotation.y, rotation.z, self.groupName)
return
class OuterWall(Wall):
wallSize = Vector3(20, 15, 2)
if (not cmds.objExists("outer_wall_template")):
if (cmds.objExists("ASSET_Muraille_ext_mur:Muraille_ext")):
template = cmds.duplicate("ASSET_Muraille_ext_mur:Muraille_ext",
n="outer_wall_template")
else:
template = cmds.polyCube(w=wallSize.x,
h=wallSize.y,
d=wallSize.z,
n="outer_wall_template")
cmds.hide("outer_wall_template")
else:
template = cmds.ls("outer_wall_template")
def __init__(self, position, rotation):
cmds.instance(self.template, n="outer_wall_" + str(self.index))
cmds.showHidden("outer_wall_" + str(self.index))
#cmds.xform("outer_wall_" + str(self.index),piv=(0,-self.wallSize.y/2,0))
cmds.move(position.x, position.y, position.z,
"outer_wall_" + str(self.index))
cmds.rotate(rotation.x, rotation.y, rotation.z,
"outer_wall_" + str(self.index))
super(OuterWall, self).__init__("outer_wall_" + str(self.index))
self.IncementWallIndex()
return
def createDoorWalls(self, sideDoorPoint, curveExtremityPoint,
wallGroupName, curveName):
wallsSegmentNames = []
segmentLength = Vector3.getDistanceBetweenTwoPoints(
sideDoorPoint, curveExtremityPoint)
#Get amont of wall we need
wallsNeeded = int(math.ceil(segmentLength / self.getWallSize().x))
#curve = cmds.curve(p=[(sideDoorPoint.x,sideDoorPoint.y,sideDoorPoint.z),(curveExtremityPoint.x,curveExtremityPoint.y,curveExtremityPoint.z)],d=1,n=curveName)
vec1 = Vector3(sideDoorPoint.x, sideDoorPoint.y,
self.center.z) - sideDoorPoint
vec2 = curveExtremityPoint - sideDoorPoint
angle = Vector3.getAngleBetweenVector(vec1, vec2)
spawnPointA = sideDoorPoint
spawnPointB = curveExtremityPoint
for j in range(0, wallsNeeded):
spawnWallPosition = Vector3(
spawnPointA.x -
(spawnPointA.x - spawnPointB.x) * j / wallsNeeded -
(spawnPointA.x - spawnPointB.x) / wallsNeeded / 2,
spawnPointA.y -
(spawnPointA.y - spawnPointB.y) * j / wallsNeeded -
(spawnPointA.y - spawnPointB.y) / wallsNeeded / 2,
spawnPointA.z -
(spawnPointA.z - spawnPointB.z) * j / wallsNeeded -
(spawnPointA.z - spawnPointB.z) / wallsNeeded / 2)
yRotation = 0.0
if sideDoorPoint.x > curveExtremityPoint.x:
yRotation = -90.0 + angle
else:
yRotation = 90.0 - angle
wall = self.createWall(spawnWallPosition,
Vector3(0.0, yRotation, 0.0))
self.walls.append(wall)
wallsSegmentNames.append(wall.name)
cmds.group(wallsSegmentNames, n=wallGroupName)
cmds.xform(wallGroupName, piv=(0, 0, 0))
self.IncrementWallsSegmentIndex()
def createTowers(self):
#Array of tower's name to select them and positionAlongCurve
towerNames = []
for i in range(0, self.towerAmount):
tower = Tower(Vector3(0, 0, 0))
self.towers.append(tower)
towerNames.append(tower.name)
Tower.IncementTowerIndex()
#Select towers then curve to positionAlongCurve
cmds.select(towerNames)
cmds.select(self.curveName, add=True)
mayaGeneral.positionAlongCurve.positionAlongCurve()
def __init__(self, resolution, apertureAngle, wallHeight, wallDepth,
radius, center):
self.resolution = resolution
self.wallHeight = wallHeight
self.wallDepth = wallDepth
self.center = center
self.radius = radius
self.apertureAngle = apertureAngle
self.halfHoleVector = Vector3(0, 0, 0)
self.walls = []
self.wallsSegmentIndex = 0
self.curveName = ""
self.curve = ""
class OuterWall(Wall):
index = 0
wallSize = Vector3(20, 10, 5)
template = cmds.polyCube(w=wallSize.x,
h=wallSize.y,
d=wallSize.z,
n="outer_wall_template")
cmds.hide("outer_wall_template")
def __init__(self, position, rotation):
cmds.instance(self.template, n="outer_wall_" + str(self.index))
cmds.showHidden("outer_wall_" + str(self.index))
cmds.move(position.x, position.y + self.wallSize.y / 2, position.z,
"outer_wall_" + str(self.index))
cmds.rotate(rotation.x, rotation.y, rotation.z,
"outer_wall_" + str(self.index))
super(OuterWall, self).__init__("outer_wall_" + str(self.index))
self.IncementWallIndex()
@classmethod
def IncementWallIndex(cls):
cls.index += 1
def instantiateRampartCurveBased(self):
super(InteriorRampart,
self).instantiateRampartCurveBased('InteriorRampart_curve')
#Step 4 : Create Towers
self.createTowers()
#Step 5 : Create Door
doorPosition = Vector3(self.center.x, self.center.y, self.radius)
self.door = Doors.InnerDoor(doorPosition, Vector3(0, 0, 0))
#Step 6 : Create side door walls
#Left
leftSideDoorPositionList = cmds.getAttr(self.door.locatorLeft[0] +
'.worldPosition')[0]
leftSideDoorPosition = Vector3(leftSideDoorPositionList[0],
leftSideDoorPositionList[1],
leftSideDoorPositionList[2])
leftExtremityCurve = Vector3(
cmds.pointPosition(self.curveName + '.cv[0]')[0],
cmds.pointPosition(self.curveName + '.cv[0]')[1],
cmds.pointPosition(self.curveName + '.cv[0]')[2])
self.createDoorWalls(leftSideDoorPosition, leftExtremityCurve,
"left_in_side_door_walls",
"left_in_side_door_curve")
#Right
rightSideDoorPositionList = cmds.getAttr(self.door.locatorRight[0] +
'.worldPosition')[0]
rightSideDoorPosition = Vector3(rightSideDoorPositionList[0],
rightSideDoorPositionList[1],
rightSideDoorPositionList[2])
rightExtremityCurve = Vector3(
cmds.pointPosition(self.curveName + '.cv[' + str(self.resolution) +
']')[0],
cmds.pointPosition(self.curveName + '.cv[' + str(self.resolution) +
']')[1],
cmds.pointPosition(self.curveName + '.cv[' + str(self.resolution) +
']')[2])
self.createDoorWalls(rightSideDoorPosition, rightExtremityCurve,
"right_in_side_door_walls",
"right_in_side_door_curve")
#Step 7 : Group all
self.groupRampart([
self.curveName, self.towersGroupName, self.wallsGroupName,
self.door.groupName, "left_in_side_door_walls",
"right_in_side_door_walls"
], self.groupName)
class Castle:
def __init__(self, interiorRampart, exteriorRampart, groundRampart):
groupNames = []
self.interiorRampart = interiorRampart
self.exteriorRampart = exteriorRampart
self.groundRampart = groundRampart
self.interiorRampart.instantiateRampartCurveBased()
groupNames.append(self.interiorRampart.groupName)
self.exteriorRampart.instantiateRampartCurveBased()
groupNames.append(self.exteriorRampart.groupName)
self.groundRampart.instantiateRampartCurveBased()
groupNames.append(self.groundRampart.groupName)
self.name = cmds.group(groupNames, n="Castle")
if (cmds.objExists("Castle")):
cmds.select("Castle")
cmds.delete()
interiorRampart = Ramparts.InteriorRampart(8, 60.0, 0.5, 0.5, 80,
Vector3(0, 10, 0), 9)
exteriorRampart = Ramparts.ExteriorRampart(8, 60.0, 0.5, 0.5, 140,
Vector3(0, 0, 0))
groundRampart = Ramparts.GroundRampart(12, 0.0, 0.5, 0.5, 90,
Vector3(0, 10, 0), 10)
castle = Castle(interiorRampart, exteriorRampart, groundRampart)
cmds.editDisplayLayerMembers(rampartsLayer, 'Castle')
def instantiateRampartTrigo(self):
# Amount of walls needed on doors side
doorWallsNeeded = int(
math.ceil(
(self.getSegmentLength() / 2 - self.opertureVector.magnitude) /
OuterWall.wallSize.x))
# WallRotation in radians
wallAngle = math.degrees(
(self.resolution - 2) * math.pi / self.resolution)
# Calculate the length of a side : a = 2R sin(pi/r)
sideLength = 2 * self.radius * math.sin(math.pi / self.resolution)
# Array of points to draw the curve
pointsArray = []
# Get two adjacents points on curve to create walls on
xFirst = self.center.x + self.radius * math.cos(math.radians(0))
xLast = self.center.x + self.radius * math.cos(
math.radians(360 * (self.resolution - 1) / self.resolution))
yFirst = self.center.z + self.radius * math.sin(math.radians(0))
yLast = self.center.z + self.radius * math.sin(
math.radians(360 * (self.resolution - 1) / self.resolution))
for i in range(0, self.resolution):
# Get coordinates of polygon's intersections
xFirstIntersection = self.center.x + self.radius * math.cos(
math.radians(360 * i / self.resolution))
yFirstIntersection = self.center.z + self.radius * math.sin(
math.radians(360 * i / self.resolution))
if i == 0:
wallsSegmentNames = []
# At the begining of the curve, we create the little wall next to the door
xOpposite = self.center.x + self.radius * math.cos(
math.radians(360 *
(self.resolution - 1) / self.resolution))
yOpposite = self.center.z + self.radius * math.sin(
math.radians(360 *
(self.resolution - 1) / self.resolution))
xSideGate = xFirstIntersection + (
xOpposite - xFirstIntersection) / 2 - self.opertureVector.x
ySideGate = yFirstIntersection + (
yOpposite - yFirstIntersection) / 2 - self.opertureVector.z
for j in range(0, doorWallsNeeded):
spawnWallPosition = Vector3(
xSideGate -
(xSideGate - xFirst) * j / doorWallsNeeded -
(xSideGate - xFirst) / doorWallsNeeded / 2, 0,
ySideGate -
(ySideGate - yFirst) * j / doorWallsNeeded -
(ySideGate - yFirst) / doorWallsNeeded / 2)
wall = OuterWall(spawnWallPosition,
Vector3(0, -wallAngle / 2, 0))
self.walls.append(wall)
wallsSegmentNames.append(wall.name)
cmds.group(wallsSegmentNames,
n="outer_walls_" + str(self.wallsSegmentIndex))
self.IncrementWallsSegmentIndex()
pointsArray.append((xSideGate, 0, ySideGate))
pointsArray.append((xFirstIntersection, 0, yFirstIntersection))
# If we are not on the last segment where we build the entrance, create walls
if i != (self.resolution - 1):
wallsSegmentsNames = []
for j in range(0, self.wallsPerSegment):
spawnWallPosition = Vector3(
xFirst - (xFirst - xLast) * j / self.wallsPerSegment -
(xFirst - xLast) / self.wallsPerSegment / 2, 0,
yFirst - (yFirst - yLast) * j / self.wallsPerSegment -
(yFirst - yLast) / self.wallsPerSegment / 2)
wall = OuterWall(spawnWallPosition,
Vector3(0, -wallAngle / 2, 0))
self.walls.append(wall)
wallsSegmentsNames.append(wall.name)
cmds.group(wallsSegmentsNames,
n="outer_walls_" + str(self.wallsSegmentIndex))
cmds.rotate(0,
360.0 * (i + 1) / self.resolution,
0,
"outer_walls_" + str(self.wallsSegmentIndex),
p=self.center)
self.IncrementWallsSegmentIndex()
# At the end of the curve, we create the little wall next to the door
if i == (self.resolution - 1):
wallsSegmentsNames = []
xOpposite = self.center.x + self.radius * math.cos(
math.radians(0))
yOpposite = self.center.z + self.radius * math.sin(
math.radians(0))
xSideGate = xFirstIntersection + (
xOpposite - xFirstIntersection) / 2 + self.opertureVector.x
ySideGate = yFirstIntersection + (
yOpposite - yFirstIntersection) / 2 + self.opertureVector.z
print("j'ai besoin de :" + str(doorWallsNeeded))
for j in range(0, doorWallsNeeded):
spawnWallPosition = Vector3(
xSideGate - (xSideGate - xLast) * j / doorWallsNeeded -
(xSideGate - xLast) / doorWallsNeeded / 2, 0,
ySideGate - (ySideGate - yLast) * j / doorWallsNeeded -
(ySideGate - yLast) / doorWallsNeeded / 2)
wall = OuterWall(spawnWallPosition,
Vector3(0, -wallAngle / 2, 0))
self.walls.append(wall)
wallsSegmentNames.append(wall.name)
cmds.group(wallsSegmentNames,
n="outer_walls_" + str(self.wallsSegmentIndex))
self.IncrementWallsSegmentIndex()
pointsArray.append((xSideGate, 0, ySideGate))
cmds.curve(bez=False, p=pointsArray, d=1)
print("instantiateRempart exterieur!")
def instantiateRampartTrigo(self):
# WallRotation in radians
wallAngle = math.degrees(
(self.resolution - 2) * math.pi / self.resolution)
# Calculate the length of a side : a = 2R sin(pi/r)
sideLength = 2 * self.radius * math.sin(math.pi / self.resolution)
xFirst = self.center.x + self.radius * \
math.cos(math.radians(0))
xLast = self.center.x + self.radius * \
math.cos(math.radians(
360 * (self.resolution-1)/self.resolution))
yFirst = self.center.z + self.radius * \
math.sin(math.radians(0))
yLast = self.center.z + self.radius * \
math.sin(math.radians(
360 * (self.resolution-1)/self.resolution))
pointsArray = []
doorWallsNeeded = int(math.ceil(self.wallsPerSegment / 3.0))
# Gates
for i in range(0, self.resolution):
# Get coordinates of polygon's intersections
xFirstIntersection = self.center.x + self.radius * \
math.cos(math.radians(360 * i/self.resolution))
yFirstIntersection = self.center.z + self.radius * \
math.sin(math.radians(360 * i/self.resolution))
xNextIntersection = self.center.x + self.radius * \
math.cos(math.radians(360 * (i-1)/self.resolution))
yNextIntersection = self.center.z + self.radius * \
math.sin(math.radians(360 * (i-1)/self.resolution))
# At the begining of the curve, we create the little wall next to the door
if i == 0:
wallsSegmentNames = []
xOpposite = self.center.x + self.radius * math.cos(
math.radians(360 *
(self.resolution - 1) / self.resolution))
yOpposite = self.center.z + self.radius * math.sin(
math.radians(360 *
(self.resolution - 1) / self.resolution))
xSideGate = xFirstIntersection + \
(xOpposite - xFirstIntersection)/3
ySideGate = yFirstIntersection + \
(yOpposite - yFirstIntersection)/3
pointsArray.append((xSideGate, 0, ySideGate))
self.setHalfHoleVector(
Vector3((xOpposite - xFirstIntersection) / 6, 0,
(yOpposite - yFirstIntersection) / 6))
for j in range(0, doorWallsNeeded):
spawnWallPosition = Vector3(
xSideGate -
(xSideGate - xFirst) * j / doorWallsNeeded -
(xSideGate - xFirst) / doorWallsNeeded / 2,
0,
ySideGate -
(ySideGate - yFirst) * j / doorWallsNeeded -
(ySideGate - yFirst) / doorWallsNeeded / 2,
)
wall = InnerWall(spawnWallPosition,
Vector3(0, -wallAngle / 2, 0))
self.walls.append(wall)
wallsSegmentNames.append(wall.name)
cmds.group(wallsSegmentNames,
n="inner_walls_" + str(self.wallsSegmentIndex))
self.IncrementWallsSegmentIndex()
pointsArray.append((xFirstIntersection, 0, yFirstIntersection))
towerPosition = Vector3(xFirstIntersection, 0, yFirstIntersection)
self.intersectionPoints.append(towerPosition)
self.towers.append(Tower(towerPosition))
if i != (self.resolution - 1):
wallsSegmentNames = []
for j in range(0, self.wallsPerSegment):
spawnWallPosition = Vector3(
xFirst - (xFirst - xLast) * j / self.wallsPerSegment -
(xFirst - xLast) / self.wallsPerSegment / 2,
0,
yFirst - (yFirst - yLast) * j / self.wallsPerSegment -
(yFirst - yLast) / self.wallsPerSegment / 2,
)
wall = InnerWall(spawnWallPosition,
Vector3(0, -wallAngle / 2, 0))
self.walls.append(wall)
wallsSegmentNames.append(wall.name)
cmds.group(wallsSegmentNames,
n="inner_walls_" + str(self.wallsSegmentIndex))
cmds.rotate(0,
360.0 * (i + 1) / self.resolution,
0,
"inner_walls_" + str(self.wallsSegmentIndex),
p=self.center)
self.IncrementWallsSegmentIndex()
if i == (self.resolution - 1):
wallsSegmentNames = []
# At the end of the curve, we create the little wall next to the door
xOpposite = self.center.x + \
self.radius * math.cos(math.radians(0))
xSideGate = xFirstIntersection + \
(xOpposite - xFirstIntersection)/3
yOpposite = self.center.z + \
self.radius * math.sin(math.radians(0))
ySideGate = yFirstIntersection + \
(yOpposite - yFirstIntersection)/3
pointsArray.append((xSideGate, 0, ySideGate))
for j in range(0, doorWallsNeeded):
spawnWallPosition = Vector3(
xSideGate - (xSideGate - xLast) * j / doorWallsNeeded -
(xSideGate - xLast) / doorWallsNeeded / 2,
0,
ySideGate - (ySideGate - yLast) * j / doorWallsNeeded -
(ySideGate - yLast) / doorWallsNeeded / 2,
)
wall = InnerWall(spawnWallPosition,
Vector3(0, -wallAngle / 2, 0))
self.walls.append(wall)
wallsSegmentNames.append(wall.name)
cmds.group(wallsSegmentNames,
n="inner_walls_" + str(self.wallsSegmentIndex))
self.IncrementWallsSegmentIndex()
cmds.curve(bez=False, p=pointsArray, d=1)
return
ySideGate - (ySideGate - yLast) * j / doorWallsNeeded -
(ySideGate - yLast) / doorWallsNeeded / 2)
wall = OuterWall(spawnWallPosition,
Vector3(0, -wallAngle / 2, 0))
self.walls.append(wall)
wallsSegmentNames.append(wall.name)
cmds.group(wallsSegmentNames,
n="outer_walls_" + str(self.wallsSegmentIndex))
self.IncrementWallsSegmentIndex()
pointsArray.append((xSideGate, 0, ySideGate))
cmds.curve(bez=False, p=pointsArray, d=1)
print("instantiateRempart exterieur!")
internalRampart = InteriorRampart(8, 60.0, 0.5, 0.5, 60, Vector3(0, 0, 0), 4)
internalRampart.instantiateRempartCurveBased()
externalRampart = ExteriorRampart(8, 60, 0.5, 0.5, 100, Vector3(0, 0, 0),
internalRampart.halfHoleVector)
externalRampart.instantiateRempartCurveBased()
#Interface de fortune
# window = c.window()
# c.window(t="Generateur de temple", widthHeight=(800, 600))
# c.columnLayout(adj=True, cal='left', cw=50, w=400,
# co=('both', 25), bgc=[0.1, 0.3, 0.5])
# c.text("-- Creation de temple --", h=50, al='center')
# c.rowLayout(nc=7, co1=200)
def createWall(self, spawnPos, rotation):
#return Walls.GroundWall(Vector3(spawnPos.x,spawnPos.y - Walls.GroundWall.wallSize.y,spawnPos.z),rotation)
return Walls.GroundWall(Vector3(spawnPos.x, spawnPos.y, spawnPos.z),
rotation)
