def subdivMesh(me, subdivs):
oldmode = Mesh.Mode()
Mesh.Mode(Mesh.SelectModes['FACE'])
me.sel = 1
for i in xrange(subdivs):
me.subdivide(0)
Mesh.Mode(oldmode)
def bevent(evt):
global EVENT_NOEVENT, EVENT_DRAW, EVENT_EXIT
if (evt == EVENT_EXIT):
Draw.Exit()
elif (evt == EVENT_DRAW):
Draw.Redraw()
elif (evt == EVENT_EXPORT):
sce = bpy.data.scenes.active
if (export_all == 1):
print "oh ja"
# get a list of mesh objects
obs = [ob for ob in sce.objects if ob.type == 'Mesh']
# export all object names
for ob in obs:
me = Mesh.New()
me.getFromObject(ob, 0)
print(me.name)
export_to_as(ob)
Draw.PupMenu("Export Successful")
else:
export_to_as(sce.objects.active)
Draw.PupMenu("Export Successful")
elif (evt == EVENT_BROWSEFILE):
Window.FileSelector(FileSelected, "Export .as", expFileName)
Draw.Redraw(1)
def export_to_as(ob):
me = Mesh.New()
me.getFromObject(ob, 0)
class_name = ob.name.replace(".", "")
#get transformations
global ob_locX, ob_locY, ob_locZ, ob_mtrx, ob_rotX, ob_rotY, ob_rotZ, ob_scaleX, ob_scaleY, ob_scaleZ
ob_locX = ob.LocX
ob_locY = ob.LocY
ob_locZ = ob.LocZ
ob_mtrx = ob.matrix.rotationPart()
ob_rotX = ob.RotX * (180 / pi)
ob_rotY = ob.RotY * (180 / pi)
ob_rotZ = ob.RotZ * (180 / pi)
ob_scaleX = ob.SizeX
ob_scaleY = ob.SizeY
ob_scaleZ = ob.SizeZ
if (engine_menu.val == 2):
export_papervision(me, class_name)
elif (engine_menu.val == 3):
export_papervision2(me, class_name)
elif (engine_menu.val == 4):
export_sandy(me, class_name)
elif (engine_menu.val == 1):
export_away3d(me, class_name)
elif (engine_menu.val == 5):
export_away3d_210(me, class_name)
elif (engine_menu.val == 6):
export_away3d_220(me, class_name)
def drawmesh(meshdata, sce):
"draws meshes in blender"
mes = Mesh.New()
mes.verts.extend(meshdata['verts'])
if meshdata['edges']: mes.edges.extend(meshdata['edges'])
if meshdata['faces']: mes.faces.extend(meshdata['faces'])
sce.objects.new(mes, meshdata['name'])
def CreateSegment(self, camera, nameSuffix, length):
editmode = Window.EditMode() # are we in edit mode? If so ...
if editmode:
Window.EditMode(0) # leave edit mode before getting the mesh
name = camera.getName() + nameSuffix
# define vertices and faces for a pyramid
coords = [[-length / 2, 0, 0], [length / 2, 0, 0]]
edges = [[0, 1]]
try:
print "LOOKING FOR MESHDATA"
me = Mesh.Get(name + 'mesh')
print dir(me)
except:
print "COULD NOT FIND MESH"
me = Mesh.New(name + 'mesh')
#print "____ EDGES: ", len(me.edges), "____ VERTS: ", len(me.verts)
me.verts = None
me.edges.delete()
#print "____ EDGES: ", len(me.edges), "____ VERTS: ", len(me.verts)
me.verts.extend(coords) # add vertices to mesh
me.edges.extend(edges) # add faces to the mesh (also adds edges)
#print "____ EDGES: ", len(me.edges), "____ VERTS: ", len(me.verts)
try:
print "TRYING TO RECOVER OBJECT: "
ob = Object.Get(name)
print "++++++ OBJECT RECOVERED: "
except:
print "++++++ CREATING NEW OBJECT"
ob = self.scene.objects.new(me, name)
if editmode: Window.EditMode(1) # optional, just being nice
return ob
def export_wall2(wall, all, fi, obj_idx):
kids = getChildren(wall, all)
if has_prefix(wall.name, 'SEG'):
fi.write("SEGMENT %s\n" % strip_prefix(wall.name, 'SEG'))
else:
fi.write("SEGMENT_CURVED %s\n" % strip_prefix(wall.name, 'CRV'))
grp_list = Group.Get()
grp_list.sort(lambda x, y: cmp(x.name.lower(), y.name.lower()))
grp_list.insert(0, None)
for layer, lod in [[1, 5000], [2, 20000]]:
for gi, g in enumerate(grp_list):
my_kids = []
for k in kids:
if layer in k.layers:
if findgroup(grp_list, k) == g:
if k.getType() == 'Mesh':
my_kids.append(k)
if len(my_kids) > 0:
out_mesh = FacMesh()
for k in my_kids:
mesh = k.getData(mesh=True)
if k.getType() != 'Mesh' or k.modifiers:
mesh = Mesh.New()
mesh.getFromObject(k)
for f in mesh.faces:
out_mesh.add_face(f, k)
divs = 4
if has_prefix(wall.name, 'SEG'): divs = 1
divs = int(float(get_prop(wall, 'divs', divs)))
fi.write(
"MESH %d %f %d %d %d\n" %
(gi, lod, divs, len(out_mesh.vlist), out_mesh.idx_count))
out_mesh.output(fi)
fi.write("\n")
for k in kids:
if k.getType() == 'Empty' and has_prefix(k.name, 'OBJ'):
ki = obj_idx[get_prop(k, 'external', k.name)]
loc = k.getMatrix('localspace').translationPart()
if has_close_prop(k, ['GRADED', 'DRAPED']) == 'GRADED':
fi.write("ATTACH_GRADED %d %f %f %f %f" %
(ki, loc[0], loc[2], -loc[1], make_degs(-k.RotZ)))
else:
fi.write("ATTACH_DRAPED %d %f %f %f %f" %
(ki, loc[0], loc[2], -loc[1], make_degs(-k.RotZ)))
if has_prop(k, 'show_level'):
fi.write(" %s" % get_prop(k, 'show_level', ''))
fi.write("\n")
def New(self, panelimage):
if self.obj:
mesh = self.obj.getData(mesh=True)
for n in range(1, len(mesh.faces)):
if mesh.faces[n].image != mesh.faces[0].image:
self.delRegion(mesh.faces[n].image)
self.obj.removeAllProperties()
else:
mesh = Mesh.New(PanelRegionHandler.NAME)
self.obj = Mesh.New(PanelRegionHandler.NAME)
self.obj = Object.New('Mesh', PanelRegionHandler.NAME)
self.obj.link(mesh)
Scene.GetCurrent().link(self.obj)
self.obj.layers = [] # invisible
# (re)build faces and assign panel texture
for n in range(len(mesh.faces), PanelRegionHandler.REGIONCOUNT + 1):
v = len(mesh.verts)
mesh.verts.extend([[0, 0, -n], [1, 0, -n], [0, 1, -n]])
mesh.faces.extend([[v, v + 1, v + 2]])
for n in range(PanelRegionHandler.REGIONCOUNT + 1):
mesh.faces[n].image = panelimage
return self
def Import(self):
lines = self.lines
print "importing into Blender ..."
scene = bpy.data.scenes.active
mesh_indicies = {} # the index of each 'Mesh' is used as the key for those meshes indicies
context_indicies = None # will raise an error if used!
#Get the line of Texture Coords
nr_uv_ind = 0
#Get Materials
nr_fac_mat = 0
i = -1
mat_list = []
tex_list = []
mesh_line_indicies = []
for j, line in enumerate(lines):
l = line.strip()
words = line.split()
if words[0] == "Material" :
#context_indicies["Material"] = j
self.loadMaterials(j, mat_list, tex_list)
elif words[0] == "MeshTextureCoords" :
context_indicies["MeshTextureCoords"] = j
#nr_uv_ind = j
elif words[0] == "MeshMaterialList" :
context_indicies["MeshMaterialList"] = j+2
#nr_fac_mat = j + 2
elif words[0] == "Mesh": # Avoid a second loop
context_indicies = mesh_indicies[j] = {'MeshTextureCoords':0, 'MeshMaterialList':0}
for mesh_index, value in mesh_indicies.iteritems():
mesh = Mesh.New()
self.loadVertices(mesh_index, mesh, value['MeshTextureCoords'], value['MeshMaterialList'], tex_list)
mesh.materials = mat_list[:16]
if value['MeshMaterialList']:
self.loadMeshMaterials(value['MeshMaterialList'], mesh)
scene.objects.new(mesh)
self.file.close()
print "... finished"
def __init__(self, scene_objects, file):
self.file = file
objs = [o for o in scene_objects if o.type == 'Mesh']
# not sure if needed
# create a temporary mesh to hold actual (modified) mesh data
TMP_mesh = Mesh.New('tmp_for_stl_export')
# write the objects
for obj in objs:
self.obj = obj
objtype = obj.type
objname = obj.name
mesh = TMP_mesh # temporary mesh to hold actual (modified) mesh data
mesh.getFromObject(objname)
self.mesh = mesh
self.export_mesh(mesh, obj)
def writeMesh(o, obj):
o.write("# Mesh " + obj.name + "\n")
mesh = Mesh.New(
obj.name
) # Note the "mesh.verts = None" at the end of this if. Used to clear the new mesh from memory
mesh.getFromObject(obj, 0, 1)
mesh.transform(obj.mat, 1)
# mesh = mesh.getData()
verts = mesh.verts
faces = mesh.faces
# writeMatrix(o, obj.getMatrix())
if len(mesh.materials) > 0:
mat = mesh.materials[0]
writeMaterial(o, mat)
else:
writeDefaultMaterial(o)
o.write("shape {\n")
o.write(" mesh\n")
o.write(" vertexCount %u\n" % len(verts))
o.write(" faceCount %u\n" % len(faces))
for v in verts:
o.write(" v %.6f %.6f %.6f\n" % (v.co[0], v.co[1], v.co[2]))
for face in faces:
fv = face.v
o.write(" f ")
if len(fv) == 4:
o.write("%d %d %d %d\n" %
(fv[0].index, fv[1].index, fv[2].index, fv[3].index))
elif len(fv) == 3:
o.write("%d %d %d\n" % (fv[2].index, fv[1].index, fv[0].index))
o.write("}\n")
def writeMesh(self, ob, normals=0):
imageMap = {} # set of used images
sided = {} # 'one':cnt , 'two':cnt
vColors = {} # 'multi':1
if (len(ob.modifiers) > 0):
me = Mesh.New()
me.getFromObject(ob.name)
# Careful with the name, the temporary mesh may
# reuse the default name for other meshes. So we
# pick our own name.
me.name = "MOD_%s" % (ob.name)
else:
me = ob.getData(mesh=1)
self.classifyMesh(me, ob)
if (self.collnode):
self.writeCollisionMesh(me, ob, normals)
return
else:
self.writeRegularMesh(me, ob, normals)
return
def ImportPSK(infile):
print "Importing file: ", infile
pskFile = file(infile, 'rb')
#
mesh = Mesh.New('mesh01')
# read general header
header = axChunkHeader()
header.Load(pskFile)
header.Dump()
# read the PNTS0000 header
header.Load(pskFile)
header.Dump()
axPoints = []
for i in range(0, header.dataCount):
point = axPoint()
point.Load(pskFile)
axPoints.append(point)
#mesh.verts.extend([[point.x, point.y, point.z]])
# read the VTXW0000 header
header.Load(pskFile)
header.Dump()
xyzList = []
uvList = []
axVerts = []
for i in range(0, header.dataCount):
vert = axVertex()
vert.Load(pskFile)
#vert.Dump()
axVerts.append(vert)
xyzList.append(
Vector([
axPoints[vert.pointIndex].x, axPoints[vert.pointIndex].y,
axPoints[vert.pointIndex].z
]))
uvList.append(Vector([vert.u, vert.v]))
mesh.verts.extend(xyzList)
# read the FACE0000 header
header.Load(pskFile)
header.Dump()
axTriangles = []
for i in range(0, header.dataCount):
tri = axTriangle()
tri.Load(pskFile)
#tri.Dump()
axTriangles.append(tri)
SGlist = []
for i in range(0, header.dataCount):
tri = axTriangles[i]
mesh.faces.extend(tri.indexes)
uvData = []
uvData.append(uvList[tri.indexes[0]])
uvData.append(uvList[tri.indexes[1]])
uvData.append(uvList[tri.indexes[2]])
mesh.faces[i].uv = uvData
# collect a list of the smoothing groups
if SGlist.count(tri.smoothingGroups) == 0:
SGlist.append(tri.smoothingGroups)
# assign a material index to the face
#mesh.faces[-1].materialIndex = SGlist.index(indata[5])
mesh.faces[i].mat = tri.materialIndex
mesh.update()
meshObject = Object.New('Mesh', 'PSKMesh')
meshObject.link(mesh)
scene = Scene.GetCurrent()
scene.link(meshObject)
# read the MATT0000 header
header.Load(pskFile)
header.Dump()
for i in range(0, header.dataCount):
data = unpack('64s6i', pskFile.read(88))
matName = asciiz(data[0])
print("creating material", matName)
if matName == "":
matName = "no_texture"
try:
mat = Material.Get(matName)
except:
#print("creating new material:", matName)
mat = Material.New(matName)
# create new texture
texture = Texture.New(matName)
texture.setType('Image')
# texture to material
mat.setTexture(0, texture, Texture.TexCo.UV, Texture.MapTo.COL)
# read the REFSKELT header
header.Load(pskFile)
header.Dump()
axReferenceBones = []
for i in range(0, header.dataCount):
axReferenceBones.append(axReferenceBone())
axReferenceBones[i].Load(pskFile)
#axReferenceBones[i].Dump()
quat = axReferenceBones[i].quat
if i == 0:
axReferenceBones[i].parentIndex = -1
quat.y = -quat.y
#quat.inverse()
else:
quat.inverse()
# create an armature skeleton
armData = Armature.Armature("PSK")
armData.drawAxes = True
armObject = Object.New('Armature', "ReferenceBones")
armObject.link(armData)
scene = Scene.GetCurrent()
scene.objects.link(armObject)
armData.makeEditable()
editBones = []
for i in range(0, header.dataCount):
refBone = axReferenceBones[i]
refBone.name = refBone.name.replace(' ', '_')
print("processing bone ", refBone.name)
#if refBone.position.length == 0:
#refBone.Dump()
editBone = Armature.Editbone()
editBone.name = refBone.name
#editBone.length = refBone.position.length
if refBone.parentIndex >= 0:
refParent = axReferenceBones[refBone.parentIndex]
parentName = refParent.name
#print type(parentName)
print("looking for parent bone", parentName)
#parent = armData.bones[parentName]
#parent.
#
editBone.head = refParent.position.copy()
editParent = editBones[refBone.parentIndex]
#editParent = armData.bones[editBones[refBone.parentIndex].name]
#editParent = armData.bones[parentName]
editBone.parent = editParent
#editBone.tail = refBone.position
#editBone.matrix = refBone.quat.toMatrix()
#m = Matrix(QuatToMatrix(refParent.quat))
#rotatedPos = m * refBone.position.copy()
rotatedPos = refParent.quat * refBone.position.copy()
editBone.tail = refParent.position + rotatedPos
refBone.position = refParent.position + rotatedPos
#editBone.tail = refBone.position = refParent.position + refBone.position
q1 = refParent.quat.copy()
q2 = refBone.quat.copy()
refBone.quat = QuatMultiply1(q1, q2)
#editBone.matrix = refBone.quat.toMatrix()
#matrix = Matrix(refParent.quat.toMatrix() * refBone.quat.toMatrix())
#m1 = refParent.quat.copy().toMatrix()
#m2 = refBone.quat.toMatrix()
#refBone.quat = matrix.toQuat()
#editBone.options = [Armature.HINGE]
#editBone.options = [Armature.HINGE, Armature.CONNECTED]
editBone.options = [Armature.CONNECTED]
else:
editBone.head = Vector(0, 0, 0)
editBone.tail = refBone.position.copy()
#editBone.tail = refBone.quat.toMatrix() * refBone.position
#editBone.options = [Armature.HINGE]
#editBone.matrix = refBone.quat.toMatrix()
editBones.append(editBone)
armData.bones[editBone.name] = editBone
# only update after adding all edit bones or it will crash Blender !!!
armData.update()
print("done processing reference bones")
#for editBone in editBones:
#armData.makeEditable()
#armData.bones[editBone.name] = editBone
#armData.update()
armObject.makeDisplayList()
scene.update()
Window.RedrawAll()
# read the RAWWEIGHTS header
header.Load(pskFile)
header.Dump()
axBoneWeights = []
for i in range(0, header.dataCount):
axBoneWeights.append(axBoneWeight())
axBoneWeights[i].Load(pskFile)
#if i < 10:
# axBoneWeights[i].Dump()
# calculate the vertex groups
vertGroupCreated = []
for i in range(0, len(axReferenceBones)):
vertGroupCreated.append(0)
for i in range(0, len(axReferenceBones)):
refBone = axReferenceBones[i]
for boneWeight in axBoneWeights:
if boneWeight.boneIndex == i:
# create a vertex group for this bone if not done yet
if vertGroupCreated[i] == 0:
print('creating vertex group:', refBone.name)
mesh.addVertGroup(refBone.name)
vertGroupCreated[i] = 1
for j in range(0, len(axVerts)):
axVert = axVerts[j]
#vertList.append(boneWeight.pointIndex)
if boneWeight.pointIndex == axVert.pointIndex:
mesh.assignVertsToGroup(refBone.name, [j],
boneWeight.weight,
Mesh.AssignModes.ADD)
#mesh.assignVertsToGroup(refBone.name, vertList, )
armObject.makeParentDeform([meshObject], 0, 0)
pskFile.close()
Window.RedrawAll()
print "PSK2Blender completed"
def MakeMesh(image):
"""This takes an image as input and creates a mesh that is an extrusion
of the mesh treated as a height field, with the zero value areas cut
from the mesh.
"""
epsilon = 1.0 / 10000000.0
set_aspect_ratio = True
scale_factor = 2.0
# scale the z value
zscale = -1.2
xscale = 14.2
yscale = 14.2
xmax, ymax = image.getMaxXY()
xmin, ymin = image.getMinXY()
name = image.getName()
depth = image.depth
has_data = image.has_data
xres, yres = image.getSize()
inv_xres = 1.0 / float(xres)
inv_yres = 1.0 / float(yres)
# scale output mesh to have correct aspect ratio
# to fit within a unit cube
if set_aspect_ratio:
aspect_ratio = float(xres) * inv_yres
if aspect_ratio > 1.0:
inv_xres *= 1.0
inv_yres *= 1.0 / aspect_ratio
else:
inv_xres *= aspect_ratio
inv_yres *= 1.0
# scale the x and y together
inv_xres *= scale_factor
inv_yres *= scale_factor
print("xres: %d, yres: %d, xinv %f, yinv %f" %
(xres, yres, inv_xres, inv_yres))
print("depth: %d, has_data: %s, name: %s" % (depth, has_data, name))
coords = []
faces = []
zero_verts = {}
# Create coordinate array, mark zero z vertices.
count = 0
for y in range(yres):
for x in range(xres):
r, g, b, a = image.getPixelF(x, y)
v = g + r * 256 + b * 256 * 256
if v > 125:
v = 125
coords.append([(float(x) * inv_xres - 0.5) * xscale,
(float(y) * inv_yres - 0.5) * yscale, v * zscale])
#if v < epsilon:
if v < epsilon and False:
print "Z: %d" % count,
zero_verts[count] = 4
count += 1
# Create face list. Decrement zero verts.
for y in range(yres - 1):
for x in range(xres - 1):
p1 = x + (y * xres)
p2 = p1 + 1 # clockwise?
p3 = x + (y + 1) * xres + 1
p4 = p3 - 1
if (coords[p1][2] < epsilon and coords[p2][2] < epsilon
and coords[p3][2] < epsilon and coords[p4][2] < epsilon
and False):
zero_verts[p1] -= 1
zero_verts[p2] -= 1
zero_verts[p3] -= 1
zero_verts[p4] -= 1
else:
faces.append([p1, p2, p3, p4])
# Adjust edges for unused zeros
for y in range(yres):
p1 = y * xres
if zero_verts.has_key(p1):
zero_verts[p1] -= 2
p1 = p1 + xres - 1
if zero_verts.has_key(p1):
zero_verts[p1] -= 2
for x in range(xres):
p1 = x
if zero_verts.has_key(p1):
zero_verts[p1] -= 2
p1 = x + xres * (yres - 1)
if zero_verts.has_key(p1):
zero_verts[p1] -= 2
p1 = 0
if zero_verts.has_key(p1):
zero_verts[p1] += 1
p1 = xres - 1
if zero_verts.has_key(p1):
zero_verts[p1] += 1
p1 = (yres - 1) * xres
if zero_verts.has_key(p1):
zero_verts[p1] += 1
p1 = p1 + xres - 1
if zero_verts.has_key(p1):
zero_verts[p1] += 1
# Filter vert list and remove unused zeros
new_verts = []
remap = {}
new_count = 0
for v in range(len(coords)):
is_zero = zero_verts.has_key(v)
if not is_zero or zero_verts[v] > 0:
remap[v] = new_count
new_verts.append(coords[v])
new_count += 1
# Re Map old coords to new coords in face list
new_faces = []
for f in faces:
#print "Making face: %s" % f
n1 = remap[f[0]]
n2 = remap[f[1]]
n3 = remap[f[2]]
n4 = remap[f[3]]
new_faces.append([n1, n2, n3, n4])
# Verbatim sample code from Blender.Mesh.__doc__
editmode = Window.EditMode() # are we in edit mode? If so ...
if editmode: Window.EditMode(0) # leave edit mode before getting the mesh
me = Mesh.New('myMesh')
me.verts.extend(new_verts) # add vertices to mesh
me.faces.extend(new_faces) # add faces to the mesh (also adds edges)
#me.mesh.MFace.smooth(1)
scn = Scene.GetCurrent() # link object to current scene
ob = scn.objects.new(me, 'myObj')
if editmode: Window.EditMode(1) # optional, just being nice
# End Verbatim code
return ob
def write(filename, objects,\
EXPORT_TRI=False, EXPORT_EDGES=False, EXPORT_NORMALS=False, EXPORT_NORMALS_HQ=False,\
EXPORT_UV=True, EXPORT_MTL=True, EXPORT_COPY_IMAGES=False,\
EXPORT_APPLY_MODIFIERS=True, EXPORT_ROTX90=True, EXPORT_BLEN_OBS=True,\
EXPORT_GROUP_BY_OB=False, EXPORT_GROUP_BY_MAT=False, EXPORT_MORPH_TARGET=False, EXPORT_ARMATURE=False):
'''
Basic write function. The context and options must be alredy set
This can be accessed externaly
eg.
write( 'c:\\test\\foobar.obj', Blender.Object.GetSelected() ) # Using default options.
'''
def veckey3d(v):
return round(v.x, 6), round(v.y, 6), round(v.z, 6)
def veckey2d(v):
return round(v.x, 6), round(v.y, 6)
print 'OBJ Export path: "%s"' % filename
temp_mesh_name = '~tmp-mesh'
time1 = sys.time()
scn = Scene.GetCurrent()
file = open(filename, "w")
# Write Header
file.write('# Blender3D v%s OBJ File: %s\n' % (Blender.Get('version'), Blender.Get('filename').split('/')[-1].split('\\')[-1] ))
file.write('# www.blender3d.org\n')
# Tell the obj file what material file to use.
if EXPORT_MTL:
mtlfilename = '%s.mtl' % '.'.join(filename.split('.')[:-1])
file.write('mtllib %s\n' % ( mtlfilename.split('\\')[-1].split('/')[-1] ))
# Get the container mesh. - used for applying modifiers and non mesh objects.
containerMesh = meshName = tempMesh = None
for meshName in Blender.NMesh.GetNames():
if meshName.startswith(temp_mesh_name):
tempMesh = Mesh.Get(meshName)
if not tempMesh.users:
containerMesh = tempMesh
if not containerMesh:
containerMesh = Mesh.New(temp_mesh_name)
if EXPORT_ROTX90:
mat_xrot90= Blender.Mathutils.RotationMatrix(-90, 4, 'x')
del meshName
del tempMesh
# Initialize totals, these are updated each object
totverts = totuvco = totno = 1
face_vert_index = 1
globalNormals = {}
# Get all meshs
for ob_main in objects:
for ob, ob_mat in BPyObject.getDerivedObjects(ob_main):
# Will work for non meshes now! :)
# getMeshFromObject(ob, container_mesh=None, apply_modifiers=True, vgroups=True, scn=None)
if EXPORT_ARMATURE:
write_armature(file,ob)
write_poses(file,ob)
me= BPyMesh.getMeshFromObject(ob, containerMesh, EXPORT_APPLY_MODIFIERS, False, scn)
if not me:
continue
if EXPORT_UV:
faceuv= me.faceUV
else:
faceuv = False
# We have a valid mesh
if EXPORT_TRI and me.faces:
# Add a dummy object to it.
has_quads = False
for f in me.faces:
if len(f) == 4:
has_quads = True
break
if has_quads:
oldmode = Mesh.Mode()
Mesh.Mode(Mesh.SelectModes['FACE'])
me.sel = True
tempob = scn.objects.new(me)
me.quadToTriangle(0) # more=0 shortest length
oldmode = Mesh.Mode(oldmode)
scn.objects.unlink(tempob)
Mesh.Mode(oldmode)
faces = [ f for f in me.faces ]
if EXPORT_EDGES:
edges = me.edges
else:
edges = []
if not (len(faces)+len(edges)+len(me.verts)): # Make sure there is somthing to write
continue # dont bother with this mesh.
if EXPORT_ROTX90:
me.transform(ob_mat*mat_xrot90)
else:
me.transform(ob_mat)
# High Quality Normals
if EXPORT_NORMALS and faces:
if EXPORT_NORMALS_HQ:
BPyMesh.meshCalcNormals(me)
else:
# transforming normals is incorrect
# when the matrix is scaled,
# better to recalculate them
me.calcNormals()
# # Crash Blender
#materials = me.getMaterials(1) # 1 == will return None in the list.
materials = me.materials
materialNames = []
materialItems = materials[:]
if materials:
for mat in materials:
if mat: # !=None
materialNames.append(mat.name)
else:
materialNames.append(None)
# Cant use LC because some materials are None.
# materialNames = map(lambda mat: mat.name, materials) # Bug Blender, dosent account for null materials, still broken.
# Possible there null materials, will mess up indicies
# but at least it will export, wait until Blender gets fixed.
materialNames.extend((16-len(materialNames)) * [None])
materialItems.extend((16-len(materialItems)) * [None])
# Sort by Material, then images
# so we dont over context switch in the obj file.
if EXPORT_MORPH_TARGET:
pass
elif faceuv:
try: faces.sort(key = lambda a: (a.mat, a.image, a.smooth))
except: faces.sort(lambda a,b: cmp((a.mat, a.image, a.smooth), (b.mat, b.image, b.smooth)))
elif len(materials) > 1:
try: faces.sort(key = lambda a: (a.mat, a.smooth))
except: faces.sort(lambda a,b: cmp((a.mat, a.smooth), (b.mat, b.smooth)))
else:
# no materials
try: faces.sort(key = lambda a: a.smooth)
except: faces.sort(lambda a,b: cmp(a.smooth, b.smooth))
# Set the default mat to no material and no image.
contextMat = (0, 0) # Can never be this, so we will label a new material teh first chance we get.
contextSmooth = None # Will either be true or false, set bad to force initialization switch.
if EXPORT_BLEN_OBS or EXPORT_GROUP_BY_OB:
name1 = ob.name
name2 = ob.getData(1)
if name1 == name2:
obnamestring = fixName(name1)
else:
obnamestring = '%s_%s' % (fixName(name1), fixName(name2))
if EXPORT_BLEN_OBS:
file.write('o %s\n' % obnamestring) # Write Object name
else: # if EXPORT_GROUP_BY_OB:
file.write('g %s\n' % obnamestring)
# Vert
mesh = ob.getData()
objmat = ob.getMatrix()
for i in objmat:
file.write('obm: %.6f %.6f %.6f %.6f\n' % tuple(i))
vgrouplist = mesh.getVertGroupNames()
file.write('vgroupcount: %i\n' % len(vgrouplist))
for vgname in vgrouplist:
file.write('vgroup: %s\n' % vgname)
for v in mesh.verts:
file.write('v %.6f %.6f %.6f\n' % tuple(v.co))
influences = mesh.getVertexInfluences(v.index)
file.write('influence: %i\n' % len(influences))
for name,weight in influences:
file.write('GroupName: %s\n' % name)
file.write('Weight: %f\n' % weight)
# UV
if faceuv:
uv_face_mapping = [[0,0,0,0] for f in faces] # a bit of a waste for tri's :/
uv_dict = {} # could use a set() here
for f_index, f in enumerate(faces):
for uv_index, uv in enumerate(f.uv):
uvkey = veckey2d(uv)
try:
uv_face_mapping[f_index][uv_index] = uv_dict[uvkey]
except:
uv_face_mapping[f_index][uv_index] = uv_dict[uvkey] = len(uv_dict)
file.write('vt %.6f %.6f\n' % tuple(uv))
uv_unique_count = len(uv_dict)
del uv, uvkey, uv_dict, f_index, uv_index
# Only need uv_unique_count and uv_face_mapping
# NORMAL, Smooth/Non smoothed.
if EXPORT_NORMALS:
for f in faces:
if f.smooth:
for v in f:
noKey = veckey3d(v.no)
if not globalNormals.has_key( noKey ):
globalNormals[noKey] = totno
totno +=1
file.write('vn %.6f %.6f %.6f\n' % noKey)
else:
# Hard, 1 normal from the face.
noKey = veckey3d(f.no)
if not globalNormals.has_key( noKey ):
globalNormals[noKey] = totno
totno +=1
file.write('vn %.6f %.6f %.6f\n' % noKey)
if not faceuv:
f_image = None
for f_index, f in enumerate(faces):
f_v= f.v
f_smooth= f.smooth
f_mat = min(f.mat, len(materialNames)-1)
if faceuv:
f_image = f.image
f_uv= f.uv
# MAKE KEY
if faceuv and f_image: # Object is always true.
key = materialNames[f_mat], f_image.name
else:
key = materialNames[f_mat], None # No image, use None instead.
# CHECK FOR CONTEXT SWITCH
if key == contextMat:
pass # Context alredy switched, dont do anythoing
else:
if key[0] == None and key[1] == None:
# Write a null material, since we know the context has changed.
if EXPORT_GROUP_BY_MAT:
file.write('g %s_%s\n' % (fixName(ob.name), fixName(ob.getData(1))) ) # can be mat_image or (null)
file.write('usemtl (null)\n') # mat, image
else:
mat_data= MTL_DICT.get(key)
if not mat_data:
# First add to global dict so we can export to mtl
# Then write mtl
# Make a new names from the mat and image name,
# converting any spaces to underscores with fixName.
# If none image dont bother adding it to the name
if key[1] == None:
mat_data = MTL_DICT[key] = ('%s'%fixName(key[0])), materialItems[f_mat], f_image
else:
mat_data = MTL_DICT[key] = ('%s_%s' % (fixName(key[0]), fixName(key[1]))), materialItems[f_mat], f_image
if EXPORT_GROUP_BY_MAT:
file.write('g %s_%s_%s\n' % (fixName(ob.name), fixName(ob.getData(1)), mat_data[0]) ) # can be mat_image or (null)
file.write('usemtl %s\n' % mat_data[0]) # can be mat_image or (null)
contextMat = key
if f_smooth != contextSmooth:
if f_smooth: # on now off
file.write('s 1\n')
contextSmooth = f_smooth
else: # was off now on
file.write('s off\n')
contextSmooth = f_smooth
file.write('f')
if faceuv:
if EXPORT_NORMALS:
if f_smooth: # Smoothed, use vertex normals
for vi, v in enumerate(f_v):
file.write( ' %d/%d/%d' % (\
v.index+totverts,\
totuvco + uv_face_mapping[f_index][vi],\
globalNormals[ veckey3d(v.no) ])) # vert, uv, normal
else: # No smoothing, face normals
no = globalNormals[ veckey3d(f.no) ]
for vi, v in enumerate(f_v):
file.write( ' %d/%d/%d' % (\
v.index+totverts,\
totuvco + uv_face_mapping[f_index][vi],\
no)) # vert, uv, normal
else: # No Normals
for vi, v in enumerate(f_v):
file.write( ' %d/%d' % (\
v.index+totverts,\
totuvco + uv_face_mapping[f_index][vi])) # vert, uv
face_vert_index += len(f_v)
else: # No UV's
if EXPORT_NORMALS:
if f_smooth: # Smoothed, use vertex normals
for v in f_v:
file.write( ' %d//%d' % (\
v.index+totverts,\
globalNormals[ veckey3d(v.no) ]))
else: # No smoothing, face normals
no = globalNormals[ veckey3d(f.no) ]
for v in f_v:
file.write( ' %d//%d' % (\
v.index+totverts,\
no))
else: # No Normals
for v in f_v:
file.write( ' %d' % (\
v.index+totverts))
file.write('\n')
# Write edges.
if EXPORT_EDGES:
LOOSE= Mesh.EdgeFlags.LOOSE
for ed in edges:
if ed.flag & LOOSE:
file.write('f %d %d\n' % (ed.v1.index+totverts, ed.v2.index+totverts))
# Make the indicies global rather then per mesh
totverts += len(me.verts)
if faceuv:
totuvco += uv_unique_count
me.verts= None
file.close()
# Now we have all our materials, save them
if EXPORT_MTL:
write_mtl(mtlfilename)
if EXPORT_COPY_IMAGES:
dest_dir = filename
# Remove chars until we are just the path.
while dest_dir and dest_dir[-1] not in '\\/':
dest_dir = dest_dir[:-1]
if dest_dir:
copy_images(dest_dir)
else:
print '\tError: "%s" could not be used as a base for an image path.' % filename
print "OBJ Export time: %.2f" % (sys.time() - time1)
def write(directory, filename, objects):
def v_n_uv_key(v, n, uv):
return round(v.x,
6), round(v.y, 6), round(v.z, 6), round(n.x, 6), round(
n.y, 6), round(n.z, 6), round(uv[0],
6), round(uv[1], 6)
def v_n_key(v, n):
return round(v.x,
6), round(v.y,
6), round(v.z,
6), round(n.x,
6), round(n.y,
6), round(n.z, 6)
def adjust_key(key, obCenter):
keyList = list(key)
keyList[0] -= obCenter[0]
keyList[1] -= obCenter[1]
keyList[2] -= obCenter[2]
return tuple(keyList)
temp_mesh_name = '~tmp-mesh'
scn = Scene.GetCurrent()
# Get the container mesh. - used for applying modifiers and non mesh objects.
containerMesh = meshName = tempMesh = None
for meshName in Blender.NMesh.GetNames():
if meshName.startswith(temp_mesh_name):
tempMesh = Mesh.Get(meshName)
if not tempMesh.users:
containerMesh = tempMesh
if not containerMesh:
containerMesh = Mesh.New(temp_mesh_name)
del meshName
del tempMesh
try:
armature = Blender.Object.Get("Armature")
write_armature(directory + filename, armature)
except:
armature = None
# Get all meshs
for ob_main in objects:
for ob, ob_mat in BPyObject.getDerivedObjects(ob_main):
me = BPyMesh.getMeshFromObject(ob, containerMesh, True, False, scn)
if not me:
continue
# Initialize globalVertices and globalMaterials dictionaries
vertIndex = 0
matIndex = 0
globalVertices = {}
globalMaterials = {}
# Dictionary of materials: (material.name, image.name):matname_imagename
# matname_imagename has fixed names.
materialDict = {}
# We have a valid mesh
if me.faces:
# Add a dummy object to it.
has_quads = False
for f in me.faces:
if len(f) == 4:
has_quads = True
break
if has_quads:
oldmode = Mesh.Mode()
Mesh.Mode(Mesh.SelectModes['FACE'])
me.sel = True
tempob = scn.objects.new(me)
me.quadToTriangle(0) # more=0 shortest length
oldmode = Mesh.Mode(oldmode)
scn.objects.unlink(tempob)
Mesh.Mode(oldmode)
else:
continue
# High Quality Normals
BPyMesh.meshCalcNormals(me)
# Make our own list so it can be sorted to reduce context switching
faces = [f for f in me.faces]
faceuv = me.faceUV
edges = me.edges
materials = me.materials
materialNames = []
materialItems = materials[:]
if materials:
for mat in materials:
if mat:
materialNames.append(mat.name)
else:
materialNames.append(None)
# Possible there null materials, will mess up indicies
# but at least it will export, wait until Blender gets fixed.
materialNames.extend((16 - len(materialNames)) * [None])
materialItems.extend((16 - len(materialItems)) * [None])
# Sort by Material, then images
# so we dont over context switch in the obj file.
if faceuv:
try:
faces.sort(key=lambda a: (a.mat, a.image, a.smooth))
except:
faces.sort(lambda a, b: cmp((a.mat, a.image, a.smooth),
(b.mat, b.image, b.smooth)))
elif len(materials) > 1:
try:
faces.sort(key=lambda a: (a.mat, a.smooth))
except:
faces.sort(lambda a, b: cmp((a.mat, a.smooth),
(b.mat, b.smooth)))
else: # no materials
try:
faces.sort(key=lambda a: a.smooth)
except:
faces.sort(lambda a, b: cmp(a.smooth, b.smooth))
# Set the default mat to no material and no image.
contextMat = (
0, 0
) # Can never be this, so we will label a new material the first chance we get.
contextSmooth = None # Will either be true or false, set bad to force initialization switch.
name1 = ob.name
name2 = ob.getData(1)
obnamestring = fixName(name1)
file = open(directory + obnamestring + ".drkMesh", "w")
# Fill globalVertices dictionary by creating (vert, normal, uv) tuple for all vertices of all faces
vertString = ""
obCenter = ob.getLocation()
if faceuv:
vOutputFormat = 'v %.6f %.6f %.6f %.6f %.6f %.6f %.6f %.6f\n'
else:
vOutputFormat = 'v %.6f %.6f %.6f %.6f %.6f %.6f\n'
f_image = None
#Loop through all faces
submeshCount = 0
faceCount = 0
faceCounts = []
for face in faces:
if faceuv:
faceUVs = list(face.uv)
faceUVindex = 0
faceIndices = []
for v in face:
if face.smooth:
vno = v.no
else:
vno = face.no
if faceuv:
key = v_n_uv_key(v.co, v.no, faceUVs[faceUVindex])
faceUVindex += 1
else:
key = v_n_key(v.co, v.no)
if not globalVertices.has_key(key):
globalVertices[key] = vertIndex
vertString += vOutputFormat % key
faceIndices.append(vertIndex)
vertIndex += 1
else:
faceIndices.append(globalVertices[key])
# Make material,texture key
f_mat = min(face.mat, len(materialNames) - 1)
if faceuv:
f_image = face.image
if faceuv and f_image:
matKey = materialNames[f_mat], f_image.name
else:
matKey = materialNames[f_mat], None
# Check for context switch
if matKey != contextMat:
submeshCount += 1
if matKey[0] == None and matKey[1] == None:
# Write a null material, since we know the context has changed.
faceString += 'use (null)\n' # mat, image
else:
mat_data = materialDict.get(matKey)
if not mat_data:
mat_data = materialDict[matKey] = fixName(
matKey[0]), materialItems[f_mat], f_image
vertString += 'use %d\n' % matIndex
globalMaterials[mat_data[0]] = matIndex
matIndex += 1
if faceCount != 0:
faceCounts.append(faceCount)
faceCount = 0
contextMat = matKey
vertString += 'face %d %d %d\n' % tuple(faceIndices)
faceCount += 1
faceCounts.append(faceCount)
file.write('count %d\n' % vertIndex)
if faceuv:
file.write('uvs\n')
file.write('submeshes %d\n' % submeshCount)
for faceCount in faceCounts:
file.write('faces %d\n' % faceCount)
file.write(vertString)
me.verts = None
write_mtl(file, materialDict, globalMaterials)
file.close()
def readDSF(path):
baddsf=(0, "Invalid DSF file", path)
h=file(path, 'rb')
h.seek(0, 2)
hlen=h.tell()
h.seek(0, 0)
if h.read(8)!='XPLNEDSF' or unpack('<I',h.read(4))!=(1,) or h.read(4)!='DAEH':
raise IOError, baddsf
(l,)=unpack('<I', h.read(4))
headend=h.tell()+l-8
if h.read(4)!='PORP':
raise IOError, baddsf
(l,)=unpack('<I', h.read(4))
properties=[]
c=h.read(l-9).split('\0')
h.read(1)
overlay=0
for i in range(0, len(c)-1, 2):
if c[i]=='sim/overlay': overlay=int(c[i+1])
elif c[i]=='sim/south': lat=int(c[i+1])
elif c[i]=='sim/west': lon=int(c[i+1])
properties.append((c[i],c[i+1]))
h.seek(headend)
if overlay:
# Overlay DSF - bail early
h.close()
raise IOError, (0, "This is an overlay DSF", path)
# Definitions Atom
if h.read(4)!='NFED':
raise IOError, baddsf
(l,)=unpack('<I', h.read(4))
defnend=h.tell()+l-8
terrain=objects=polygons=network=[]
while h.tell()<defnend:
c=h.read(4)
(l,)=unpack('<I', h.read(4))
if l==8:
pass # empty
elif c=='TRET':
terrain=h.read(l-9).replace('\\','/').replace(':','/').split('\0')
h.read(1)
elif c=='TJBO':
objects=h.read(l-9).replace('\\','/').replace(':','/').split('\0')
h.read(1)
elif c=='YLOP':
polygons=h.read(l-9).replace('\\','/').replace(':','/').split('\0')
h.read(1)
elif c=='WTEN':
networks=h.read(l-9).replace('\\','/').replace(':','/').split('\0')
h.read(1)
else:
h.seek(l-8, 1)
# Geodata Atom
if h.read(4)!='DOEG':
raise IOError, baddsf
(l,)=unpack('<I', h.read(4))
geodend=h.tell()+l-8
pool=[]
scal=[]
while h.tell()<geodend:
c=h.read(4)
(l,)=unpack('<I', h.read(4))
if c=='LOOP':
thispool=[]
(n,)=unpack('<I', h.read(4))
(p,)=unpack('<B', h.read(1))
for i in range(p):
thisplane=[]
(e,)=unpack('<B', h.read(1))
if e==0 or e==1:
last=0
for j in range(n):
(d,)=unpack('<H', h.read(2))
if e==1: d=(last+d)&65535
thisplane.append(d)
last=d
elif e==2 or e==3:
last=0
while(len(thisplane))<n:
(r,)=unpack('<B', h.read(1))
if (r&128):
(d,)=unpack('<H', h.read(2))
for j in range(r&127):
if e==3:
thisplane.append((last+d)&65535)
last=(last+d)&65535
else:
thisplane.append(d)
else:
for j in range(r):
(d,)=unpack('<H', h.read(2))
if e==3: d=(last+d)&65535
thisplane.append(d)
last=d
else:
raise IOError, baddsf
thispool.append(thisplane)
pool.append(thispool)
elif c=='LACS':
thisscal=[]
for i in range(0, l-8, 8):
d=unpack('<2f', h.read(8))
thisscal.append(d)
scal.append(thisscal)
else:
h.seek(l-8, 1)
# Rescale pool and transform to one list per entry
if len(scal)!=len(pool): raise(IOError)
newpool=[]
for i in range(len(pool)):
curpool=pool[i]
n=len(curpool[0])
newpool=[[] for j in range(n)]
for plane in range(len(curpool)):
(scale,offset)=scal[i][plane]
scale=scale/65535
for j in range(n):
newpool[j].append(curpool[plane][j]*scale+offset)
pool[i]=newpool
# Commands Atom
if h.read(4)!='SDMC':
raise IOError, baddsf
(l,)=unpack('<I', h.read(4))
cmdsend=h.tell()+l-8
curpool=0
idx=0
near=0
far=-1
flags=0 # 0=physical, 1=overlay
f=[[[],[]] for i in range(len(terrain))]
v=[[[],[]] for i in range(len(terrain))]
t=[[[],[]] for i in range(len(terrain))]
pscale=99.0/(hlen-geodend)
progress=0
while h.tell()<cmdsend:
now=int((h.tell()-geodend)*pscale)
if progress!=now:
progress=now
Window.DrawProgressBar(progress/100.0, "Importing %2d%%"%progress)
(c,)=unpack('<B', h.read(1))
if c==1: # Coordinate Pool Select
(curpool,)=unpack('<H', h.read(2))
elif c==2: # Junction Offset Select
h.read(4) # not implemented
elif c==3: # Set Definition
(idx,)=unpack('<B', h.read(1))
elif c==4: # Set Definition
(idx,)=unpack('<H', h.read(2))
elif c==5: # Set Definition
(idx,)=unpack('<I', h.read(4))
elif c==6: # Set Road Subtype
h.read(1) # not implemented
elif c==7: # Object
h.read(2) # not implemented
elif c==8: # Object Range
h.read(4) # not implemented
elif c==9: # Network Chain
(l,)=unpack('<B', h.read(1))
h.read(l*2) # not implemented
elif c==10: # Network Chain Range
h.read(4) # not implemented
elif c==11: # Network Chain
(l,)=unpack('<B', h.read(1))
h.read(l*4) # not implemented
elif c==12: # Polygon
(param,l)=unpack('<HB', h.read(3))
h.read(l*2) # not implemented
elif c==13: # Polygon Range (DSF2Text uses this one)
(param,first,last)=unpack('<HHH', h.read(6)) # not implemented
elif c==14: # Nested Polygon
(param,n)=unpack('<HB', h.read(3))
for i in range(n):
(l,)=unpack('<B', h.read(1))
h.read(l*2) # not implemented
elif c==15: # Nested Polygon Range (DSF2Text uses this one too)
(param,n)=unpack('<HB', h.read(3))
h.read((n+1)*2) # not implemented
elif c==16: # Terrain Patch
pass
elif c==17: # Terrain Patch w/ flags
(flags,)=unpack('<B', h.read(1))
flags-=1
elif c==18: # Terrain Patch w/ flags & LOD
(flags,near,far)=unpack('<Bff', h.read(9))
flags-=1
elif c==23: # Patch Triangle
(l,)=unpack('<B', h.read(1))
n=len(v[idx][flags])
for i in range(n,n+l,3):
f[idx][flags].append([i+2,i+1,i])
for i in range(l):
(d,)=unpack('<H', h.read(2))
p=pool[curpool][d]
v[idx][flags].append([(p[0]-lon)*hscale,
(p[1]-lat)*hscale, p[2]*vscale])
if len(p)>=7:
t[idx][flags].append([p[5],p[6]])
elif c==24: # Patch Triangle - cross-pool
(l,)=unpack('<B', h.read(1))
n=len(v[idx][flags])
for i in range(n,n+l,3):
f[idx][flags].append([i+2,i+1,i])
for i in range(l):
(c,d)=unpack('<HH', h.read(4))
p=pool[c][d]
v[idx][flags].append([(p[0]-lon)*hscale,
(p[1]-lat)*hscale, p[2]*vscale])
if len(p)>=7:
t[idx][flags].append([p[5],p[6]])
elif c==25: # Patch Triangle Range
(first,last)=unpack('<HH', h.read(4))
n=len(v[idx][flags])
for i in range(n,n+last-first,3):
f[idx][flags].append([i+2,i+1,i])
for d in range(first,last):
p=pool[curpool][d]
v[idx][flags].append([(p[0]-lon)*hscale,
(p[1]-lat)*hscale, p[2]*vscale])
if len(p)>=7:
t[idx][flags].append([p[5],p[6]])
#elif c==26: # Patch Triangle Strip (not used by DSF2Text)
#elif c==27:
#elif c==28:
elif c==29: # Patch Triangle Fan
(l,)=unpack('<B', h.read(1))
n=len(v[idx][flags])
for i in range(1,l-1):
f[idx][flags].append([n+i+1,n+i,n])
for i in range(l):
(d,)=unpack('<H', h.read(2))
p=pool[curpool][d]
v[idx][flags].append([(p[0]-lon)*hscale,
(p[1]-lat)*hscale, p[2]*vscale])
if len(p)>=7:
t[idx][flags].append([p[5],p[6]])
elif c==30: # Patch Triangle Fan - cross-pool
(l,)=unpack('<B', h.read(1))
n=len(v[idx][flags])
for i in range(1,l-1):
f[idx][flags].append([n+i+1,n+i,n])
for i in range(l):
(c,d)=unpack('<HH', h.read(4))
p=pool[c][d]
v[idx][flags].append([(p[0]-lon)*hscale,
(p[1]-lat)*hscale, p[2]*vscale])
if len(p)>=7:
t[idx][flags].append([p[5],p[6]])
elif c==31: # Patch Triangle Fan Range
(first,last)=unpack('<HH', h.read(4))
n=len(v[idx][flags])
for i in range(1,last-first-1):
f[idx][flags].append([n+i+1,n+i,n])
for d in range(first, last):
p=pool[curpool][d]
v[idx][flags].append([(p[0]-lon)*hscale,
(p[1]-lat)*hscale, p[2]*vscale])
if len(p)>=7:
t[idx][flags].append([p[5],p[6]])
elif c==32: # Comment
(l,)=unpack('<B', h.read(1))
h.read(l)
elif c==33: # Comment
(l,)=unpack('<H', h.read(2))
h.read(l)
elif c==34: # Comment
(l,)=unpack('<I', h.read(4))
h.read(l)
else:
raise IOError, (c, "Unrecognised command (%d)" % c, c)
h.close()
Window.DrawProgressBar(0.99, "Realising")
scene=Scene.GetCurrent()
scene.layers=[1,2]
for flags in [0]:# was [1,0]: # overlay first so overlays
for idx in range(len(terrain)):
if not f[idx][flags]: continue
if idx:
name=basename(terrain[idx])[:-4]
if flags: name=name+'.2'
if terrain[idx] in libterrain:
(texture, angle, xscale, zscale)=readTER(libterrain[terrain[idx]])
elif exists(join(dirname(path), pardir, pardir, terrain[idx])):
(texture, angle, xscale, zscale)=readTER(abspath(join(dirname(path), pardir, pardir, terrain[idx])))
else:
raise IOError(0, 'Terrain %s not found' % terrain[idx], terrain[idx])
try:
mat=Material.Get(name)
except:
mat=Material.New(name)
mat.rgbCol=[1.0, 1.0, 1.0]
mat.spec=0
try:
img=Image.Get(basename(texture))
except:
img=Image.Load(texture)
tex=Texture.New(name)
tex.setType('Image')
tex.image=img
mat.setTexture(0, tex)
if flags:
mat.zOffset=1
mat.mode |= Material.Modes.ZTRANSP
mtex=mat.getTextures()[0]
mtex.size=(xscale*250, zscale*250, 0)
mtex.zproj=Texture.Proj.NONE
if t[idx][flags]:
mtex.texco=Texture.TexCo.UV
else:
mtex.texco=Texture.TexCo.GLOB
else:
name=terrain[idx]
mat=Material.New(terrain[idx])
mat.rgbCol=[0.1, 0.1, 0.2]
mat.spec=0
mesh=Mesh.New(name)
mesh.mode &= ~(Mesh.Modes.TWOSIDED|Mesh.Modes.AUTOSMOOTH)
mesh.mode |= Mesh.Modes.NOVNORMALSFLIP
mesh.materials += [mat]
mesh.verts.extend(v[idx][flags])
mesh.faces.extend(f[idx][flags])
if t[idx][flags]:
faceno=0
for face in mesh.faces:
face.uv=[Vector(t[idx][flags][i][0], t[idx][flags][i][1]) for i in f[idx][flags][faceno]]
face.image=img
faceno+=1
mesh.update()
ob = Object.New("Mesh", name)
ob.link(mesh)
scene.objects.link(ob)
ob.Layer=flags+1
ob.addProperty('terrain', terrain[idx])
mesh.sel=True
mesh.remDoubles(0.001) # must be after linked to object
mesh.sel=False
if 0: # Unreliable
for face in mesh.faces:
for v in face.verts:
if v.co[2]!=0.0:
break
else:
face.mat=1 # water
lamp=Lamp.New("Lamp", "Sun")
ob = Object.New("Lamp", "Sun")
ob.link(lamp)
scene.objects.link(ob)
lamp.type=1
ob.Layer=3
ob.setLocation(500, 500, 1000)
def write_object(obj):
"""Write drawables and empties"""
s = ""
name = obj.name
defname = sketchify(obj.name)
prop = obj.properties
mtrx = obj.matrix.rotationPart()
xvec, yvec, zvec = mtrx[0], mtrx[1], mtrx[2]
x, y, z = obj.getLocation('worldspace')
if obj.type == 'Empty':
if obj.parent:
# need to transform Empty to world coordinates
#vec = Mathutils.Vector(obj.getLocation())
#nvec = vec*obj.matrixWorld
#x,y,z = nvec.x, nvec.y, nvec.z
x, y, z = obj.getLocation('worldspace')
else:
x, y, z = obj.loc
s += "def %s (%s,%s,%s)\n" % (sketchify(name), x, y, z)
elif obj.type in ['Mesh', 'Curve', 'Surf', 'MBall']:
is_curve = (obj.type == 'Curve')
is_mesh = (obj.type == 'Mesh')
drawables.append(sketchify(name))
# write mesh to file
if TRANSFORM_VERTICES:
# The transformation code is from the Blender Python API
# documentation.
mesh = Mesh.New()
mesh.getFromObject(obj.name)
verts = mesh.verts[:]
mesh.transform(obj.matrix)
else:
if not is_mesh:
mesh = Mesh.New()
mesh.getFromObject(obj.name)
else:
# Ensure that we get a mesh of the Mesh type
mesh = obj.getData(mesh=True)
twosided = (mesh.mode & Mesh.Modes['TWOSIDED']) and USE_TWOSIDED_FLAG
s += 'def %s_o (%f,%f,%f)\n' % (defname, x, y, z)
s += 'def %s_x [%f,%f,%f]\n' % tuple([defname] + list(xvec))
s += 'def %s_y [%f,%f,%f]\n' % tuple([defname] + list(yvec))
s += 'def %s_z [%f,%f,%f]\n' % tuple([defname] + list(zvec))
polyoptsname = "%s_polyopts" % defname
polyoptions = []
try:
polyopts = prop['polyoptions']
polyoptions.append(polyopts)
except:
pass
if twosided:
polyoptions.append('cull=false')
if polyoptions:
s += 'def %s [%s]\n' % (polyoptsname, ",".join(polyoptions))
else:
polyoptsname = ""
lineoptsname = ""
try:
lineopts = prop['lineoptions']
lineoptsname = "%s_lineopts" % defname
s += 'def %s [%s]\n' % (lineoptsname, lineopts)
except:
lineoptsname = ""
s += 'def %s {\n' % (defname)
if EXPORT_MATERIALS:
if is_mesh:
materials = mesh.materials
else:
try:
materials = obj.data.getMaterials()
# does not work with MBall
except:
materials = []
if len(mesh.faces) > 0:
# iterate over all faces in the mesh
for face in mesh.faces:
polyoptions = []
# each face is represented as a polygon
if EXPORT_MATERIALS and len(materials):
polymatopts = get_material(materials[face.mat],
is_face=True)
polyoptions.append(polymatopts)
if polyoptsname:
polyoptions.append(polyoptsname)
if polyoptions:
polyoptions = "[%s]" % ",".join(polyoptions)
else:
polyoptions = ""
s += ' polygon%s' % polyoptions
# iterate over the vertices in the mesh
for vert in face.v:
v = mesh.verts[vert.index]
s += '(%f,%f,%f)' % tuple(v.co)
s += '\n'
else:
prev = None
connectededges = False
lineoptions = []
if EXPORT_MATERIALS and materials:
# pick first material
for mat in materials:
if mat:
linematopts = get_material(mat, is_face=False)
lineoptions.append(linematopts)
break
if lineoptsname:
lineoptions.append(lineoptsname)
if lineoptions:
lineoptions = "[%s]" % ",".join(lineoptions)
else:
lineoptions = ""
for edge in mesh.edges:
if prev and (prev.v2.co == edge.v1.co):
connectededges = True
s += '(%f,%f,%f)' % tuple(edge.v2.co)
else:
if connectededges:
s += '\n'
connectededges = False
s += ' line%s (%f,%f,%f)(%f,%f,%f)' % \
(lineoptions, edge.v1.co.x, edge.v1.co.y, edge.v1.co.z,
edge.v2.co.x, edge.v2.co.y, edge.v2.co.z)
prev = edge
s += '\n'
if TRANSFORM_VERTICES:
# Restore vertices.
mesh.verts = verts
s += '}\n\n'
return s
def ImportFromC(file_name):
file = open(file_name, "r")
scene = bpy.data.scenes.active
meshes = []
for ob in scene.objects:
obtype = ob.type
if obtype == "Mesh":
meshes.append(ob)
lines = [
l_split for l in file.readlines()
for l_split in (' '.join(l.split()), ) if l_split
]
# erase all of the comments (/* */)
i = 0
insideComment = 0
while i < len(lines):
stopErase = 0
commentStart = lines[i].find("/*")
if insideComment == 1:
commentStart = 0
if lines[i].find("//") != -1:
if lines[i].find("//") < commentStart:
stopErase = 1
if stopErase != 1:
if commentStart != -1:
insideComment = 1
lineEnd = len(lines[i])
commentEnd = lines[i].find("*/")
if commentEnd != -1:
if insideComment == 1:
commentEnd = lines[i].find("*/") + 2
insideComment = 0
else:
if insideComment == 1:
commentEnd = lineEnd
if commentStart != -1:
if lines[i].find("//") != -1:
if lines[i].find("//") < commentStart:
stopErase = 1
if lines[i].find("//") + 2 < commentEnd:
stopErase = 1
if stopErase != 1:
lines[i] = lines[i].replace(lines[i][commentStart:commentEnd],
"")
commentStart = lines[i].find("/*")
if commentStart == -1:
i = i + 1
if stopErase == 1:
i = i + 1
# erase all of the comments (//)
i = 0
while i < len(lines):
commentStart = lines[i].find("//")
commentEnd = len(lines[i])
if commentStart != -1:
lines[i] = lines[i].replace(lines[i][commentStart:commentEnd], "")
i = i + 1
# erase all spaces
i = 0
while i < len(lines):
lines[i] = lines[i].replace(" ", "")
i = i + 1
# move the data from "lines" to "code" ignoring returns
i = 0
code = []
while i < len(lines):
lineEnd = len(lines[i])
j = 0
while j < lineEnd:
code[len(code):] = lines[i][j]
j = j + 1
i = i + 1
# find the first listed vertex array size
i = 0
while i < len(code):
if code[0 + i:12 + i] == [
"_", "P", "O", "I", "N", "T", "D", "A", "T", "S", "Z", "["
]:
codePos = i + 12
i = len(code)
i = i + 1
i = codePos
while i < len(code):
if code[0 + i:3 + i] == ["]", "=", "{"]:
codePos = i + 3
i = len(code)
i = i + 1
# read the vertex array sizes from the code
endOfNum = 0
numCnt = 0
pointDatSz = []
while endOfNum != 2:
i = 0
num = ""
endOfNum = 0
while endOfNum == 0:
if code[codePos + i] == "," or code[codePos + i] == "}":
endOfNum = 1
else:
num = num + code[codePos + i]
i = i + 1
if code[codePos + i] == "}":
endOfNum = 2
if endOfNum != 2:
codePos = codePos + i
pointDatSz[len(pointDatSz):] = [int(num)]
#number of meshes
meshCnt = len(pointDatSz)
# find the first listed face array size
i = 0
while i < len(code):
if code[0 + i:11 +
i] == ["_", "L", "I", "N", "E", "D", "A", "T", "S", "Z", "["]:
codePos = i + 11
i = len(code)
i = i + 1
i = codePos
while i < len(code):
if code[0 + i:3 + i] == ["]", "=", "{"]:
codePos = i + 3
i = len(code)
i = i + 1
# read the face array sizes from the code
endOfNum = 0
numCnt = 0
lineDatSz = []
while endOfNum != 2:
i = 0
num = ""
endOfNum = 0
while endOfNum == 0:
if code[codePos + i] == "," or code[codePos + i] == "}":
endOfNum = 1
else:
num = num + code[codePos + i]
i = i + 1
if code[codePos + i] == "}":
endOfNum = 2
if endOfNum != 2:
codePos = codePos + i
lineDatSz[len(lineDatSz):] = [int(num)]
# find the first listed color array size
i = 0
while i < len(code):
if code[0 + i:12 + i] == [
"_", "C", "O", "L", "O", "R", "D", "A", "T", "S", "Z", "["
]:
codePos = i + 11
i = len(code)
i = i + 1
i = codePos
while i < len(code):
if code[0 + i:3 + i] == ["]", "=", "{"]:
codePos = i + 3
i = len(code)
i = i + 1
# read the color array sizes from the code
endOfNum = 0
numCnt = 0
colorDatSz = []
while endOfNum != 2:
i = 0
num = ""
endOfNum = 0
while endOfNum == 0:
if code[codePos + i] == "," or code[codePos + i] == "}":
endOfNum = 1
else:
num = num + code[codePos + i]
i = i + 1
if code[codePos + i] == "}":
endOfNum = 2
if endOfNum != 2:
codePos = codePos + i
colorDatSz[len(colorDatSz):] = [int(num)]
# find the first listed vertex
i = 0
while i < len(code):
if code[0 + i:7 + i] == ["_", "P", "O", "I", "N", "T", "["]:
codePos = i + 7
i = len(code)
i = i + 1
i = codePos
while i < len(code):
if code[0 + i:3 + i] == ["]", "=", "{"]:
codePos = i + 3
i = len(code)
i = i + 1
# read the verticies from the code
endOfNum = 0
vert = []
while endOfNum != 2:
i = 0
num = ""
endOfNum = 0
while endOfNum == 0:
if code[codePos + i] == "," or code[codePos + i] == "}":
endOfNum = 1
else:
num = num + code[codePos + i]
i = i + 1
if code[codePos + i] == "}":
endOfNum = 2
if endOfNum != 2:
codePos = codePos + i
vert[len(vert):] = [float(num)]
# find the first listed line data number
i = 0
while i < len(code):
if code[0 + i:6 + i] == ["_", "L", "I", "N", "E", "["]:
codePos = i + 6
i = len(code)
i = i + 1
i = codePos
while i < len(code):
if code[0 + i:3 + i] == ["]", "=", "{"]:
codePos = i + 3
i = len(code)
i = i + 1
# read the line data from the code
endOfNum = 0
line = []
while endOfNum != 2:
i = 0
num = ""
endOfNum = 0
while endOfNum == 0:
if code[codePos + i] == "," or code[codePos + i] == "}":
endOfNum = 1
else:
num = num + code[codePos + i]
i = i + 1
if code[codePos + i] == "}":
endOfNum = 2
if endOfNum != 2:
codePos = codePos + i
line[len(line):] = [int(num)]
# find the first listed color
i = 0
while i < len(code):
if code[0 + i:7 + i] == ["_", "C", "O", "L", "O", "R", "["]:
codePos = i + 7
i = len(code)
i = i + 1
i = codePos
while i < len(code):
if code[0 + i:3 + i] == ["]", "=", "{"]:
codePos = i + 3
i = len(code)
i = i + 1
# read the colors from the code
endOfNum = 0
color = []
while endOfNum != 2:
i = 0
num = ""
endOfNum = 0
while endOfNum == 0:
if code[codePos + i] == "," or code[codePos + i] == "}":
endOfNum = 1
else:
num = num + code[codePos + i]
i = i + 1
if code[codePos + i] == "}":
endOfNum = 2
if endOfNum != 2:
codePos = codePos + i
color[len(color):] = [int(float.fromhex(num))]
meshInc = 0
while meshInc < meshCnt:
mesh = Mesh.New()
# import verticies to blender
if meshInc == 0:
i = 0
else:
i = pointDatSz[meshInc - 1]
while i < pointDatSz[meshInc]:
mesh.verts.extend(vert[i], vert[i + 1], vert[i + 2])
i = i + 3
# import faces to blender
if meshInc == 0:
i = 0
polyBgn = 0
else:
i = lineDatSz[meshInc - 1]
polyBgn = pointDatSz[meshInc - 1] / 3
while i < lineDatSz[meshInc]:
if line[i] == 4:
mesh.faces.extend(line[i + 1] - polyBgn, line[i + 2] - polyBgn,
line[i + 3] - polyBgn, line[i + 4] - polyBgn)
i = i + 5
else:
if line[i] == 3:
mesh.faces.extend(line[i + 1] - polyBgn,
line[i + 2] - polyBgn,
line[i + 3] - polyBgn)
i = i + 4
# import a list of colors into blender
mat_list = []
if meshInc == 0:
i = 0
else:
i = colorDatSz[meshInc - 1]
colorPal = [color[i]]
while i < colorDatSz[meshInc]:
j = 0
addColor = 1
while j < len(colorPal):
if colorPal[j] == color[i]:
addColor = 0
j = j + 1
if addColor == 1:
colorPal[len(colorPal):] = [color[i]]
i = i + 1
colorPalSz = len(colorPal)
i = 0
while i < colorPalSz:
mat = bpy.data.materials.new()
mat.rgbCol = [float(colorPal[i] & 0x0000FF) / 255,\
float((colorPal[i] & 0x00FF00) >> 8) / 255,\
float((colorPal[i] & 0xFF0000) >> 16) / 255]
mat_list.append(mat)
mesh.materials = mat_list[:16]
i = i + 1
if i == 16:
colorPalSz = 16
print "Only 16 colors is allowed."
# link the faces with the colors
if meshInc == 0:
colorArrayPos = 0
else:
colorArrayPos = colorDatSz[meshInc - 1]
i = 0
while i < len(mesh.faces):
j = 0
while j < len(colorPal):
if color[colorArrayPos + i] == colorPal[j]:
colorNum = j
j = j + 1
mesh.faces[i].mat = colorNum
i = i + 1
scene.objects.new(mesh)
meshInc = meshInc + 1
scene = Blender.Scene.GetCurrent()
meshes = []
for ob in scene.objects:
obtype = ob.type
if obtype == "Mesh":
meshes.append(ob)
# find the first listed transformation data value
i = 0
while i < len(code):
if code[0 + i:7 + i] == ["_", "T", "R", "A", "N", "S", "["]:
codePos = i + 7
i = len(code)
i = i + 1
i = codePos
while i < len(code):
if code[0 + i:3 + i] == ["]", "=", "{"]:
codePos = i + 3
i = len(code)
i = i + 1
# read the transformation data from the code
endOfNum = 0
numCnt = 0
trans = []
while endOfNum != 2:
i = 0
num = ""
endOfNum = 0
while endOfNum == 0:
if code[codePos + i] == "," or code[codePos + i] == "}":
endOfNum = 1
else:
num = num + code[codePos + i]
i = i + 1
if code[codePos + i] == "}":
endOfNum = 2
if endOfNum != 2:
codePos = codePos + i
trans[len(trans):] = [float(num)]
#Read the transformation data from file
i = 0
matrix = ob.getMatrix()
while i < meshCnt:
meshes[meshCnt - 1 -
i].rot = [trans[i * 9 + 0], trans[i * 9 + 1], trans[i * 9 + 2]]
meshes[meshCnt - 1 -
i].loc = [trans[i * 9 + 3], trans[i * 9 + 4], trans[i * 9 + 5]]
meshes[meshCnt - 1 - i].size = [
trans[i * 9 + 6], trans[i * 9 + 7], trans[i * 9 + 8]
]
i = i + 1
#!BPY
import Blender
from Blender import Mesh
filePath = '/users/u1/vrabaud/SSFM/data/cylinder/coord.txt'
out = open(filePath, 'w')
for iFrame in range(1, 201):
Blender.Set('curframe', iFrame)
curve = Blender.Object.Get('Curve')
out.write('%i Inf Inf\n' % (iFrame))
mesh = Mesh.New()
mesh.getFromObject(curve.name)
for vert in mesh.verts:
out.write('%f %f %f\n' % (vert.co.x, vert.co.y, vert.co.z))
out.close()
def ImportFromC(file_name):
print ("\n" * 2)
print ("_" * 20)
print ("\n" * 2)
print "Beginning import from c script..."
print ("\n" * 2)
#get header filename from filename
print file_name
stringParts = file_name.split(".")
headerFile_name = ""
for i in range(0, len(stringParts)-1):
headerFile_name += stringParts[i]
headerFile_name += "."
headerFile_name += "h"
#open and read header file
file = open(headerFile_name, "r")
code = [l_split for l in file.readlines() for l_split in (' '.join(l.split()),) if l_split]
fileLinePos = 0
fileColPos = 0
cDefineNames = []
cDefineValues = []
cDefineCount = 0
print "Finding c defines"
while True:
# find the listed c defines
fileLineCount = len(code)
doesExist = False
for i in range(0, fileLineCount-fileLinePos): #for (i=0; i < sizeof(code); i++)
if code[fileLinePos+i][0:len("#define")] == "#define":
fileLinePos += i
cDefineCount += 1
doesExist = True
break
# break the while loop if c defines are not found
if doesExist == False:
break
# find the first underscore
fileColCount = len(code[fileLinePos])
for i in range(0, fileColCount): #for (i=0; i < sizeof(code[fileLinePos]); i++)
if code[fileLinePos][i] == "_":
fileColPos = i+1
break
# read c define name after the first underscore
cDefName = ''
for i in range(0, fileColCount-fileColPos):
if code[fileLinePos][fileColPos+i] == " ":
fileColPos += i+1
break
cDefName += code[fileLinePos][fileColPos+i]
cDefineNames.append(cDefName)
# read c define value
cDefVal = ''
for i in range(0, fileColCount-fileColPos):
cDefVal += code[fileLinePos][fileColPos+i]
cDefineValues.append(int(cDefVal))
fileLinePos += 1
objectNames = []
imageNamesUnderscore = []
imageNames = []
# seperate the c defines into object and image names
# find where the image Names are located within c defines
imagesLoc = cDefineCount
for i in range(1, cDefineCount):
if cDefineValues[i] == 0:
imagesLoc = i
break
# get the object names
for i in range(0, imagesLoc):
objectNames.append(cDefineNames[i])
# get the image names
for i in range(imagesLoc, cDefineCount):
imgNameUnder = []
for j in range(0, len(cDefineNames[i])):
imgNameUnder.append(cDefineNames[i][j])
imageNamesUnderscore.extend([imgNameUnder])
# find the last underscore in each of the image names
# and change it to a period
for i in range(0, len(imageNamesUnderscore)):
for j in range(0, len(imageNamesUnderscore[i])):
if imageNamesUnderscore[i][len(imageNamesUnderscore[i])-j-1] == "_":
imageNamesUnderscore[i][len(imageNamesUnderscore[i])-j-1] = "."
break
for i in range(0, len(imageNamesUnderscore)):
imgName = ''
for j in range(0, len(imageNamesUnderscore[i])):
imgName += imageNamesUnderscore[i][j]
imageNames.append(imgName)
#close header file
file.close()
#open and read c file
file = open(file_name, "r")
scene = bpy.data.scenes.active
meshes = []
for ob in scene.objects:
obtype = ob.type
if obtype == "Mesh":
meshes.append(ob)
fileLines = [l_split for l in file.readlines() for l_split in (' '.join(l.split()),) if l_split]
print "Erasing all comments"
# erase all of the comments (/* */)
i = 0
insideComment = 0
while i < len(fileLines):
stopErase = 0
commentStart = fileLines[i].find("/*")
if insideComment == 1:
commentStart = 0
if fileLines[i].find("//") != -1:
if fileLines[i].find("//") < commentStart:
stopErase = 1
if stopErase != 1:
if commentStart != -1:
insideComment = 1
lineEnd = len(fileLines[i])
commentEnd = fileLines[i].find("*/")
if commentEnd != -1:
if insideComment == 1:
commentEnd = fileLines[i].find("*/")+2
insideComment = 0
else:
if insideComment == 1:
commentEnd = lineEnd
if commentStart != -1:
if fileLines[i].find("//") != -1:
if fileLines[i].find("//") < commentStart:
stopErase = 1
if fileLines[i].find("//")+2 < commentEnd:
stopErase = 1
if stopErase != 1:
fileLines[i] = fileLines[i].replace(fileLines[i][commentStart:commentEnd], "")
commentStart = fileLines[i].find("/*")
if commentStart == -1:
i = i + 1
if stopErase == 1:
i = i + 1
# erase all of the comments (//)
i = 0
while i < len(fileLines):
commentStart = fileLines[i].find("//")
commentEnd = len(fileLines[i])
if commentStart != -1:
fileLines[i] = fileLines[i].replace(fileLines[i][commentStart:commentEnd], "")
i = i + 1
print "Erasing all spaces"
# erase all spaces
i = 0
while i < len(fileLines):
fileLines[i] = fileLines[i].replace(" ", "")
i = i + 1
print "Moving code to buffer"
# move the data from "fileLines" buffer to "code" buffer ignoring returns
i = 0
code = []
while i < len(fileLines):
lineEnd = len(fileLines[i])
j = 0
while j < lineEnd:
code[len(code):] = fileLines[i][j]
j = j + 1
i = i + 1
##################################################################################################
codePos = 0
print "Finding vertex array size"
# find the first listed vertex array size
i = 0
while i < len(code):
if code[0+i:12+i] == ["_", "P", "O", "I", "N", "T", "D", "A", "T", "S", "Z", "["]:
codePos = i + 12
i = len(code)
i = i + 1
i = codePos
while i < len(code):
if code[0+i:3+i] == ["]", "=", "{"]:
codePos = i + 3
i = len(code)
i = i + 1
print "Reading vertex array sizes"
# read the vertex array sizes from the code
endOfNum = 0
numCnt = 0
pointDatSz = []
while endOfNum != 2:
i = 0
num = ""
endOfNum = 0
while endOfNum == 0:
if code[codePos+i] == "," or code[codePos+i] == "}":
endOfNum = 1
else:
num = num + code[codePos+i]
if code[codePos+i] == "}":
endOfNum = 2
i = i + 1
if endOfNum != 2:
codePos = codePos+i
if num != "":
pointDatSz[len(pointDatSz):] = [int(num)]
print pointDatSz
#number of meshes
meshCnt = len(pointDatSz)-1
print "Finding quad array size"
# find the first listed quad array size
i = 0
while i < len(code):
if code[0+i:11+i] == ["_", "Q", "U", "A", "D", "D", "A", "T", "S", "Z", "["]:
codePos = i + 11
i = len(code)
i = i + 1
i = codePos
while i < len(code):
if code[0+i:3+i] == ["]", "=", "{"]:
codePos = i + 3
i = len(code)
i = i + 1
print "Reading quad array sizes"
# read the quad array sizes from the code
endOfNum = 0
numCnt = 0
quadDatSz = []
while endOfNum != 2:
i = 0
num = ""
endOfNum = 0
while endOfNum == 0:
if code[codePos+i] == "," or code[codePos+i] == "}":
endOfNum = 1
else:
num = num + code[codePos+i]
if code[codePos+i] == "}":
endOfNum = 2
i = i + 1
if endOfNum != 2:
codePos = codePos+i
if num != "":
quadDatSz[len(quadDatSz):] = [int(num)]
print "Finding tri array size"
# find the first listed tri array size
i = 0
while i < len(code):
if code[0+i:10+i] == ["_", "T", "R", "I", "D", "A", "T", "S", "Z", "["]:
codePos = i + 10
i = len(code)
i = i + 1
i = codePos
while i < len(code):
if code[0+i:3+i] == ["]", "=", "{"]:
codePos = i + 3
i = len(code)
i = i + 1
print "Reading tri array sizes"
# read the tri array sizes from the code
endOfNum = 0
numCnt = 0
triDatSz = []
while endOfNum != 2:
i = 0
num = ""
endOfNum = 0
while endOfNum == 0:
if code[codePos+i] == "," or code[codePos+i] == "}":
endOfNum = 1
else:
num = num + code[codePos+i]
if code[codePos+i] == "}":
endOfNum = 2
i = i + 1
if endOfNum != 2:
codePos = codePos+i
if num != "":
triDatSz[len(triDatSz):] = [int(num)]
##################################################################################################
print "Finding fist listed vertex"
# find the first listed vertex
i = 0
while i < len(code):
if code[0+i:7+i] == ["_", "P", "O", "I", "N", "T", "["]:
codePos = i + 7
i = len(code)
i = i + 1
i = codePos
while i < len(code):
if code[0+i:3+i] == ["]", "=", "{"]:
codePos = i + 3
i = len(code)
i = i + 1
print "Reading verticies"
# read the verticies from the code
endOfNum = 0
vert = []
while endOfNum != 2:
i = 0
num = ""
endOfNum = 0
while endOfNum == 0:
if code[codePos+i] == "," or code[codePos+i] == "}":
endOfNum = 1
else:
num = num + code[codePos+i]
if code[codePos+i] == "}":
endOfNum = 2
i = i + 1
if endOfNum != 2:
codePos = codePos+i
if num != "":
vert[len(vert):] = [float(num)]
print "Finding first listed quad"
# find the first listed quad data number
i = 0
while i < len(code):
if code[0+i:6+i] == ["_", "Q", "U", "A", "D", "["]:
codePos = i + 6
i = len(code)
i = i + 1
i = codePos
while i < len(code):
if code[0+i:3+i] == ["]", "=", "{"]:
codePos = i + 3
i = len(code)
i = i + 1
print "Reading quads"
# read the quad data from the code
endOfNum = 0
quad = []
while endOfNum != 2:
i = 0
num = ""
endOfNum = 0
while endOfNum == 0:
if code[codePos+i] == "," or code[codePos+i] == "}":
endOfNum = 1
else:
num = num + code[codePos+i]
if code[codePos+i] == "}":
endOfNum = 2
i = i + 1
if endOfNum != 2:
codePos = codePos+i
if num != "":
quad[len(quad):] = [int(num)]
print "Finding first listed tri"
# find the first listed tri data number
i = 0
while i < len(code):
if code[0+i:5+i] == ["_", "T", "R", "I", "["]:
codePos = i + 5
i = len(code)
i = i + 1
i = codePos
while i < len(code):
if code[0+i:3+i] == ["]", "=", "{"]:
codePos = i + 3
i = len(code)
i = i + 1
print "Reading tris"
# read the tri data from the code
endOfNum = 0
tri = []
while endOfNum != 2:
i = 0
num = ""
endOfNum = 0
while endOfNum == 0:
if code[codePos+i] == "," or code[codePos+i] == "}":
endOfNum = 1
else:
num = num + code[codePos+i]
if code[codePos+i] == "}":
endOfNum = 2
i = i + 1
if endOfNum != 2:
codePos = codePos+i
if num != "":
tri[len(tri):] = [int(num)]
print "Finding first listed vertex color"
# find the first listed vertex color data number
i = 0
while i < len(code):
if code[0+i:8+i] == ["_", "V", "C", "O", "L", "O", "R", "["]:
codePos = i + 8
i = len(code)
i = i + 1
i = codePos
while i < len(code):
if code[0+i:3+i] == ["]", "=", "{"]:
codePos = i + 3
i = len(code)
i = i + 1
print "Reading vertex color"
# read the vertex color data from the code
endOfNum = 0
vColor = []
while endOfNum != 2:
i = 0
num = ""
endOfNum = 0
while endOfNum == 0:
if code[codePos+i] == "," or code[codePos+i] == "}":
endOfNum = 1
else:
num = num + code[codePos+i]
if code[codePos+i] == "}":
endOfNum = 2
i = i + 1
if endOfNum != 2:
codePos = codePos+i
if num != "":
vColor[len(vColor):] = [int(num)]
print "Finding first listed texture coordinate"
# find the first listed texture coordinate data number
i = 0
while i < len(code):
if code[0+i:8+i] == ["_", "T", "E", "X", "C", "O", "O", "R", "D", "["]:
codePos = i + 8
i = len(code)
i = i + 1
i = codePos
while i < len(code):
if code[0+i:3+i] == ["]", "=", "{"]:
codePos = i + 3
i = len(code)
i = i + 1
print "Reading texture coordinates"
# read the texture coordinate data from the code
endOfNum = 0
texCoord = []
while endOfNum != 2:
i = 0
num = ""
endOfNum = 0
while endOfNum == 0:
if code[codePos+i] == "," or code[codePos+i] == "}":
endOfNum = 1
else:
num = num + code[codePos+i]
if code[codePos+i] == "}":
endOfNum = 2
i = i + 1
if endOfNum != 2:
codePos = codePos+i
if num != "":
texCoord[len(texCoord):] = [float(num)]
print "Finding first listed texture link data"
# find the first listed texture link data number
i = 0
while i < len(code):
if code[0+i:8+i] == ["_", "T", "E", "X", "L", "I", "N", "K", "D", "A", "T", "["]:
codePos = i + 8
i = len(code)
i = i + 1
i = codePos
while i < len(code):
if code[0+i:3+i] == ["]", "=", "{"]:
codePos = i + 3
i = len(code)
i = i + 1
print "Reading texture link data"
# read the texture link data from the code
endOfNum = 0
texLinkDat = []
while endOfNum != 2:
i = 0
num = ""
endOfNum = 0
while endOfNum == 0:
if code[codePos+i] == "," or code[codePos+i] == "}":
endOfNum = 1
else:
num = num + code[codePos+i]
if code[codePos+i] == "}":
endOfNum = 2
i = i + 1
if endOfNum != 2:
codePos = codePos+i
if num != "":
texLinkDat[len(texLinkDat):] = [int(num)]
##################################################################################################
vColorInc = 0
texCoordInc = 0
for meshInc in range(0, meshCnt):
print ("meshInc %i" % (meshInc))
mesh = Mesh.New()
print "Importing verticies"
# import verticies to blender
i = pointDatSz[meshInc]
while i < pointDatSz[meshInc+1]:
mesh.verts.extend(vert[i],vert[i+1],vert[i+2])
i = i + 3
print "Importing quads"
# import quads to blender
i = quadDatSz[meshInc]
polyBgn = pointDatSz[meshInc] / 3
while i < quadDatSz[meshInc+1]:
mesh.faces.extend(quad[i]-polyBgn, quad[i+1]-polyBgn, quad[i+2]-polyBgn, quad[i+3]-polyBgn)
i = i + 4
print "Importing tris"
# import tris to blender
i = triDatSz[meshInc]
polyBgn = pointDatSz[meshInc] / 3
while i < triDatSz[meshInc+1]:
mesh.faces.extend(tri[i]-polyBgn, tri[i+1]-polyBgn, tri[i+2]-polyBgn)
i = i + 3
# enable vertex colors
mesh.vertexColors = 1
print "Importing vertex colors"
# import vertex colors for quads to blender
faceCnt = 0
i = quadDatSz[meshInc]
while i < quadDatSz[meshInc+1]:
mesh.faces[faceCnt].col[0].r = vColor[vColorInc]
vColorInc += 1
mesh.faces[faceCnt].col[0].g = vColor[vColorInc]
vColorInc += 1
mesh.faces[faceCnt].col[0].b = vColor[vColorInc]
vColorInc += 2
mesh.faces[faceCnt].col[1].r = vColor[vColorInc]
vColorInc += 1
mesh.faces[faceCnt].col[1].g = vColor[vColorInc]
vColorInc += 1
mesh.faces[faceCnt].col[1].b = vColor[vColorInc]
vColorInc += 2
mesh.faces[faceCnt].col[2].r = vColor[vColorInc]
vColorInc += 1
mesh.faces[faceCnt].col[2].g = vColor[vColorInc]
vColorInc += 1
mesh.faces[faceCnt].col[2].b = vColor[vColorInc]
vColorInc += 2
mesh.faces[faceCnt].col[3].r = vColor[vColorInc]
vColorInc += 1
mesh.faces[faceCnt].col[3].g = vColor[vColorInc]
vColorInc += 1
mesh.faces[faceCnt].col[3].b = vColor[vColorInc]
vColorInc += 2
faceCnt += 1
i += 4
# import vertex colors for tris to blender
i = triDatSz[meshInc]
while i < triDatSz[meshInc+1]:
mesh.faces[faceCnt].col[0].r = vColor[vColorInc]
vColorInc += 1
mesh.faces[faceCnt].col[0].g = vColor[vColorInc]
vColorInc += 1
mesh.faces[faceCnt].col[0].b = vColor[vColorInc]
vColorInc += 2
mesh.faces[faceCnt].col[1].r = vColor[vColorInc]
vColorInc += 1
mesh.faces[faceCnt].col[1].g = vColor[vColorInc]
vColorInc += 1
mesh.faces[faceCnt].col[1].b = vColor[vColorInc]
vColorInc += 2
mesh.faces[faceCnt].col[2].r = vColor[vColorInc]
vColorInc += 1
mesh.faces[faceCnt].col[2].g = vColor[vColorInc]
vColorInc += 1
mesh.faces[faceCnt].col[2].b = vColor[vColorInc]
vColorInc += 2
faceCnt += 1
i += 3
# if object has texture than make "faceUV" true
if texLinkDat[meshInc] != -1:
mesh.faceUV = True
else:
mesh.faceUV = False
print "Importing texture coordinates"
# import texture coordinate for quads to blender
uvFaceCnt = 0
i = quadDatSz[meshInc]
if texLinkDat[meshInc] != -1:
while i < quadDatSz[meshInc+1]:
mesh.faces[uvFaceCnt].uv[0].x = texCoord[texCoordInc]
texCoordInc += 1
mesh.faces[uvFaceCnt].uv[0].y = texCoord[texCoordInc]
texCoordInc += 1
mesh.faces[uvFaceCnt].uv[1].x = texCoord[texCoordInc]
texCoordInc += 1
mesh.faces[uvFaceCnt].uv[1].y = texCoord[texCoordInc]
texCoordInc += 1
mesh.faces[uvFaceCnt].uv[2].x = texCoord[texCoordInc]
texCoordInc += 1
mesh.faces[uvFaceCnt].uv[2].y = texCoord[texCoordInc]
texCoordInc += 1
mesh.faces[uvFaceCnt].uv[3].x = texCoord[texCoordInc]
texCoordInc += 1
mesh.faces[uvFaceCnt].uv[3].y = texCoord[texCoordInc]
texCoordInc += 1
uvFaceCnt += 1
i += 4
else:
texCoordInc += (quadDatSz[meshInc+1]-i)/4*8
uvFaceCnt += (quadDatSz[meshInc+1]-i)/4
# import texture coordinate for tris to blender
i = triDatSz[meshInc]
if texLinkDat[meshInc] != -1:
while i < triDatSz[meshInc+1]:
mesh.faces[uvFaceCnt].uv[0].x = texCoord[texCoordInc]
texCoordInc += 1
mesh.faces[uvFaceCnt].uv[0].y = texCoord[texCoordInc]
texCoordInc += 1
mesh.faces[uvFaceCnt].uv[1].x = texCoord[texCoordInc]
texCoordInc += 1
mesh.faces[uvFaceCnt].uv[1].y = texCoord[texCoordInc]
texCoordInc += 1
mesh.faces[uvFaceCnt].uv[2].x = texCoord[texCoordInc]
texCoordInc += 1
mesh.faces[uvFaceCnt].uv[2].y = texCoord[texCoordInc]
texCoordInc += 1
uvFaceCnt += 1
i += 3
else:
texCoordInc += (triDatSz[meshInc+1]-i)/3*6
uvFaceCnt += (triDatSz[meshInc+1]-i)/3
# import image files to blender
print "Importing texture data"
tex_dir = Blender.sys.dirname(file_name) + "/texture/"
for i in range(0, len(imageNames)):
try:
imgData = Image.Load(Blender.sys.join(tex_dir, imageNames[i]))
except IOError:
continue
else:
if texLinkDat[meshInc] == i:
for f in mesh.faces:
f.image = imgData
scene.objects.new(mesh)
##################################################################################################
scene = Blender.Scene.GetCurrent()
meshes = []
i = len(objectNames)-1
for ob in scene.objects:
obtype = ob.type
if obtype == "Mesh":
meshes.append(ob)
# rename objects
if i >= 0:
ob.name = objectNames[i]
i -= 1
print "Importing trasformation data for each mesh object"
# find the first listed transformation data value
i = 0
while i < len(code):
if code[0+i:7+i] == ["_", "T", "R", "A", "N", "S", "["]:
codePos = i + 7
i = len(code)
i = i + 1
i = codePos
while i < len(code):
if code[0+i:3+i] == ["]", "=", "{"]:
codePos = i + 3
i = len(code)
i = i + 1
# read the transformation data from the code
endOfNum = 0
numCnt = 0
trans = []
while endOfNum != 2:
i = 0
num = ""
endOfNum = 0
while endOfNum == 0:
if code[codePos+i] == "," or code[codePos+i] == "}":
endOfNum = 1
else:
num = num + code[codePos+i]
if code[codePos+i] == "}":
endOfNum = 2
i = i + 1
if endOfNum != 2:
codePos = codePos+i
if num != "":
trans[len(trans):] = [float(num)]
#Read the transformation data from file
i = 0
matrix = ob.getMatrix()
while i < meshCnt:
meshes[meshCnt-1-i].rot = [trans[i*16+0]*math.pi/180.0, trans[i*16+1]*math.pi/180.0, trans[i*16+2]*math.pi/180.0]
meshes[meshCnt-1-i].loc = [trans[i*16+3], trans[i*16+4], trans[i*16+5]]
meshes[meshCnt-1-i].size = [trans[i*16+6], trans[i*16+7], trans[i*16+8]]
i = i + 1
#close c file
file.close()
def save_opengl(filename):
# Open file
f = open(filename + ".c", "w")
header_file = open(filename + ".h", "w")
bone_file = open(filename + ".bone", "w")
print "File %s created and opened. Now exporting..." % filename
# Write all the preprocessors in the header file required to
# make it work w/ vbo_Utilities.h :
header_file.write("#ifndef MODEL_H")
header_file.write("\n#define MODEL_H")
header_file.write("\n\n#include <GL/gl.h>")
header_file.write("\n#include <GL/glu.h>")
header_file.write("\n\n#include \"Transformation.h\"")
header_file.write("\n\n#include \"vbo_Utilities.h\"")
header_file.write("\n\n#include \"bone.h\"")
header_file.write(
"\n\n// The following is the list of objects that will be exported :")
# The actual object names and their estern declarations will be written out in the loop below
f.write("#include \"%s.h\"\n\n" % filename)
# Which object to export
# currently all objects (meshes only - see below)
objects = [ob for ob in Object.GetSelected() if ob.getType() == 'Mesh']
obj_index = 0
for obj in objects:
nmesh = NMesh.GetRawFromObject(obj.name)
header_file.write("\n\nextern CVBO_Model %s;" % (nmesh.name))
f.write("\n// Object: %s" % (nmesh.name))
f.write("\nCVBO_Model %s;" % (nmesh.name))
f.write("\n\nvoid make_%s_vbo_arrays () {" % (nmesh.name))
# Get the list of vertices for the object
vertices = nmesh.verts[:]
# Get the list of faces for the object
faces = nmesh.faces[:]
# initialize a refCount array for the vertices
refCount_for_vertices = []
for idx in range(len(vertices)):
refCount_for_vertices.append(0)
# Make one pass through all the faces in the object
# to identify all the vertices that will have to be split
# into 2 or more vertices if they have different texture coordinates
# as part of different faces. Example : vertices along uv-unwrapping_seams.
# Naturally, this has to be done only if the mesh uses face-UV textures
if nmesh.hasFaceUV():
for face in faces:
for idx in range(len(face.v)):
vertex_idx = face.v[idx].index
if refCount_for_vertices[vertex_idx] == 0:
refCount_for_vertices[vertex_idx] = 1
vertices[vertex_idx].uvco.x = face.uv[idx][0]
vertices[vertex_idx].uvco.y = face.uv[idx][1]
elif face.uv[idx][0] != vertices[
vertex_idx].uvco.x or face.uv[idx][1] != vertices[
vertex_idx].uvco.y:
# get a new temp vert of type MyVert
newVert = MyVert(0.0, 0.0, 0.0)
refCount_for_vertices.append(1)
# Copy over relevant stuff to newVert
newVert.co = Co(vertices[vertex_idx].co.x,
vertices[vertex_idx].co.y,
vertices[vertex_idx].co.z)
newVert.index = vertices[vertex_idx].index
newVert.dup_vertex_index = vertices[vertex_idx].index
newVert.no = No(vertices[vertex_idx].no.x,
vertices[vertex_idx].no.y,
vertices[vertex_idx].no.z)
newVert.uvco = Uvco(vertices[vertex_idx].uvco.x,
vertices[vertex_idx].uvco.y)
# Append it to the list
vertices.append(newVert)
vertex_idx = len(
vertices
) - 1 # new vertex_idx, of the newly appended vertex
# Now set the diverged uvco and index at the newly appended vertex
vertices[vertex_idx].uvco.x = face.uv[idx][0]
vertices[vertex_idx].uvco.y = face.uv[idx][1]
vertices[vertex_idx].index = vertex_idx
# And, set the face's v to point to this newly appended vertex
face.v[idx] = vertices[vertex_idx]
numVerts = len(vertices)
f.write("\n\tint numVertices = %d;\n" % numVerts)
# Write out the list of vertices for the object
f.write("\n\t// List of vertices for object %s" % (nmesh.name))
f.write("\n\tGLfloat vertices[] = {")
for vertex in vertices:
f.write("\n\t\t%f,\t%f,\t%f,\t1.0000," %
(vertex.co.x, vertex.co.y, vertex.co.z))
f.write("\t\t// index : %d" % (vertex.index))
f.write("\n\t};")
f.write(
"\n\t%s.bulk_init_vertices (numVertices, (vec4 *)vertices);\n\n" %
(nmesh.name))
# Write out the texture coordinates for the object
if nmesh.hasFaceUV():
f.write("\n\t// List of texture_coords for object %s" %
(nmesh.name))
f.write("\n\tGLfloat textures[] = {")
for vertex in vertices:
f.write("\n\t\t%f,\t%f," % (vertex.uvco.x, vertex.uvco.y))
f.write("\t\t// index : %d" % (vertex.index))
f.write("\n\t};")
f.write(
"\n\t%s.bulk_init_textures (numVertices, (vec2 *)textures);\n\n"
% (nmesh.name))
# Write out the normals for the object
f.write("\n\t// List of normals for object %s" % (nmesh.name))
f.write("\n\tGLfloat normals[] = {")
for vertex in vertices:
f.write("\n\t\t%f,\t%f,\t%f," %
(vertex.no.x, vertex.no.y, vertex.no.z))
f.write("\t\t// index : %d" % (vertex.index))
f.write("\n\t};")
f.write(
"\n\t%s.bulk_init_normals (numVertices, (vec3 *)normals);\n\n" %
(nmesh.name))
numFaces = 0
for face in nmesh.faces:
numFaces = numFaces + 1
if len(
face.v
) == 4: # , because quads will be exported as 2 triangles (see below)
numFaces = numFaces + 1
f.write("\n\tint numFaces = %d;\n" % numFaces)
# Write out the indices to form each face of the object
f.write("\n\tGLuint indices[] = {")
for face in nmesh.faces:
f.write("\n\t\t")
f.write("%d, " % face.v[0].index)
f.write("%d, " % face.v[1].index)
f.write("%d, " % face.v[2].index)
if len(face.v) == 4:
f.write("\n\t\t")
f.write("%d, " % face.v[3].index)
f.write("%d, " % face.v[0].index)
f.write("%d, " % face.v[2].index)
f.write("\n\t};")
f.write("\n\t%s.bulk_init_indices (numFaces, (GLuint *)indices);\n\n" %
(nmesh.name))
#translation
locx = 0
locy = 0
locz = 0
if obj.LocX > 0.0001 or obj.LocX < -0.0001:
locx = obj.LocX
if obj.LocY > 0.0001 or obj.LocY < -0.0001:
locy = obj.LocY
if obj.LocZ > 0.0001 or obj.LocZ < -0.0001:
locz = obj.LocZ
f.write("\n\t%s.locX = %f;" % (nmesh.name, locx))
f.write("\n\t%s.locY = %f;" % (nmesh.name, locy))
f.write("\n\t%s.locZ = %f;" % (nmesh.name, locz))
f.write("\n\treturn;")
f.write("\n}")
# Bone stuff
mesh = Mesh.Get(obj.name)
obj.link(mesh)
f.write("\n\n// Object : %s " % (mesh.name))
numRealVerts = len(mesh.verts)
armatures = Armature.Get() # type: dict
armature_names = armatures.keys()
for armature_name in armature_names:
f.write("\n// Armature %s, being used by %d users" %
(armature_name, armatures[armature_name].users))
if armatures[
armature_name].users > 0: # being used by at least 1 user (helps discard deleted armatures which are (for some reason) still lying around in Blender)
armature = armatures[armature_name]
bones = armature.bones # type: dict
bone_names = bones.keys()
for bone_name in bone_names: # loop over all bones
bone = bones[bone_name]
f.write("\n\nBone %s;" % bone.name)
header_file.write("\nextern Bone %s;" % bone.name)
f.write("\n\nvoid init_%s_bone_influences () {" %
bone.name)
f.write("\n\tInfluence influences[] = {")
num_influences = 0
for vertex_idx in range(
numVerts
): # loop over all vertices, looking for The bone's influences
# bone_file.write("\nindex : %d " % (vertex_idx))
if vertex_idx < numRealVerts:
for influence in mesh.getVertexInfluences(
vertex_idx):
if influence[0] == bone.name:
# bone_file.write("\n %s, %f" % (influence[0], influence[1]))
f.write("\n\t\tInfluence(%d, %f)," %
(vertex_idx, influence[1]))
num_influences = num_influences + 1
elif vertex_idx >= numRealVerts:
for influence in mesh.getVertexInfluences(
vertices[vertex_idx].dup_vertex_index):
if influence[0] == bone.name:
# bone_file.write("\n %s, %f" % (influence[0], influence[1]))
f.write("\n\t\tInfluence(%d, %f)," %
(vertex_idx, influence[1]))
num_influences = num_influences + 1
f.write("\n\t};")
f.write("\n\n\t%s.bulkInitInfluences (%d, influences);" %
(bone.name, num_influences))
f.write("\n\t%s.name = \"%s\";" % (bone.name, bone.name))
f.write("\n\n\treturn;")
f.write("\n};\n")
obj_index += 1
header_file.write("\n\nvoid initialize_all_models ();")
header_file.write("\nvoid ready_all_models_for_render ();")
f.write("\n\nvoid initialize_all_models () {")
for obj in objects:
nmesh = NMesh.GetRawFromObject(obj.name)
f.write("\n\n\tmake_%s_vbo_arrays ();" % (nmesh.name))
f.write("\n\t%s.setTexture (\"./cube_texture_test.png\", PNG);" %
nmesh.name)
f.write("\n\t%s.setMatColor (0.2, 0.3, 0.4, 1.0);" % nmesh.name)
# Bone stuff :
armatures = Armature.Get() # type: dict
armature_names = armatures.keys()
for armature_name in armature_names:
if armatures[
armature_name].users > 0: # being used by at least 1 user (helps discard deleted armatures which are (for some reason) still lying around in Blender)
armature = armatures[armature_name]
bones = armature.bones # type: dict
bone_names = bones.keys()
for bone_name in bone_names: # loop over all bones
bone = bones[bone_name]
f.write("\n\tinit_%s_bone_influences ();" % bone.name)
f.write("\n\t%s.setVBO (&%s);" % (bone.name, obj.name))
f.write("\n\t%s.addBone (&%s);" % (obj.name, bone.name))
f.write("\n\n\treturn;\n}\n")
f.write("\n\nvoid ready_all_models_for_render () {")
for obj in objects:
nmesh = NMesh.GetRawFromObject(obj.name)
f.write("\n\t%s.make_ready_for_render ();" % nmesh.name)
f.write("\n\n\treturn;\n}\n\n")
header_file.write("\n\n#endif\n\n")
print "Export complete"
f.close()
def doimport(self):
h1 = self.m.TXT_str_scan_space()
self.m.TXT_str_scan_eoln()
v = self.m.TXT_int_scan()
self.m.TXT_str_scan_eoln()
h2 = self.m.TXT_str_scan_space()
self.m.TXT_str_scan_eoln()
if h1.upper() != 'A' and h1.upper() != 'I':
raise ParseError(ParseError.MISC, "Bad header, must be A or I")
if v != 800:
raise ParseError(ParseError.MISC, "Bad version, must be 800")
if h2.upper() != 'ROADS':
raise ParseError(ParseError.MISC,
"Bad header, file class must be ROADS")
header = []
footer = []
dir = os.path.dirname(self.filename)
last_name = ''
while not self.m.TXT_is_done():
t = self.m.TXT_str_scan_space()
if t in [
'#SHADER', 'TEXTURE', 'TEXTURE_LIT', 'TEXTURE_NORMAL',
'NO_BLEND', 'ONE_SIDED', 'SPECULAR', 'DECAL', 'DECAL_RGBA',
'DECAL_KEYED', 'DECAL_PARAMS', 'DECAL_LIB', 'NO_APHA',
'DITHER_ALPHA', 'TEXTURE_TILE', 'TEXTURE_DETAIL',
'TEXTURE_CONTROL', 'TEXTURE_TERRAIN', 'VARIANTS',
'CAR_MODEL', 'TRAIN', 'TRAIN_VARIANT', 'TRAIN_CAR'
]:
t += ' '
t += self.m.TXT_str_scan_eoln()
if self.shaders.is_shader_line(t):
self.shaders.handle_shader_line(t)
header.append(t)
elif t in ['ROAD_DRAPED', 'ROAD_DRAPE_CHOICE', '#VROAD']:
t += ' '
t += self.m.TXT_str_scan_eoln()
footer.append(t)
elif t == 'SCALE':
self.scale = self.m.TXT_flt_scan()
self.m.TXT_str_scan_eoln()
elif t == '#ROAD':
last_name = self.m.TXT_str_scan_eoln()
elif t == 'ROAD_TYPE':
self.shaders.load_all_images(dir)
id = self.m.TXT_str_scan_space()
self.chain = Blender.Object.New('Empty',
'ROA%s.%s' % (id, last_name))
self.chain_width = self.m.TXT_flt_scan()
self.chain_length = self.m.TXT_flt_scan()
self.shader_idx = self.m.TXT_int_scan()
self.chain_center = self.chain_width * 0.5
prop_import(self.chain, 'RGB', self.m.TXT_str_scan_eoln())
prop_import(self.chain, 'NAME', last_name)
Blender.Scene.GetCurrent().objects.link(self.chain)
num_id = int(id)
core = num_id / 1000
grad = num_id % 10
side = (num_id / 100) % 10
self.chain.setLocation(core * 100, (side * 5 + grad) * 200, 0)
elif t == 'ROAD_CENTER':
self.chain_center = self.m.TXT_flt_scan()
self.m.TXT_str_scan_eoln()
elif t in ['SHOW_LEVEL', 'REQUIRE_EVEN']:
prop_import(self.chain, t, self.m.TXT_str_scan_eoln())
elif t == 'SEGMENT_GRADED' or t == 'SEGMENT_DRAPED':
shader_idx = self.m.TXT_int_scan()
near_lod = self.m.TXT_flt_scan()
far_lod = self.m.TXT_flt_scan()
t_scale = self.m.TXT_flt_scan()
x1 = self.m.TXT_flt_scan() - self.chain_center
if t == 'SEGMENT_GRADED': y1 = self.m.TXT_flt_scan()
else: y1 = draped_y
s1 = self.m.TXT_flt_scan() / self.scale
x2 = self.m.TXT_flt_scan() - self.chain_center
if t == 'SEGMENT_GRADED': y2 = self.m.TXT_flt_scan()
else: y2 = draped_y
s2 = self.m.TXT_flt_scan() / self.scale
surf = self.m.TXT_str_scan_space_optional()
self.m.TXT_str_scan_eoln()
nm = Mesh.New()
verts = [[x1, 0, y1], [x2, 0, y2], [x2, self.chain_length, y2],
[x1, self.chain_length, y1]]
loc = self.chain.getLocation('localspace')
#for v in verts:
# v[0] += loc[0]
# v[1] += loc[1]
# v[2] += loc[2]
faces = [[0, 1, 2, 3]]
nm.verts.extend(verts)
nm.faces.extend(faces)
nm.faceUV = 1
my_img = self.shaders.material_for_idx(shader_idx)
# append won't work, materials is returned by value or somethign silly.
nm.materials += [my_img]
for f in nm.faces:
f.image = my_img.textures[0].tex.image
f.mode |= Mesh.FaceModes.TEX
f.transp = Mesh.FaceTranspModes.ALPHA
if t == 'SEGMENT_DRAPED':
f.mode |= Mesh.FaceModes.TILES
if self.shaders.poly_os_for_idx(shader_idx) == 0:
print "WARNING: draped segment has non-draped shader."
else:
if self.shaders.poly_os_for_idx(shader_idx) > 0:
print "WARNING: draped segment has non-draped shader."
f.uv[0][0] = s1
f.uv[1][0] = s2
f.uv[2][0] = s2
f.uv[3][0] = s1
f.uv[0][1] = 0
f.uv[1][1] = 0
f.uv[2][1] = t_scale
f.uv[3][1] = t_scale
f.mat = nm.materials.index(my_img)
ob = Object.New('Mesh', "%d" % shader_idx)
ob.setLocation(loc[0], loc[1], loc[2])
Blender.Scene.GetCurrent().objects.link(ob)
ob.link(nm)
kids = []
kids.append(ob)
self.chain.makeParent(kids, 1, 1)
elif t == 'WIRE':
lod_near = self.m.TXT_flt_scan()
lod_far = self.m.TXT_flt_scan()
dx = self.m.TXT_flt_scan(
) * self.chain_width - self.chain_center
y = self.m.TXT_flt_scan()
droop = self.m.TXT_flt_scan()
nm = Mesh.New()
verts = [[dx, 0, y * droop], [dx, 0, y],
[dx, self.chain_length, y],
[dx, self.chain_length, y * droop]]
faces = [[0, 1, 2, 3]]
loc = self.chain.getLocation('localspace')
#for v in verts:
# v[0] += loc[0]
# v[1] += loc[1]
# v[2] += loc[2]
nm.verts.extend(verts)
nm.faces.extend(faces)
nm.faceUV = 1
for f in nm.faces:
f.mode |= Mesh.FaceModes.TWOSIDE
ob = Object.New('Mesh', "wire")
ob.setLocation(loc[0], loc[1], loc[2])
Blender.Scene.GetCurrent().objects.link(ob)
ob.link(nm)
kids = []
kids.append(ob)
self.chain.makeParent(kids, 1, 1)
self.m.TXT_str_scan_eoln()
else:
self.m.TXT_str_scan_eoln()
h = TEXT_create_or_clear('header')
f = TEXT_create_or_clear('footer')
for l in header:
h.write("%s\n" % l)
for l in footer:
f.write("%s\n" % l)
def __init__(self, scene_objects, file):
global ARG, SKIP_DATA, ADD_DEFAULT_MAT, DEFAULT_MAT
header = 'AC3Db'
self.file = file
self.buf = ''
self.mbuf = []
self.mlist = []
world_kids = 0
parents_list = self.parents_list = []
kids_dict = self.kids_dict = {}
objs = []
exp_objs = self.exp_objs = []
tree = {}
file.write(header+'\n')
objs = \
[o for o in scene_objects if o.type in ['Mesh', 'Empty']]
# create a tree from parents to children objects
for obj in objs[:]:
parent = obj.parent
lineage = [obj]
while parent:
parents_list.append(parent.name)
obj = parent
parent = parent.getParent()
lineage.insert(0, obj)
d = tree
for i in xrange(len(lineage)):
lname = lineage[i].getType()[:2] + lineage[i].name
if lname not in d.keys():
d[lname] = {}
d = d[lname]
# traverse the tree to get an ordered list of names of objects to export
self.traverse_dict(tree)
world_kids = len(tree.keys())
# get list of objects to export, start writing the .ac file
objlist = [Object.Get(name) for name in exp_objs]
meshlist = [o for o in objlist if o.type == 'Mesh']
# create a temporary mesh to hold actual (modified) mesh data
TMP_mesh = Mesh.New('tmp_for_ac_export')
# write materials
self.MATERIALS(meshlist, TMP_mesh)
mbuf = self.mbuf
if not mbuf or ADD_DEFAULT_MAT:
mbuf.insert(0, "%s\n" % DEFAULT_MAT)
mbuf = "".join(mbuf)
file.write(mbuf)
file.write('OBJECT world\nkids %s\n' % world_kids)
# write the objects
for obj in objlist:
self.obj = obj
objtype = obj.type
objname = obj.name
kidsnum = kids_dict[objname]
# A parent plus its children are exported as a group.
# If the parent is a mesh, its rot and loc are exported as the
# group rot and loc and the mesh (w/o rot and loc) is added to the group.
if kidsnum:
self.OBJECT('group')
self.name(objname)
if objtype == 'Mesh':
kidsnum += 1
if not GLOBAL_COORDS:
localmatrix = obj.getMatrix('localspace')
if not obj.getParent():
localmatrix *= BLEND_TO_AC3D_MATRIX
self.rot(localmatrix.rotationPart())
self.loc(localmatrix.translationPart())
self.kids(kidsnum)
if objtype == 'Mesh':
mesh = TMP_mesh # temporary mesh to hold actual (modified) mesh data
mesh.getFromObject(objname)
self.mesh = mesh
if mesh.faceUV:
meshes = self.split_mesh(mesh)
else:
meshes = [mesh]
if len(meshes) > 1:
if NO_SPLIT or self.dont_split(objname):
self.export_mesh(mesh, ob)
REPORT_DATA['nosplit'].append(objname)
else:
self.OBJECT('group')
self.name(objname)
self.kids(len(meshes))
counter = 0
for me in meshes:
self.export_mesh(me, obj,
name = '%s_%s' % (obj.name, counter), foomesh = True)
self.kids()
counter += 1
else:
self.export_mesh(mesh, obj)
self.kids()
def export(self, scene, world, alltextures,\
EXPORT_APPLY_MODIFIERS = False,\
EXPORT_TRI= False,\
):
print "Info: starting X3D export to " + self.filename + "..."
self.writeHeader()
# self.writeScript()
self.writeNavigationInfo(scene)
self.writeBackground(world, alltextures)
self.writeFog(world)
self.proto = 0
# COPIED FROM OBJ EXPORTER
if EXPORT_APPLY_MODIFIERS:
temp_mesh_name = '~tmp-mesh'
# Get the container mesh. - used for applying modifiers and non mesh objects.
containerMesh = meshName = tempMesh = None
for meshName in Blender.NMesh.GetNames():
if meshName.startswith(temp_mesh_name):
tempMesh = Mesh.Get(meshName)
if not tempMesh.users:
containerMesh = tempMesh
if not containerMesh:
containerMesh = Mesh.New(temp_mesh_name)
# --------------------------
for ob_main in scene.objects.context:
for ob, ob_mat in BPyObject.getDerivedObjects(ob_main):
objType = ob.type
objName = ob.name
self.matonly = 0
if objType == "Camera":
self.writeViewpoint(ob, ob_mat, scene)
elif objType in ("Mesh", "Curve", "Surf", "Text"):
if EXPORT_APPLY_MODIFIERS or objType != 'Mesh':
me = BPyMesh.getMeshFromObject(ob, containerMesh,
EXPORT_APPLY_MODIFIERS,
False, scene)
else:
me = ob.getData(mesh=1)
self.writeIndexedFaceSet(ob,
me,
ob_mat,
world,
EXPORT_TRI=EXPORT_TRI)
elif objType == "Lamp":
data = ob.data
datatype = data.type
if datatype == Lamp.Types.Lamp:
self.writePointLight(ob, ob_mat, data, world)
elif datatype == Lamp.Types.Spot:
self.writeSpotLight(ob, ob_mat, data, world)
elif datatype == Lamp.Types.Sun:
self.writeDirectionalLight(ob, ob_mat, data, world)
else:
self.writeDirectionalLight(ob, ob_mat, data, world)
# do you think x3d could document what to do with dummy objects?
#elif objType == "Empty" and objName != "Empty":
# self.writeNode(ob, ob_mat)
else:
#print "Info: Ignoring [%s], object type [%s] not handle yet" % (object.name,object.getType)
pass
self.file.write("\n</Scene>\n</X3D>")
if EXPORT_APPLY_MODIFIERS:
if containerMesh:
containerMesh.verts = None
self.cleanup()
def geometry_to_blender(geom, bld_mesh=None, discretizer=None):
"""Create a blender mesh
Paint the faces too if needed
:Parameters:
- `geom` (pgl.Geometry) - the geometry to transform
- `bld_mesh` (Mesh) - a mesh in which to append the shape.
If None, a blank new one will be created
- `discretizer` (Discretizer) - algorithm to triangulate the geometry
:Returns Type: Mesh
"""
#create bld_mesh
if bld_mesh is None:
if geom.isNamed():
name = geom.name
else:
name = "pglgeom%d" % geom.getId()
bld_mesh = Mesh.New(name)
#geometry (mesh)
if discretizer is None:
d = Discretizer()
else:
d = discretizer
geom.apply(d)
geom = d.result
#fill mesh
pts = array(geom.pointList)
nbv = len(bld_mesh.verts)
faces = nbv + array(geom.indexList)
bld_mesh.verts.extend(pts)
nbf = len(bld_mesh.faces)
bld_mesh.faces.extend(faces.tolist())
#set vertex colors if needed
mat = None
if not geom.isColorListToDefault():
bld_mesh.vertexColors = True
#create material to render mesh colors
try:
mat = Material.Get("default_vtx_mat")
except NameError:
mat = Material.New("default_vtx_mat")
mat.mode += Material.Modes['VCOL_PAINT']
bld_mesh.materials = [mat]
#modify color list to duplicate colors per face per vertex
if geom.colorPerVertex and geom.isColorIndexListToDefault():
#each vertex has a color
for i, inds in enumerate(faces):
face = bld_mesh.faces[nbf + i]
for j, v in enumerate(face):
col = face.col[j]
pglcol = geom.colorList[geom.indexList[i][j]]
col.r = pglcol.red
col.g = pglcol.green
col.b = pglcol.blue
col.a = pglcol.alpha
elif geom.colorPerVertex and not geom.isColorIndexListToDefault():
#each local vertex of each face has a color
for i, inds in enumerate(geom.colorIndexList):
face = bld_mesh.faces[nbf + i]
for j, v in enumerate(face):
col = face.col[j]
pglcol = geom.colorList[inds[j]]
col.r = pglcol.red
col.g = pglcol.green
col.b = pglcol.blue
col.a = pglcol.alpha
else:
#each face has a color
for i, col in enumerate(geom.colorList):
face = bld_mesh.faces[nbf + i]
R, G, B, A = col.red, col.green, col.blue, col.alpha
for j, v in enumerate(face):
col = face.col[j]
col.r = R
col.g = G
col.b = B
col.a = A
# #assign
# for fid in xrange(nb,len(bld_mesh.faces) ) :
# face = bld_mesh.faces[fid]
# for i,v in enumerate(face) :
# col = face.col[i]
# col.r = ambient.red
# col.g = ambient.green
# col.b = ambient.blue
# for vtx in bld_mesh.verts :
# vtx.sel = 0
#return
return bld_mesh, mat
def PolyDataMapperToBlender(pmapper, me=None):
global flags
faces = []
edges = []
oldmats = None
newmesh = 0
if (me == None):
me = Mesh.New()
newmesh = 1
else:
if me.materials:
oldmats = me.materials
me.verts = None # this kills the faces/edges tooo
pmapper.Update()
pdata = pmapper.GetInput()
plut = pmapper.GetLookupTable()
#print pdata.GetNumberOfCells()
scalars = pdata.GetPointData().GetScalars()
verts = []
for i in range(pdata.GetNumberOfPoints()):
point = pdata.GetPoint(i)
verts.append([point[0], point[1], point[2]])
me.verts.extend(verts)
# I think we can free some memory by killing the reference
# from vert to the list it points at (not sure though)
verts = []
colors = None
if ((scalars != None) and (plut != None)):
colors = []
# Have to be a bit careful since VTK 5.0 changed the
# prototype of vtkLookupTable.GetColor()
try:
# VTK 5.x
scolor = [0, 0, 0]
for i in range(scalars.GetNumberOfTuples()):
plut.GetColor(scalars.GetTuple1(i), scolor)
color = map(VTKToBlenderColor, scolor)
alpha = int(plut.GetOpacity(scalars.GetTuple1(i)) * 255)
colors.append([color[0], color[1], color[2], alpha])
except:
# VTK 4.x
for i in range(scalars.GetNumberOfTuples()):
color = map(VTKToBlenderColor, \
plut.GetColor(scalars.GetTuple1(i)))
alpha = int(plut.GetOpacity(scalars.GetTuple1(i)) * 255)
colors.append([color[0], color[1], color[2], alpha])
skiptriangle = False
for i in range(pdata.GetNumberOfCells()):
cell = pdata.GetCell(i)
#print i, pdata.GetCellType(i)
# Do lines
if pdata.GetCellType(i) == 3:
n1 = cell.GetPointId(0)
n2 = cell.GetPointId(1)
BlenderAddEdge(me, edges, n1, n2)
# Do poly lines
if pdata.GetCellType(i) == 4:
for j in range(cell.GetNumberOfPoints() - 1):
n1 = cell.GetPointId(j)
n2 = cell.GetPointId(j + 1)
BlenderAddEdge(me, edges, n1, n2)
# Do triangles
if pdata.GetCellType(i) == 5:
if skiptriangle == True:
skiptriangle = False
elif ((flags & TRIS_TO_QUADS)
and (i < pdata.GetNumberOfCells() - 1)
and (pdata.GetCellType(i + 1) == 5)):
n1 = cell.GetPointId(0)
n2 = cell.GetPointId(1)
n3 = cell.GetPointId(2)
nextcell = pdata.GetCell(i + 1)
m1 = nextcell.GetPointId(0)
m2 = nextcell.GetPointId(1)
m3 = nextcell.GetPointId(2)
if ((n2 == m3) and (n3 == m2)):
BlenderAddFace(me, faces, n1, n2, m1, n3)
skiptriangle = True
else:
BlenderAddFace(me, faces, n1, n2, n3)
else:
n1 = cell.GetPointId(0)
n2 = cell.GetPointId(1)
n3 = cell.GetPointId(2)
BlenderAddFace(me, faces, n1, n2, n3)
# Do triangle strips
if pdata.GetCellType(i) == 6:
numpoints = cell.GetNumberOfPoints()
if ((flags & TRIS_TO_QUADS) and (numpoints % 2 == 0)):
for j in range(cell.GetNumberOfPoints() - 3):
if (j % 2 == 0):
n1 = cell.GetPointId(j)
n2 = cell.GetPointId(j + 1)
n3 = cell.GetPointId(j + 2)
n4 = cell.GetPointId(j + 3)
BlenderAddFace(me, faces, n1, n2, n4, n3)
else:
for j in range(cell.GetNumberOfPoints() - 2):
if (j % 2 == 0):
n1 = cell.GetPointId(j)
n2 = cell.GetPointId(j + 1)
n3 = cell.GetPointId(j + 2)
else:
n1 = cell.GetPointId(j)
n2 = cell.GetPointId(j + 2)
n3 = cell.GetPointId(j + 1)
BlenderAddFace(me, faces, n1, n2, n3)
# Do polygon
if pdata.GetCellType(i) == 7:
# Add a vert at the center of the polygon,
# and break into triangles
x = 0.0
y = 0.0
z = 0.0
scal = 0.0
N = cell.GetNumberOfPoints()
for j in range(N):
point = pdata.GetPoint(cell.GetPointId(j))
x = x + point[0]
y = y + point[1]
z = z + point[2]
if (scalars != None):
scal = scal + scalars.GetTuple1(j)
x = x / N
y = y / N
z = z / N
scal = scal / N
newidx = len(me.verts)
me.verts.extend(x, y, z)
if (scalars != None):
try:
# VTK 5.x
scolor = [0, 0, 0]
plut.GetColor(scal, scolor)
color = map(VTKToBlenderColor, scolor)
except:
color = map(VTKToBlenderColor, plut.GetColor(scal))
alpha = int(plut.GetOpacity(scalars.GetTuple1(i)) * 255)
colors.append([color[0], color[1], color[2], alpha])
# Add triangles connecting polynomial sides to new vert
for j in range(N):
n1 = cell.GetPointId(j)
n2 = cell.GetPointId((j + 1) % N)
n3 = newidx
BlenderAddFace(me, faces, n1, n2, n3)
# Do pixel
if pdata.GetCellType(i) == 8:
n1 = cell.GetPointId(0)
n2 = cell.GetPointId(1)
n3 = cell.GetPointId(2)
n4 = cell.GetPointId(3)
BlenderAddFace(me, faces, n1, n2, n3, n4)
# Do quad
if pdata.GetCellType(i) == 9:
n1 = cell.GetPointId(0)
n2 = cell.GetPointId(1)
n3 = cell.GetPointId(2)
n4 = cell.GetPointId(3)
BlenderAddFace(me, faces, n1, n2, n3, n4)
if len(edges) > 0:
me.edges.extend(edges)
if len(faces) > 0:
me.faces.extend(faces)
if (flags & SMOOTH_FACES):
for f in me.faces:
f.smooth = 1
# Some faces in me.faces may have been discarded from our
# list, so best to compute the vertex colors after the faces
# have been added to the mesh
if (colors != None):
me.vertexColors = 1
for f in me.faces:
f_col = []
for v in f.v:
f_col.append(colors[v.index])
SetVColors(f.col, f_col)
if not me.materials:
if oldmats:
me.materials = oldmats
else:
newmat = Material.New()
if (colors != None):
newmat.mode |= Material.Modes.VCOL_PAINT
me.materials = [newmat]
if (newmesh == 0):
me.update()
return me
def loadTri(filename):
if BPyMessages.Error_NoFile(filename):
return
importMenu()
print('\nImporting tri: "%s"' % (Blender.sys.expandpath(filename)))
istrm = open(filename, 'rb')
data = TriFormat.Data()
data.inspect(istrm)
data.read(istrm)
istrm.close()
print("\nTRI version 0x%x | Ve:%d | Fa:%d | UV:%d |" %
(data.version, data.num_vertices, data.num_tri_faces, data.num_uvs))
print("Num Morphs:%d | Num Modifiers:%d\n" %
(data.num_morphs, data.num_modifiers))
name = filename.split('\\')[-1].split('/')[-1]
scn = bpy.data.scenes.active
mesh = Mesh.New()
# vertex
verts_list = [(v.x, v.y, v.z) for v in data.vertices]
if ROTATE_X90:
verts_list[:] = [(v[0], -v[2], v[1]) for v in verts_list]
mesh.verts.extend(verts_list)
# face
face_list = [(f.v_1, f.v_2, f.v_3) for f in data.tri_faces]
mesh.faces.extend(face_list)
del face_list
# UV
if data.num_uvs > 0:
mesh.faceUV = True
for i, face in enumerate(mesh.faces):
utf = data.uv_tri_faces[i]
idx = [utf.v_1, utf.v_2, utf.v_3]
for ii, j in enumerate(face):
uv = data.uvs[idx[ii]]
face.uv[ii].x = uv.u
face.uv[ii].y = uv.v
ob = scn.objects.new(mesh, name)
# Shape Keys
if (data.num_morphs > 0
and INPORT_MORPH_SHAPE) or (data.num_modifiers > 0
and INPORT_MODIFIERS_SHAPE):
mesh.insertKey(1, 'relative')
if INPORT_MORPH_SHAPE:
for morph in data.morphs:
morphName = str(morph.name.decode("ascii"))
scale = morph.scale
print("... Morhph:" + morphName)
for i, nv in enumerate(mesh.verts):
verts_morph = morph.vertices[i]
v3 = [verts_morph.x, verts_morph.y, verts_morph.z]
if ROTATE_X90:
v3 = [v3[0], -v3[2], v3[1]]
nv.co[0] = verts_list[i][0] + v3[0] * scale
nv.co[1] = verts_list[i][1] + v3[1] * scale
nv.co[2] = verts_list[i][2] + v3[2] * scale
mesh.insertKey(1, 'relative')
mesh.key.blocks[-1].name = morphName
if INPORT_MODIFIER_SHAPE:
for modifier in data.modifiers:
modifierName = str(modifier.name.decode("ascii"))
print("... Modifier:" + modifierName)
for i, nv in enumerate(mesh.verts):
nv.co[0] = verts_list[i][0]
nv.co[1] = verts_list[i][1]
nv.co[2] = verts_list[i][2]
for i, n in enumerate(modifier.vertices_to_modify):
nv = mesh.verts[n]
mv = modifier.modifier_vertices[i]
v3 = [mv.x, mv.y, mv.z]
if ROTATE_X90:
v3 = [v3[0], -v3[2], v3[1]]
nv.co[0] = v3[0]
nv.co[1] = v3[1]
nv.co[2] = v3[2]
mesh.insertKey(1, 'relative')
mesh.key.blocks[-1].name = modifierName
for i, nv in enumerate(mesh.verts):
nv.co[0] = verts_list[i][0]
nv.co[1] = verts_list[i][1]
nv.co[2] = verts_list[i][2]
del verts_list
print("done.")
def main():
scn = Scene.GetCurrent()
act_ob = scn.getActiveObject()
if act_ob.getType() != 'Mesh':
act_ob = None
sel = [
ob for ob in Object.GetSelected() if ob.getType() == 'Mesh'
if ob != act_ob
]
if not sel and not act_ob:
Draw.PupMenu('Error, select a mesh as your active object')
return
# Defaults
PREF_EDITMESH_ONLY = Draw.Create(1)
PREF_MIRROR_LOCATION = Draw.Create(1)
PREF_XMID_SNAP = Draw.Create(1)
PREF_MAX_DIST = Draw.Create(0.02)
PREF_XZERO_THRESH = Draw.Create(0.002)
#PREF_MODE= Draw.Create(0) # THIS IS TOOO CONFUSING, HAVE 2 BUTTONS AND MAKE THE MODE FROM THEM.
PREF_MODE_L2R = Draw.Create(1)
PREF_MODE_R2L = Draw.Create(0)
PREF_SEL_ONLY = Draw.Create(1)
PREF_EDGE_USERS = Draw.Create(0)
# Weights
PREF_MIRROR_WEIGHTS = Draw.Create(0)
PREF_FLIP_NAMES = Draw.Create(1)
PREF_CREATE_FLIP_NAMES = Draw.Create(1)
pup_block = [\
('EditMesh Only', PREF_EDITMESH_ONLY, 'If disabled, will mirror all selected meshes.'),\
'Left (-), Right (+)',\
('Left > Right', PREF_MODE_L2R, 'Copy from the Left to Right of the mesh. Enable Both for a mid loc/weight.'),\
('Right > Left', PREF_MODE_R2L, 'Copy from the Right to Left of the mesh. Enable Both for a mid loc/weight.'),\
'',\
('MaxDist:', PREF_MAX_DIST, 0.0, 1.0, 'Generate interpolated verts so closer vert weights can be copied.'),\
('XZero limit:', PREF_XZERO_THRESH, 0.0, 1.0, 'Mirror verts above this distance from the middle, else lock to X/zero.'),\
('Sel Verts Only', PREF_SEL_ONLY, 'Only mirror selected verts. Else try and mirror all'),\
('Edge Users', PREF_EDGE_USERS, 'Only match up verts that have the same number of edge users.'),\
'Location Prefs',\
('Mirror Location', PREF_MIRROR_LOCATION, 'Mirror vertex locations.'),\
('XMidSnap Verts', PREF_XMID_SNAP, 'Snap middle verts to X Zero (uses XZero limit)'),\
'Weight Prefs',\
('Mirror Weights', PREF_MIRROR_WEIGHTS, 'Mirror vertex locations.'),\
('Flip Groups', PREF_FLIP_NAMES, 'Mirror flip names.'),\
('New Flip Groups', PREF_CREATE_FLIP_NAMES, 'Make new groups for flipped names.'),\
]
if not Draw.PupBlock("X Mirror mesh tool", pup_block):
return
# WORK OUT THE MODE 0
# PREF_MODE, 0:middle, 1: Left. 2:Right.
PREF_MODE_R2L = PREF_MODE_R2L.val
PREF_MODE_L2R = PREF_MODE_L2R.val
if PREF_MODE_R2L and PREF_MODE_L2R:
PREF_MODE = 0 # Middle
elif not PREF_MODE_R2L and PREF_MODE_L2R:
PREF_MODE = 1 # Left to Right
elif PREF_MODE_R2L and not PREF_MODE_L2R:
PREF_MODE = 2 # Right to Left
else: # Neither Selected. Do middle anyway
PREF_MODE = 0
PREF_EDITMESH_ONLY = PREF_EDITMESH_ONLY.val
PREF_MIRROR_LOCATION = PREF_MIRROR_LOCATION.val
PREF_XMID_SNAP = PREF_XMID_SNAP.val
PREF_MAX_DIST = PREF_MAX_DIST.val
PREF_XZERO_THRESH = PREF_XZERO_THRESH.val
PREF_SEL_ONLY = PREF_SEL_ONLY.val
PREF_EDGE_USERS = PREF_EDGE_USERS.val
# weights
PREF_MIRROR_WEIGHTS = PREF_MIRROR_WEIGHTS.val
PREF_FLIP_NAMES = PREF_FLIP_NAMES.val
PREF_CREATE_FLIP_NAMES = PREF_CREATE_FLIP_NAMES.val
t = sys.time()
is_editmode = Window.EditMode() # Exit Editmode.
if is_editmode: Window.EditMode(0)
Mesh.Mode(Mesh.SelectModes['VERTEX'])
Window.WaitCursor(1)
if act_ob:
mesh_mirror(act_ob.getData(mesh=1), PREF_MIRROR_LOCATION,
PREF_XMID_SNAP, PREF_MAX_DIST, PREF_XZERO_THRESH,
PREF_MODE, PREF_SEL_ONLY, PREF_EDGE_USERS,
PREF_MIRROR_WEIGHTS, PREF_FLIP_NAMES,
PREF_CREATE_FLIP_NAMES)
if (not PREF_EDITMESH_ONLY) and sel:
for ob in sel:
mesh_mirror(ob.getData(mesh=1), PREF_MIRROR_LOCATION,
PREF_XMID_SNAP, PREF_MAX_DIST, PREF_XZERO_THRESH,
PREF_MODE, PREF_SEL_ONLY, PREF_EDGE_USERS,
PREF_MIRROR_WEIGHTS, PREF_FLIP_NAMES,
PREF_CREATE_FLIP_NAMES)
if is_editmode: Window.EditMode(1)
Window.WaitCursor(0)
Window.DrawProgressBar(1.0, '')
Window.RedrawAll()
print 'Mirror done in %.6f sec.' % (sys.time() - t)
def write(filename, objects,\
EXPORT_NORMALS_HQ=False,\
EXPORT_MTL=True, EXPORT_COPY_IMAGES=False,\
EXPORT_APPLY_MODIFIERS=True, EXPORT_BLEN_OBS=True,\
EXPORT_GROUP_BY_OB=False):
'''
Basic write function. The context and options must be alredy set
This can be accessed externaly
eg.
write( 'c:\\test\\foobar.obj', Blender.Object.GetSelected() ) # Using default options.
'''
def veckey3d(v):
return round(v.x, 6), round(v.y, 6), round(v.z, 6)
def veckey2d(v):
return round(v.x, 6), round(v.y, 6)
print 'WTF Export path: "%s"' % filename
temp_mesh_name = '~tmp-mesh'
time1 = sys.time()
scn = Scene.GetCurrent()
file = open(filename, "w")
file.write('<?xml version="1.0"?>\n')
file.write('<OPEN_TRACK>\n')
# Write Header
# file.write('\n<!--\n'
# + ' Blender3D v%s WTF File: %s\n' % (Blender.Get('version'), Blender.Get('filename').split('/')[-1].split('\\')[-1] )
# + ' www.blender3d.org\n'
# + '-->\n\n')
# Get the container mesh. - used for applying modifiers and non mesh objects.
containerMesh = meshName = tempMesh = None
for meshName in Blender.NMesh.GetNames():
if meshName.startswith(temp_mesh_name):
tempMesh = Mesh.Get(meshName)
if not tempMesh.users:
containerMesh = tempMesh
if not containerMesh:
containerMesh = Mesh.New(temp_mesh_name)
del meshName
del tempMesh
# Initialize totals, these are updated each object
totverts = totuvco = totno = 0
face_vert_index = 0
globalNormals = {}
file.write('\n<library_objects>\n')
# Get all meshs
for ob_main in objects:
obnamestring = fixName(ob_main.name)
file.write('\t<object id="%s">\n' % obnamestring) # Write Object name
for ob, ob_mat in BPyObject.getDerivedObjects(ob_main):
# Will work for non meshes now! :)
# getMeshFromObject(ob, container_mesh=None, apply_modifiers=True, vgroups=True, scn=None)
me = BPyMesh.getMeshFromObject(ob, containerMesh,
EXPORT_APPLY_MODIFIERS, False, scn)
if not me:
file.write('\t\t<loc>%.6f %.6f %.6f</loc>\n' %
tuple(ob_main.loc)) # Write Object name
file.write('\t\t<rot>%.6f %.6f %.6f</rot>\n' %
tuple(ob_main.rot)) # Write Object name
continue
faceuv = me.faceUV
# We have a valid mesh
if me.faces:
# Add a dummy object to it.
has_quads = False
for f in me.faces:
if len(f) == 4:
has_quads = True
break
if has_quads:
oldmode = Mesh.Mode()
Mesh.Mode(Mesh.SelectModes['FACE'])
me.sel = True
tempob = scn.objects.new(me)
me.quadToTriangle(0) # more=0 shortest length
oldmode = Mesh.Mode(oldmode)
scn.objects.unlink(tempob)
Mesh.Mode(oldmode)
# Make our own list so it can be sorted to reduce context switching
faces = [f for f in me.faces]
edges = me.edges
if not (len(faces) + len(edges) +
len(me.verts)): # Make sure there is somthing to write
continue # dont bother with this mesh.
me.transform(ob_mat)
# High Quality Normals
if faces:
if EXPORT_NORMALS_HQ:
BPyMesh.meshCalcNormals(me)
else:
# transforming normals is incorrect
# when the matrix is scaled,
# better to recalculate them
me.calcNormals()
# # Crash Blender
#materials = me.getMaterials(1) # 1 == will return None in the list.
materials = me.materials
materialNames = []
materialItems = materials[:]
if materials:
for mat in materials:
if mat: # !=None
materialNames.append(mat.name)
else:
materialNames.append(None)
# Cant use LC because some materials are None.
# materialNames = map(lambda mat: mat.name, materials) # Bug Blender, dosent account for null materials, still broken.
# Possible there null materials, will mess up indicies
# but at least it will export, wait until Blender gets fixed.
materialNames.extend((16 - len(materialNames)) * [None])
materialItems.extend((16 - len(materialItems)) * [None])
# Sort by Material, then images
# so we dont over context switch in the obj file.
if faceuv:
try:
faces.sort(key=lambda a: (a.mat, a.image, a.smooth))
except:
faces.sort(lambda a, b: cmp((a.mat, a.image, a.smooth),
(b.mat, b.image, b.smooth)))
elif len(materials) > 1:
try:
faces.sort(key=lambda a: (a.mat, a.smooth))
except:
faces.sort(lambda a, b: cmp((a.mat, a.smooth),
(b.mat, b.smooth)))
else:
# no materials
try:
faces.sort(key=lambda a: a.smooth)
except:
faces.sort(lambda a, b: cmp(a.smooth, b.smooth))
# Set the default mat to no material and no image.
contextMat = (
0, 0
) # Can never be this, so we will label a new material teh first chance we get.
contextSmooth = None # Will either be true or false, set bad to force initialization switch.
if len(faces) > 0:
file.write('\t\t<mesh>\n')
else:
file.write('\t\t<curve>\n')
vertname = "%s-Vertices" % obnamestring
vertarrayname = "%s-Array" % vertname
normname = "%s-Normals" % obnamestring
normarrayname = "%s-Array" % normname
texname = "%s-TexCoord" % obnamestring
texarrayname = "%s-Array" % texname
# Vert
file.write('\t\t\t<float_array count="%d" id="%s">' %
(len(me.verts), vertarrayname))
for v in me.verts:
file.write(' %.6f %.6f %.6f' % tuple(v.co))
file.write('</float_array>\n')
file.write('\t\t\t<vertices id="%s" source="#%s" />\n' %
(vertname, vertarrayname))
# UV
if faceuv:
file.write('\t\t\t<float_array id="%s">' % texarrayname)
uv_face_mapping = [[0, 0, 0, 0] for f in faces
] # a bit of a waste for tri's :/
uv_dict = {} # could use a set() here
for f_index, f in enumerate(faces):
for uv_index, uv in enumerate(f.uv):
uvkey = veckey2d(uv)
try:
uv_face_mapping[f_index][uv_index] = uv_dict[uvkey]
except:
uv_face_mapping[f_index][uv_index] = uv_dict[
uvkey] = len(uv_dict)
file.write(' %.6f %.6f' % tuple(uv))
uv_unique_count = len(uv_dict)
del uv, uvkey, uv_dict, f_index, uv_index
# Only need uv_unique_count and uv_face_mapping
file.write('</float_array>\n')
file.write('\t\t\t<texcoords id="%s" source="#%s" />\n' %
(texname, texarrayname))
# NORMAL, Smooth/Non smoothed.
if len(faces) > 0:
file.write('\t\t\t<float_array id="%s">' % normarrayname)
for f in faces:
if f.smooth:
for v in f:
noKey = veckey3d(v.no)
if not globalNormals.has_key(noKey):
globalNormals[noKey] = totno
totno += 1
file.write(' %.6f %.6f %.6f' % noKey)
else:
# Hard, 1 normal from the face.
noKey = veckey3d(f.no)
if not globalNormals.has_key(noKey):
globalNormals[noKey] = totno
totno += 1
file.write(' %.6f %.6f %.6f' % noKey)
file.write('</float_array>\n')
file.write('\t\t\t<normals id="%s" source="#%s" />\n' %
(normname, normarrayname))
if not faceuv:
f_image = None
in_triangles = False
for f_index, f in enumerate(faces):
f_v = f.v
f_smooth = f.smooth
f_mat = min(f.mat, len(materialNames) - 1)
if faceuv:
f_image = f.image
f_uv = f.uv
# MAKE KEY
if faceuv and f_image: # Object is always true.
key = materialNames[f_mat], f_image.name
else:
key = materialNames[
f_mat], None # No image, use None instead.
# CHECK FOR CONTEXT SWITCH
if key == contextMat:
pass # Context alredy switched, dont do anythoing
else:
if key[0] == None and key[1] == None:
# Write a null material, since we know the context has changed.
if in_triangles:
file.write('</p>\n')
file.write('\t\t\t</triangles>\n')
file.write('\t\t\t<triangles id="%s_%s">\n' %
(fixName(ob.name), fixName(ob.getData(1))))
in_triangles = True
else:
mat_data = MTL_DICT.get(key)
if not mat_data:
# First add to global dict so we can export to mtl
# Then write mtl
# Make a new names from the mat and image name,
# converting any spaces to underscores with fixName.
# If none image dont bother adding it to the name
if key[1] == None:
mat_data = MTL_DICT[key] = ('%s' % fixName(
key[0])), materialItems[f_mat], f_image
else:
mat_data = MTL_DICT[key] = (
'%s_%s' %
(fixName(key[0]), fixName(key[1]))
), materialItems[f_mat], f_image
if in_triangles:
file.write('</p>\n')
file.write('\t\t\t</triangles>\n')
file.write(
'\t\t\t<triangles id="%s_%s_%s" material="#%s">\n'
% (fixName(ob.name), fixName(
ob.getData(1)), mat_data[0], mat_data[0]))
in_triangles = True
file.write(
'\t\t\t\t<input offset="0" semantic="VERTEX" source="#%s" />\n'
% vertname)
file.write(
'\t\t\t\t<input offset="1" semantic="NORMAL" source="#%s" />\n'
% normname)
if faceuv:
file.write(
'\t\t\t\t<input offset="2" semantic="TEXCOORD" source="#%s" />\n'
% texname)
file.write('\t\t\t\t<p>')
contextMat = key
if f_smooth != contextSmooth:
if f_smooth: # on now off
# file.write('s 1\n')
contextSmooth = f_smooth
else: # was off now on
# file.write('s off\n')
contextSmooth = f_smooth
if faceuv:
if f_smooth: # Smoothed, use vertex normals
for vi, v in enumerate(f_v):
file.write( ' %d %d %d' % (\
v.index+totverts,\
totuvco + uv_face_mapping[f_index][vi],\
globalNormals[ veckey3d(v.no) ])) # vert, uv, normal
else: # No smoothing, face normals
no = globalNormals[veckey3d(f.no)]
for vi, v in enumerate(f_v):
file.write( ' %d %d %d' % (\
v.index+totverts,\
totuvco + uv_face_mapping[f_index][vi],\
no)) # vert, uv, normal
face_vert_index += len(f_v)
else: # No UV's
if f_smooth: # Smoothed, use vertex normals
for v in f_v:
file.write( ' %d %d' % (\
v.index+totverts,\
globalNormals[ veckey3d(v.no) ]))
else: # No smoothing, face normals
no = globalNormals[veckey3d(f.no)]
for v in f_v:
file.write( ' %d %d' % (\
v.index+totverts,\
no))
if in_triangles:
file.write('</p>\n')
file.write('\t\t\t</triangles>\n')
# Write edges.
LOOSE = Mesh.EdgeFlags.LOOSE
has_edge = False
for ed in edges:
if ed.flag & LOOSE:
has_edge = True
if has_edge:
file.write('\t\t\t<edges>\n')
file.write(
'\t\t\t\t<input offset="0" semantic="VERTEX" source="#%s" />\n'
% vertname)
file.write('\t\t\t\t<p>')
for ed in edges:
if ed.flag & LOOSE:
file.write(
' %d %d' %
(ed.v1.index + totverts, ed.v2.index + totverts))
file.write('</p>\n')
file.write('\t\t\t</edges>\n')
# Make the indicies global rather then per mesh
# totverts += len(me.verts)
# if faceuv:
# totuvco += uv_unique_count
me.verts = None
if len(faces) > 0:
file.write('\t\t</mesh>\n')
else:
file.write('\t\t</curve>\n')
file.write('\t</object>\n')
file.write('</library_objects>\n\n')
# Now we have all our materials, save them
if EXPORT_MTL:
write_library_materials(file)
# Save the groups
write_library_groups(file)
file.write('</OPEN_TRACK>\n')
file.close()
if EXPORT_COPY_IMAGES:
dest_dir = filename
# Remove chars until we are just the path.
while dest_dir and dest_dir[-1] not in '\\/':
dest_dir = dest_dir[:-1]
if dest_dir:
copy_images(dest_dir)
else:
print '\tError: "%s" could not be used as a base for an image path.' % filename
print "WTF Export time: %.2f" % (sys.time() - time1)
def imgImport(imgPath):
global CUROFFS, PARAMS
######################################
# Load the image
######################################
try:
img = Image.Load(imgPath)
imgDimensions = img.getSize() # do this to ensure the data is available
except:
Blender.Draw.PupMenu('Error%t|Unsupported image format for "'+ imgPath.split('\\')[-1].split('/')[-1] +'"')
return
if PARAMS['PackImage']:
img.pack()
name = Blender.sys.makename(imgPath, strip = 1)
######################################
# Construct the mesh
######################################
me = Mesh.New(name)
# Calculate Dimensions from Image Size
dim = [float(i)/PARAMS['PPU'] for i in imgDimensions]
v = [[dim[0], dim[1], 0], [-dim[0], dim[1], 0], [-dim[0], -dim[1], 0], [dim[0], -dim[1], 0]]
me.verts.extend(v)
me.faces.extend([0, 1, 2, 3])
me.faces[0].image = img
me.faces[0].uv = [Vector(1.0, 1.0), Vector(0.0, 1.0), Vector(0.0, 0.0), Vector(1.0, 0.0)]
if PARAMS['MakeTransp']:
me.faces[0].transp = Mesh.FaceTranspModes.ALPHA
######################################
# Modify the Material
######################################
mat = None
if not PARAMS['NewMat']:
mat = PARAMS['Materials'][PARAMS['MaterialId']].__copy__()
mat.setName(name)
else:
mat = Material.New(name)
properties = PARAMS['MatProps']
mat.setRGBCol(properties['Col'])
mat.setRef(properties['Ref'])
mat.setSpec(properties['Spec'])
mat.setHardness(properties['Hard'])
mat.setAlpha(properties['Alpha'])
if properties['Shadeless']:
mat.mode |= Material.Modes.SHADELESS
if properties['ZTransp']:
mat.mode |= Material.Modes.ZTRANSP
properties = PARAMS['TexProps']
tex = Texture.New(name)
tex.setType('Image')
tex.setImage(img)
if properties['UseAlpha']:
tex.useAlpha = Texture.ImageFlags.USEALPHA
if properties['CalcAlpha']:
tex.calcAlpha = Texture.ImageFlags.CALCALPHA
if properties['ExtendMode']:
tex.setExtend('Extend')
if PARAMS['ImageProp'] == Image.Sources.SEQUENCE:
properties = PARAMS['SeqProps']
img.source = PARAMS['ImageProp'] # Needs to be done here, otherwise an error with earlier getSize()
tex.animStart = properties['StartFr']
tex.animOffset = properties['Offs']
tex.animFrames = properties['Frames']
tex.autoRefresh = properties['AutoRefresh']
tex.cyclic = properties['Cyclic']
texMapSetters = Texture.TexCo.UV
# PARAMS['TexMapTo']['Col'] (and alpha) will either be 0 or 1 because its from a toggle, otherwise this line doesn't work
texChanSetters = Texture.MapTo.COL * PARAMS['TexMapTo']['Col'] | Texture.MapTo.ALPHA * PARAMS['TexMapTo']['Alpha']
mat.setTexture(PARAMS['TexChannel'], tex, texMapSetters, texChanSetters)
me.materials += [mat]
######################################
# Object Construction
######################################
ob = scn.objects.new(me, name)
p = Vector(ob.getLocation()) # Should be the origin, but just to be safe, get it
ob.setLocation((CUROFFS * PARAMS['ObOffset']) + p)
return
