def fromGeneticInstanceToBlender(tree_creator, context, genetic_instance):
""" Reads all the current Tree Creator parameters from the LSystem instance """
# LSystem part
tree_creator.iterations = genetic_instance.lsystem.niterations
tree_creator.nproductions = len(genetic_instance.lsystem.productions)
tree_creator.ndefines = len(genetic_instance.lsystem.globalDefines)
tree_creator.axiom = str(genetic_instance.lsystem.axiom)
updateDefinesGui(tree_creator,context)
updateProductionsGui(tree_creator,context)
i = 0
keys = list(genetic_instance.lsystem.globalDefines.keys())
values = list(genetic_instance.lsystem.globalDefines.values())
for (def_name,def_value) in iterateOverDefines(tree_creator):
# TODO: CHECK THIS!!!! THEY ARE IN A DICTIONARY! NOT ORDERED!
setattr(tree_creator,def_name,str(keys[i]))
setattr(tree_creator,def_value,values[i])
i+=1
i = 0
productions = genetic_instance.lsystem.productions
for (namep,namec,names) in iterateOverProductions(tree_creator):
setattr(tree_creator,namep,str(productions[i].predecessor))
setattr(tree_creator,namec,str(productions[i].condition))
setattr(tree_creator,names,str(productions[i].successor))
i+=1
# Turtle parameters part
tp = genetic_instance.turtleParameters
tree_creator.defaultRadius = tp.branch_radius
tree_creator.tropism_susceptibility = tp.tropism_susceptibility
tree_creator.canopy = tp.use_canopy
tree_creator.details_scale = tp.details_scale
#print(tp.trunk_material_choice)
tree_creator.trunk_material = DetailsHandler.nameOfMaterial(tp.trunk_material_choice)
#print(tree_creator.trunk_material)
tree_creator.leaf_material = DetailsHandler.nameOfMaterial(tp.leaf_material_choice)
tree_creator.leaf_object_name = DetailsHandler.nameOfLeafModel(tp.leaf_choice)
tree_creator.bulb_object_name = DetailsHandler.nameOfBulbModel(tp.bulb_choice)
tree_creator.flower_object_name = DetailsHandler.nameOfFlowerModel(tp.flower_choice)
tree_creator.fruit_object_name = DetailsHandler.nameOfFruitModel(tp.fruit_choice)
def drawMesh(self, context, turtleResult, origin_offset = (0,0,0), suffix = "", randomSeed = None, multipleInstances = False,
overridenContext = None):
if overridenContext is None: scene = context.scene
else: scene = overridenContext['scene']
verts = turtleResult.verts
edges = turtleResult.edges
radii = turtleResult.radii
leaves = turtleResult.leaves
bulbs = turtleResult.bulbs
flowers = turtleResult.flowers
fruits = turtleResult.fruits
instance_index = turtleResult.instance_index
idd = turtleResult.idd
if randomSeed: self.rnd.seed(randomSeed+instance_index)
if len(verts) == 0:
if overridenContext is None: context.area.header_text_set("WARNING: Mesh drawing aborted due no vertices supplied.")
else: context['area'].header_text_set("WARNING: Mesh drawing aborted due no vertices supplied.")
print("WARNING: Mesh drawing aborted due no vertices supplied.")
return
if self.limitDrawing and len(verts) > MAX_DRAWABLE_VERTS:
if overridenContext is None: context.area.header_text_set("WARNING: Mesh drawing aborted due to huge number of vertices: " + str(len(verts)))
else: context['area'].header_text_set("WARNING: Mesh drawing aborted due to huge number of vertices: " + str(len(verts)))
print("WARNING: Mesh drawing aborted due to huge number of vertices: " + str(len(verts)))
return
if suffix == "": name = str(idd) + "_" + str(instance_index)
else: name = suffix
if multipleInstances: origin_offset = (origin_offset[0]-((int)(instance_index/5))*1+self.rnd.uniform(-0.5,0.5)*1.0,
origin_offset[1]+(instance_index%5)*1+self.rnd.uniform(-0.5,0.5)*1.0,
origin_offset[2])
me = bpy.data.meshes.new('PlantFormMesh' + name)
ob = bpy.data.objects.new("PlantForm" + name, me)
me.from_pydata(verts, edges, [])
me.update()
ob.location = scene.cursor_location + Vector(origin_offset)
scene.objects.link(ob)
# Add details
#print("Turtle renderer: Show detaiils")
if self.showLeaves:
if self.randomize_details: leaf_name = DetailsHandler.LEAF_NAMES[random.randint(0,len(DetailsHandler.LEAF_NAMES)-1)]
else: leaf_name = DetailsHandler.LEAF_NAMES[self.leaf_detail_index]
self.addDetails("leaf",leaves,leaf_name,self.details_scale,ob)
if self.randomize_details: bulb_name = DetailsHandler.BULB_NAMES[random.randint(0,len(DetailsHandler.BULB_NAMES)-1)]
else: bulb_name = DetailsHandler.BULB_NAMES[self.bulb_detail_index]
self.addDetails("bulb",bulbs,bulb_name,self.details_scale,ob)
if self.randomize_details: flower_name = DetailsHandler.FLOWER_NAMES[random.randint(0,len(DetailsHandler.FLOWER_NAMES)-1)]
else: flower_name = DetailsHandler.FLOWER_NAMES[self.flower_detail_index]
self.addDetails("flower",flowers,flower_name,self.details_scale,ob)
if self.randomize_details: fruit_name = DetailsHandler.FRUIT_NAMES[random.randint(0,len(DetailsHandler.FRUIT_NAMES)-1)]
else: fruit_name = DetailsHandler.FRUIT_NAMES[self.fruit_detail_index]
self.addDetails("fruit",fruits,fruit_name,self.details_scale,ob)
# Metaballs around leaves to simulate canopy
#print("Turtle renderer: Show canopy")
if self.showCanopy:
if len(leaves) > 0:
mballGenerator = MetaballGenerator()
for leafQuad in leaves:
pos = self.toBlenderVector(leafQuad.pos)
mball = mballGenerator.addMetaball()
mball.co = pos
mball.radius = self.metaBallRadius
mballGenerator.mballCurrentObject.parent = ob # The current mball element's object is in this variable
scene.objects.active = mballGenerator.mballCurrentObject # Select the object as active
scene.objects.active.select = True # Must force selection
bpy.ops.object.convert(target='MESH', keep_original=False)
if len(bpy.context.object.data.vertices) > 0:
# Set the foliage material
foliage_material_name = ""
if foliage_material_name != "":
mat = bpy.data.materials[foliage_material_name]
scene.objects.active.data.materials.append(mat)
# We also unwrap the resulting mesh for texture mapping
bpy.ops.object.mode_set(mode='EDIT')
bpy.ops.mesh.faces_shade_flat() # Flat shaded
bpy.ops.mesh.select_all(action='SELECT')
bpy.ops.uv.unwrap()
bpy.ops.object.mode_set(mode='OBJECT')
if self.showSkin:
if self.limitDrawing and len(verts) > MAX_SKINNABLE_VERTS:
if overridenContext is None: context.area.header_text_set("WARNING: Mesh skinning blocked due to large number of vertices: " + str(len(verts)))
else: context['area'].header_text_set("WARNING: Mesh skinning blocked due to large number of vertices: " + str(len(verts)))
print("WARNING: Mesh skinning blocked due to large number of vertices: " + str(len(verts)))
return
else:
if self.verbose: print("Turtle renderer: Applying skin modifier")
current_modifier_index = 0
# Apply a skin modifier
# Note that this will create A LOT of vertices (simplification will help later)
scene.objects.active = ob # Select the object as active
bpy.ops.object.modifier_add(type='SKIN')
scene.objects.active.modifiers[current_modifier_index].use_smooth_shade=True
current_modifier_index+=1
verts = scene.objects.active.data.vertices
skinverts = scene.objects.active.data.skin_vertices[0].data
# Set the radius of the branches
if self.verbose: print("Turtle renderer: Setting radius")
for i,v in enumerate(skinverts):
r = radii[i]
"""
height = verts[i].co[2]
if height > 0: r = 1.0/height
else: r = 1.0
if (r < 0.1): r = 0.1
if (r > 1.0): r = 1.0
#print(r)
"""
v.radius = [r* 0.01, r* 0.01] # r = 1 -> small radius
if not self.fastSkin:
if self.verbose: print("Turtle renderer: Making it nicer")
# Additional modifications to make the mesh nicer
# Add a SubSurf modifier to obtain a smoother mesh
bpy.ops.object.modifier_add(type='SUBSURF')
scene.objects.active.modifiers[current_modifier_index].levels = 1
current_modifier_index+=1
# Edge Split makes for a more cartoony appearance
bpy.ops.object.modifier_add(type='EDGE_SPLIT')
current_modifier_index+=1
#bpy.ops.object.modifier_apply(modifier="EdgeSplit"); current_modifier_index-=1
# Simplification
#if not self.fastSkin:
if self.simplify:
if self.verbose: print("Turtle renderer: Simplification")
bpy.ops.object.modifier_add(type='DECIMATE')
scene.objects.active.modifiers[current_modifier_index].ratio=0.1
scene.objects.active.modifiers[current_modifier_index].decimate_type = 'DISSOLVE' # We use planar decimation, more cartoonish
scene.objects.active.modifiers[current_modifier_index].angle_limit = 5.0/180.0*3.14159 # 5 degrees is enough
current_modifier_index+=1
#bpy.ops.object.modifier_apply(modifier="Decimate"); current_modifier_index-=1
# We will apply modifier to obtain the final mesh.
self.applyModifiers = True
if self.applyModifiers:
if self.verbose: print("Turtle renderer: Apply modifiers")
bpy.ops.object.mode_set(mode='OBJECT')
bpy.ops.object.modifier_apply(modifier="Skin")
if not self.fastSkin: bpy.ops.object.modifier_apply(modifier="Subsurf")
if not self.fastSkin: bpy.ops.object.modifier_apply(modifier="EdgeSplit")
if self.simplify: bpy.ops.object.modifier_apply(modifier="Decimate")
if self.simplify:
# We can also simplify further by removing doubles
bpy.ops.object.mode_set(mode='EDIT')
bpy.ops.mesh.select_all()
bpy.ops.mesh.remove_doubles() # We use the default threshold (0.0001). We can put here: threshold=0.01 if we prefer.
bpy.ops.mesh.normals_make_consistent(inside=False)
bpy.ops.object.mode_set(mode='OBJECT')
if self.verbose: print("Turtle renderer: Trunk material")
# Set the trunk material
trunk_material_name = DetailsHandler.nameOfMaterial(self.trunk_material_index)
mat = bpy.data.materials[trunk_material_name]
scene.objects.active.data.materials.append(mat)
scene.objects.active = scene.objects.active #mballGenerator.mballCurrentObject # Select the object as active
scene.objects.active.select = True # Must force selection
"""