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# ##### BEGIN GPL LICENSE BLOCK #####
#
# This program is free software; you can redistribute it and/or
# modify it under the terms of the GNU General Public License
# as published by the Free Software Foundation; either version 2
# of the License, or (at your option) any later version.
#
# This program is distributed in the hope that it will be useful,
# but WITHOUT ANY WARRANTY; without even the implied warranty of
# MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
# GNU General Public License for more details.
#
# You should have received a copy of the GNU General Public License
# along with this program; if not, write to the Free Software Foundation,
# Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301, USA.
#
# ##### END GPL LICENSE BLOCK #####
from object_print3d_utils import operators as ops
RENDER_OBTYPES = ['MESH', 'CURVE', 'SURFACE', 'METABALL', 'TEXT']
def check_material(props, mat):
e = bpy.context.scene.render.engine
shaders = []
textures = []
props.texture_count = 0
props.node_count = 0
props.total_megapixels = 0
props.is_procedural = True
if e == 'CYCLES':
if mat.node_tree is not None:
checknodes = mat.node_tree.nodes[:]
while len(checknodes) > 0:
n = checknodes.pop()
if n.type == 'GROUP': # dive deeper here.
checknodes.extend(n.node_tree.nodes)
if len(n.outputs) == 1 and n.outputs[0].type == 'SHADER' and n.type != 'GROUP':
if n.type not in shaders:
shaders.append(n.type)
if n.type == 'TEX_IMAGE':
if n.image is not None:
mattype = 'image based'
props.is_procedural = False
if n.image not in textures:
textures.append(n.image)
props.texture_count += 1
props.total_megapixels += (n.image.size[0] * n.image.size[1])
maxres = max(n.image.size[0], n.image.size[1])
props.texture_resolution_max = max(props.texture_resolution_max, maxres)
minres = min(n.image.size[0], n.image.size[1])
if props.texture_resolution_min == 0:
props.texture_resolution_min = minres
else:
props.texture_resolution_min = min(props.texture_resolution_min, minres)
props.shaders = ''
for s in shaders:
if s.startswith('BSDF_'):
s = s[5:]
s = s.lower().replace('_', ' ')
props.shaders += (s + ', ')
def check_render_engine(props, obs):
ob = obs[0]
m = None
e = bpy.context.scene.render.engine
mattype = None
materials = []
shaders = []
props.texture_count = 0
props.total_megapixels = 0
props.node_count = 0
for ob in obs: # TODO , this is duplicated here for other engines, otherwise this should be more clever.
for ms in ob.material_slots:
if ms.material is not None:
m = ms.material
if m.name not in materials:
materials.append(m.name)
if ob.type == 'MESH' and len(ob.data.uv_layers) > 0:
props.uv = True
if e == 'BLENDER_RENDER':
props.engine = 'BLENDER_INTERNAL'
elif e == 'CYCLES':
props.engine = 'CYCLES'
for mname in materials:
m = bpy.data.materials[mname]
if m is not None and m.node_tree is not None:
checknodes = m.node_tree.nodes[:]
while len(checknodes) > 0:
n = checknodes.pop()
if n.type == 'GROUP': # dive deeper here.
checknodes.extend(n.node_tree.nodes)
if len(n.outputs) == 1 and n.outputs[0].type == 'SHADER' and n.type != 'GROUP':
if n.type not in shaders:
shaders.append(n.type)
if n.type == 'TEX_IMAGE':
if n.image is not None and n.image not in textures:
props.is_procedural = False
mattype = 'image based'
textures.append(n.image)
props.texture_count += 1
props.total_megapixels += (n.image.size[0] * n.image.size[1])
maxres = max(n.image.size[0], n.image.size[1])
props.texture_resolution_max = max(props.texture_resolution_max, maxres)
minres = min(n.image.size[0], n.image.size[1])
if props.texture_resolution_min == 0:
props.texture_resolution_min = minres
else:
props.texture_resolution_min = min(props.texture_resolution_min, minres)
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# if mattype == None:
# mattype = 'procedural'
# tags['material type'] = mattype
elif e == 'BLENDER_GAME':
props.engine = 'BLENDER_GAME'
# write to object properties.
props.materials = ''
props.shaders = ''
for m in materials:
props.materials += (m + ', ')
for s in shaders:
if s.startswith('BSDF_'):
s = s[5:]
s = s.lower()
s = s.replace('_', ' ')
props.shaders += (s + ', ')
def check_printable(props, obs):
if len(obs) == 1:
check_cls = (
ops.Print3DCheckSolid,
ops.Print3DCheckIntersections,
ops.Print3DCheckDegenerate,
ops.Print3DCheckDistorted,
ops.Print3DCheckThick,
ops.Print3DCheckSharp,
# ops.Print3DCheckOverhang,
)
ob = obs[0]
info = []
for cls in check_cls:
cls.main_check(ob, info)
printable = True
for item in info:
passed = item[0].endswith(' 0')
if not passed:
print(item[0])
printable = False
props.printable_3d = printable
def check_rig(props, obs):
for ob in obs:
if ob.type == 'ARMATURE':
props.rig = True
def check_anim(props, obs):
animated = False
for ob in obs:
if ob.animation_data is not None:
a = ob.animation_data.action
if a is not None:
for c in a.fcurves:
if len(c.keyframe_points) > 1:
animated = True
# c.keyframe_points.remove(c.keyframe_points[0])
if animated:
props.animated = True
def check_meshprops(props, obs):
''' checks polycount, manifold, mesh parts (not implemented)'''
fc = 0
fcr = 0
tris = 0
quads = 0
ngons = 0
vc = 0
edges_counts = {}
manifold = True
for ob in obs:
if ob.type == 'MESH' or ob.type == 'CURVE':
# depsgraph = bpy.context.evaluated_depsgraph_get()
# object_eval = ob.evaluated_get(depsgraph)
mesh = ob.to_mesh()
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else:
mesh = ob.data
fco = len(mesh.polygons)
fc += fco
vc += len(mesh.vertices)
fcor = fco
for f in mesh.polygons:
# face sides counter
if len(f.vertices) == 3:
tris += 1
elif len(f.vertices) == 4:
quads += 1
elif len(f.vertices) > 4:
ngons += 1
# manifold counter
for i, v in enumerate(f.vertices):
v1 = f.vertices[i - 1]
e = (min(v, v1), max(v, v1))
edges_counts[e] = edges_counts.get(e, 0) + 1
# all meshes have to be manifold for this to work.
manifold = manifold and not any(i in edges_counts.values() for i in [0, 1, 3, 4])
for m in ob.modifiers:
if m.type == 'SUBSURF' or m.type == 'MULTIRES':
fcor *= 4 ** m.render_levels
if m.type == 'SOLIDIFY': # this is rough estimate, not to waste time with evaluating all nonmanifold edges
fcor *= 2
if m.type == 'ARRAY':
fcor *= m.count
if m.type == 'MIRROR':
fcor *= 2
if m.type == 'DECIMATE':
fcor *= m.ratio
fcr += fcor
if ob_eval:
ob_eval.to_mesh_clear()
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# write out props
props.face_count = fc
props.face_count_render = fcr
# print(tris, quads, ngons)
if quads > 0 and tris == 0 and ngons == 0:
props.mesh_poly_type = 'QUAD'
elif quads > tris and quads > ngons:
props.mesh_poly_type = 'QUAD_DOMINANT'
elif tris > quads and tris > quads:
props.mesh_poly_type = 'TRI_DOMINANT'
elif quads == 0 and tris > 0 and ngons == 0:
props.mesh_poly_type = 'TRI'
elif ngons > quads and ngons > tris:
props.mesh_poly_type = 'NGON'
else:
props.mesh_poly_type = 'OTHER'
props.manifold = manifold
def countObs(props, obs):
ob_types = {}
count = len(obs)
for ob in obs:
otype = ob.type.lower()
ob_types[otype] = ob_types.get(otype, 0) + 1
props.object_count = count
def check_modifiers(props, obs):
# modif_mapping = {
# }
modifiers = []
for ob in obs:
for m in ob.modifiers:
mtype = m.type
mtype = mtype.replace('_', ' ')
mtype = mtype.lower()
# mtype = mtype.capitalize()
if mtype not in modifiers:
modifiers.append(mtype)
if m.type == 'SMOKE':
if m.smoke_type == 'FLOW':
smt = m.flow_settings.smoke_flow_type
if smt == 'BOTH' or smt == 'FIRE':
modifiers.append('fire')
# for mt in modifiers:
effectmodifiers = ['soft body', 'fluid simulation', 'particle system', 'collision', 'smoke', 'cloth',
'dynamic paint']
for m in modifiers:
if m in effectmodifiers:
props.simulation = True
if ob.rigid_body is not None:
props.simulation = True
modifiers.append('rigid body')
finalstr = ''
for m in modifiers:
finalstr += m
finalstr += ','
props.modifiers = finalstr
def get_autotags():
""" call all analysis functions """
ui = bpy.context.scene.blenderkitUI
ob = utils.get_active_model()
obs = utils.get_hierarchy(ob)
props = ob.blenderkit
if props.name == "":
props.name = ob.name
# reset some properties here, because they might not get re-filled at all when they aren't needed anymore.
props.texture_resolution_max = 0
props.texture_resolution_min = 0
# disabled printing checking, some 3d print addon bug.
# check_printable( props, obs)
check_render_engine(props, obs)
dim, bbox_min, bbox_max = utils.get_dimensions(obs)
props.dimensions = dim
props.bbox_min = bbox_min
props.bbox_max = bbox_max
check_rig(props, obs)
check_anim(props, obs)
check_meshprops(props, obs)
check_modifiers(props, obs)
countObs(props, obs)
elif ui.asset_type == 'MATERIAL':
# reset some properties here, because they might not get re-filled at all when they aren't needed anymore.
mat = utils.get_active_asset()
props = mat.blenderkit
props.texture_resolution_max = 0
props.texture_resolution_min = 0
check_material(props, mat)
elif ui.asset_type == 'HDR':
# reset some properties here, because they might not get re-filled at all when they aren't needed anymore.
hdr = utils.get_active_asset()
props = hdr.blenderkit
props.texture_resolution_max = max(hdr.size[0],hdr.size[1])
class AutoFillTags(bpy.types.Operator):
"""Fill tags for asset. Now run before upload, no need to interact from user side."""
bl_idname = "object.blenderkit_auto_tags"
bl_label = "Generate Auto Tags for BlenderKit"
def execute(self, context):
get_autotags()
return {'FINISHED'}
def register_asset_inspector():
bpy.utils.register_class(AutoFillTags)
def unregister_asset_inspector():
bpy.utils.unregister_class(AutoFillTags)
if __name__ == "__main__":
register()