return big_strip
- def export(self, context, out_file, obj=None, progress=None):
- if obj is None:
- obj = context.active_object
+ def export_to_file(self, context, out_fn):
+ obj = context.active_object
- from .mesh import create_mesh_from_object
from .util import Progress
- if not progress:
- progress = Progress(self.show_progress and context)
- progress.push_task("", 0.0, 0.9)
+ progress = Progress(self.show_progress and context)
+ progress.push_task("", 0.0, 0.95)
+ statements = self.export_mesh(context, obj, progress)
- mesh = create_mesh_from_object(context, obj, progress)
+ with open(out_fn, "w") as out_file:
+ for s in statements:
+ s.write_to_file(out_file)
- strips = []
- loose = mesh.faces
- if self.use_strips:
- strips = mesh.vertex_sequence
- if self.use_degen_tris:
- strips = [self.join_strips(strips)]
- loose = []
+ def export_mesh(self, context, mesh_or_obj, progress):
+ from .mesh import Mesh, create_mesh_from_object
- progress.set_task("Writing file", 0.9, 1.0)
+ if type(mesh_or_obj)==Mesh:
+ mesh = mesh_or_obj
+ else:
+ progress.push_task("", 0.0, 0.9)
+ mesh = create_mesh_from_object(context, mesh_or_obj, progress)
+ progress.pop_task()
- from .outfile import open_output
- out_file = open_output(out_file)
+ from .datafile import Statement, Token
- fmt = ["NORMAL3"]
+ statements = []
+
+ st = Statement("vertices", Token("NORMAL3"))
if mesh.uv_layers:
for u in mesh.uv_layers:
size = str(len(u.uvs[0]))
if u.unit==0:
- fmt.append("TEXCOORD"+size)
+ st.append(Token("TEXCOORD"+size))
else:
- fmt.append("TEXCOORD%s_%d"%(size, u.unit))
+ st.append(Token("TEXCOORD{}_{}".format(size, u.unit)))
if mesh.tbn_vecs:
- fmt += ["TANGENT3", "BINORMAL3"]
+ st.append(Token("TANGENT3"))
+ st.append(Token("BINORMAL3"))
if mesh.vertex_groups:
- fmt.append("ATTRIB%d_5"%(mesh.max_groups_per_vertex*2))
- fmt.append("VERTEX3")
- out_file.begin("vertices", *fmt)
+ st.append(Token("ATTRIB{}_5".format(mesh.max_groups_per_vertex*2)))
+ st.append(Token("VERTEX3"))
+
normal = None
- uvs = {}
+ uvs = [None]*len(mesh.uv_layers)
tan = None
bino = None
group = None
for v in mesh.vertices:
if v.normal!=normal:
- out_file.write("normal3", *v.normal)
+ st.sub.append(Statement("normal", *v.normal))
normal = v.normal
for i, u in enumerate(mesh.uv_layers):
- if v.uvs[i]!=uvs.get(i):
- size = str(len(v.uvs[i]))
+ if v.uvs[i]!=uvs[i]:
if u.unit==0:
- out_file.write("texcoord"+size, *v.uvs[i])
+ st.sub.append(Statement("texcoord", *v.uvs[i]))
else:
- out_file.write("multitexcoord"+size, u.unit, *v.uvs[i])
+ st.sub.append(Statement("multitexcoord", u.unit, *v.uvs[i]))
uvs[i] = v.uvs[i]
if mesh.tbn_vecs:
if v.tan!=tan:
- out_file.write("tangent3", *v.tan)
+ st.sub.append(Statement("tangent", *v.tan))
tan = v.tan
if v.bino!=bino:
- out_file.write("binormal3", *v.bino)
+ st.sub.append(Statement("binormal", *v.bino))
bino = v.bino
if mesh.vertex_groups:
group_attr = [(group_index_map[g.group], g.weight*v.group_weight_scale) for g in v.groups[:mesh.max_groups_per_vertex]]
group_attr.append((0, 0.0))
group_attr = list(itertools.chain(*group_attr))
if group_attr!=group:
- out_file.write("attrib%d"%len(group_attr), 5, *group_attr)
+ st.sub.append(Statement("attrib", 5, *group_attr))
group = group_attr
- out_file.write("vertex3", *v.co)
- out_file.end()
- for s in strips:
- out_file.begin("batch", "TRIANGLE_STRIP")
- indices = []
- n = 0
- for v in s:
- indices.append(v.index)
- if len(indices)>=32:
- out_file.write("indices", *indices)
- indices = []
- if indices:
- out_file.write("indices", *indices)
- out_file.end()
-
- if loose:
- out_file.begin("batch", "TRIANGLES")
- for f in loose:
- for i in range(2, len(f.vertices)):
- out_file.write("indices", f.vertices[0].index, f.vertices[i-1].index, f.vertices[i].index)
- out_file.end()
+ st.sub.append(Statement("vertex", *v.co))
+
+ statements.append(st)
+
+ if self.use_strips:
+ strips = mesh.vertex_sequence
+ if self.use_degen_tris:
+ strips = [self.join_strips(strips)]
+
+ for s in strips:
+ st = Statement("batch", Token("TRIANGLE_STRIP"))
+ for i in range(0, len(s), 32):
+ st.sub.append(Statement("indices", *(v.index for v in s[i:i+32])))
+ statements.append(st)
+ else:
+ st = Statement("batch", "TRIANGLES")
+ for f in mesh.faces:
+ st.sub.append(Statement("indices", *(v.index for v in f.vertices)))
+ statements.append(st)
if mesh.lines:
- out_file.begin("batch", "LINES")
+ st = Statement("batch", "LINES")
for l in mesh.lines:
- out_file.write("indices", l.vertices[0].index, l.vertices[1].index)
- out_file.end()
+ st.sub.append(Statement("indices", *(v.index for v in l.vertices)))
+ statements.append(st)
if mesh.winding_test:
- out_file.write("winding", "COUNTERCLOCKWISE")
+ statements.append(Statement("winding", "COUNTERCLOCKWISE"))
- progress.pop_task()
+ progress.set_progress(1.0)
- return mesh
+ return statements
else:
return i.name
-def external_name(out_file, ext, index):
- path, base = os.path.split(out_file.filename)
- base = os.path.splitext(base)[0]
- if index>0:
- base += "_lod{}".format(index)
- return path, base+ext
-
class ObjectExporter:
def __init__(self):
+ self.show_progress = True
+ self.use_strips = True
+ self.use_degen_tris = False
self.textures = "REF"
self.separate_mesh = False
self.separate_tech = False
self.shared_resources = True
self.export_lods = True
- def export(self, context, out_file, obj=None, progress=None):
- if obj is None:
- obj = context.active_object
-
- lods = [obj]
- for c in obj.children:
- if c.lod_for_parent:
- if c.lod_index>=len(lods):
- lods += [None]*(c.lod_index+1-len(lods))
- lods[c.lod_index] = c
-
- from .outfile import open_output
- out_file = open_output(out_file)
-
+ def compute_bounding_sphere(self, obj):
p1 = max(((v.co, v.co.length) for v in obj.data.vertices), key=lambda x:x[1])[0]
p2 = max(((v.co, (v.co-p1).length) for v in obj.data.vertices), key=lambda x:x[1])[0]
center = (p1+p2)/2
center += d*(1-radius/d.length)/2
radius = (radius+d.length)/2
- out_file.write("bounding_sphere_hint", center[0], center[1], center[2], radius)
+ return center, radius
+
+ def make_external_name(self, base_name, resource_name, ext, index):
+ if self.shared_resources:
+ return resource_name+ext
+ elif lod_index>0:
+ return "{}_lod{}{}".format(base_name, lod_index, ext)
+ else:
+ return base_name+ext
+
+ def create_mesh_exporter(self):
+ from .export_mesh import MeshExporter
+ mesh_export = MeshExporter()
+ mesh_export.use_strips = self.use_strips
+ mesh_export.use_degen_tris = self.use_degen_tris
+ return mesh_export
+
+ def export_to_file(self, context, out_fn):
+ obj = context.active_object
+
+ from .util import Progress
+ progress = Progress(self.show_progress and context)
+
+ path, base = os.path.split(out_fn)
+ base = os.path.splitext(base)[0]
+
+ meshes = self.export_object_meshes(context, obj, progress, base_name=base)
+ if self.separate_mesh:
+ for name, st in meshes.items():
+ with open(os.path.join(path, name), "w") as out_file:
+ for s in st:
+ s.write_to_file(out_file)
+
+ if self.separate_tech:
+ lods = [obj]
+ if self.export_lods:
+ lods += [c for c in obj.children if c.lod_for_parent]
+
+ for l in lods:
+ lod_index = l.lod_index if l.lod_for_parent else 0
+
+ material = None
+ if obj.material_slots:
+ material = obj.material_slots[0].material
+
+ if not l.technique:
+ tech_name = self.make_external_name(base, material.name, ".tech", lod_index)
+ st = self.export_object_technique(l, base_name=base)
+ with open(os.path.join(path, tech_name), "w") as out_file:
+ for s in st:
+ s.write_to_file(out_file)
+ elif material and l.override_material:
+ mat_name = self.make_external_name(base, material.name, ".mat", lod_index)
+ st = self.export_material(material)
+ with open(os.path.join(path, mat_name), "w") as out_file:
+ for s in st:
+ s.write_to_file(out_file)
+
+ statements = self.export_object(context, obj, progress, meshes=meshes, base_name=base)
+
+ with open(out_fn, "w") as out_file:
+ for s in statements:
+ s.write_to_file(out_file)
+
+ def export_object_meshes(self, context, obj, progress, *, base_name=None):
+ if base_name is None:
+ base_name = obj.name
+
+ lods = [obj]
+ if self.export_lods:
+ lods += [c for c in obj.children if c.lod_for_parent]
+
+ from .mesh import create_mesh_from_object
+ mesh_export = self.create_mesh_exporter()
+ meshes = {}
+
+ for i, l in enumerate(lods):
+ lod_index = l.lod_index if l.lod_for_parent else 0
+ progress.push_task_slice("LOD {}".format(lod_index), i, len(lods))
+
+ mesh_name = self.make_external_name(base_name, l.data.name, ".mesh", lod_index)
+ if mesh_name not in meshes:
+ mesh = create_mesh_from_object(context, l, progress)
+ meshes[mesh_name] = mesh_export.export_mesh(context, mesh, progress)
+
+ progress.pop_task()
+
+ return meshes
+
+ def export_object(self, context, obj, progress, *, meshes=None, base_name=None):
+ if base_name is None:
+ base_name = obj.name
+
+ if meshes is None:
+ meshes = self.export_object_meshes(context, obj, progress, base_name=base_name)
+
+ lods = [obj]
+ for c in obj.children:
+ if c.lod_for_parent:
+ if c.lod_index>=len(lods):
+ lods += [None]*(c.lod_index+1-len(lods))
+ lods[c.lod_index] = c
+
+ from .datafile import Statement
+ statements = []
+
+ center, radius = self.compute_bounding_sphere(obj)
+ statements.append(Statement("bounding_sphere_hint", *center, radius))
prev_mesh = None
prev_tech = (None, None)
for i, l in enumerate(lods):
- if i>0:
- out_file.begin("level_of_detail", i)
+ lod_st = []
+
+ if l.data.name!=prev_mesh:
+ mesh_name = self.make_external_name(base_name, l.data.name, ".mesh", i)
+ if self.separate_mesh:
+ lod_st.append(Statement("mesh", mesh_name))
+ else:
+ st = Statement("mesh")
+ st.sub = meshes[mesh_name]
+ lod_st.append(st)
- if i==0 or l.data.name!=prev_mesh:
- mesh = self.export_object_mesh(context, out_file, l, progress)
prev_mesh = l.data.name
- same_tech = True
- mat = None
+ mat_name = None
if l.material_slots and l.material_slots[0].material:
- mat = l.material_slots[0].material.name
- if mat!=prev_tech[1]:
- same_tech = False
- if l.technique!=prev_tech[0]:
- same_tech = False
- if i==0 or not same_tech:
- self.export_object_technique(l, out_file, i)
- prev_tech = (l.technique, mat)
+ mat_name = l.material_slots[0].material.name
- if i>0:
- out_file.end()
+ tech = (l.technique, mat_name)
+ if tech!=prev_tech:
+ tech_name = self.make_external_name(base_name, mat_name or l.name, ".tech", i)
+ if l.technique:
+ if l.inherit_tech:
+ st = Statement("technique")
+ st.sub = self.export_object_technique(l, base_name=base_name)
+ lod_st.append(st)
+ else:
+ lod_st.append(Statement("technique", l.technique))
+ elif self.separate_tech:
+ lod_st.append(Statement("technique", tech_name))
+ else:
+ st = Statement("technique")
+ st.sub = self.export_object_technique(l, base_name=base_name)
+ lod_st.append(st)
- def export_object_mesh(self, context, out_file, obj, progress):
- from .export_mesh import MeshExporter
- mesh_export = MeshExporter()
- for k, v in self.__dict__.items():
- setattr(mesh_export, k, v)
+ prev_tech = tech
- lod_index = 0
- if obj.lod_for_parent:
- lod_index = obj.lod_index
+ if i>0:
+ st = Statement("level_of_detail", i)
+ st.sub = lod_st
+ statements.append(st)
+ else:
+ statements += lod_st
- if self.separate_mesh:
- from .outfile import open_output
- path, name = external_name(out_file, ".mesh", lod_index)
- if self.shared_resources:
- name = obj.data.name+".mesh"
- mesh_out = open_output(os.path.join(path, name))
- mesh = mesh_export.export(context, mesh_out, obj, progress)
- out_file.write("mesh", '"{}"'.format(name))
- else:
- out_file.begin("mesh")
- mesh = mesh_export.export(context, out_file, obj, progress)
- out_file.end()
+ progress.set_progress(1.0)
- return mesh
+ return statements
+
+ def export_object_technique(self, obj, *, base_name=None):
+ if base_name is None:
+ base_name = obj.name
- def export_object_technique(self, obj, out_file, lod_index):
material = None
if obj.material_slots:
material = obj.material_slots[0].material
- from .outfile import open_output
- path, name = external_name(out_file, ".tech", lod_index)
+ from .datafile import Statement, Token
+ statements = []
if obj.technique:
- if obj.inherit_tech and material and (obj.override_material or material.texture_slots):
- out_file.begin("technique")
- out_file.begin("inherit", '"{}"'.format(obj.technique))
+ if not obj.inherit_tech:
+ return []
+
+ st = Statement("inherit", obj.technique)
+ if material:
for slot in material.texture_slots:
if slot and slot.texture.type=="IMAGE":
name = image_name(slot.texture.image)
if slot.use_map_color_diffuse:
- out_file.write("texture", '"diffuse_map"', '"{}"'.format(name))
+ st.sub.append(Statement("texture", "diffuse_map", name))
elif slot.use_map_normal:
- out_file.write("texture", '"normal_map"', '"{}"'.format(name))
+ st.sub.append(Statement("texture", "normal_map", name))
if obj.override_material:
- mat_name = material.name+".mat"
- mat_out = open_output(os.path.join(path, mat_name))
- self.export_material(material, mat_out)
- out_file.write("material", '"surface"', '"{}"'.format(mat_name))
- out_file.end()
- out_file.end()
- else:
- out_file.write("technique", '"{}"'.format(obj.technique))
- elif self.separate_tech:
- if self.shared_resources and material:
- name = material.name+".tech"
- tech_out = open_output(os.path.join(path, name))
- self.export_technique_definition(material, tech_out)
- out_file.write("technique", '"{}"'.format(name))
- else:
- out_file.begin("technique")
- self.export_technique_definition(material, out_file)
- out_file.end()
+ mat_name = self.make_external_name(base_name, material.name, ".mat", obj.lod_index)
+ st.sub.append(Statement("material", "surface", mat_name))
+ statements.append(st)
- def export_technique_definition(self, material, out_file):
- out_file.begin("pass", '""')
+ return statements
+
+ pass_st = Statement("pass", "")
if material:
- out_file.begin("material")
- self.export_material(material, out_file)
- out_file.end()
+ st = Statement("material")
+ st.sub = self.export_material(material)
+ pass_st.sub.append(st)
if self.textures!="NONE":
diffuse_tex = None
break
if diffuse_tex:
- out_file.begin("texunit", 0)
+ st = Statement("texunit", 0)
if self.textures=="INLINE":
- out_file.begin("texture2d")
- out_file.write("min_filter", "LINEAR")
- out_file.write("storage", "RGBA", diffuse_tex.image.size[0], diffuse_tex.image.size[1])
- texdata = '"'
- for p in diffuse_tex.image.pixels:
+ ss = Statement("texture2d")
+ ss.sub.append(Statement("min_filter", Token("LINEAR")))
+ ss.sub.append(Statement("storage", Token("RGBA"), tex.image.size[0], tex.image.size[1]))
+ texdata = ""
+ for p in tex.image.pixels:
texdata += "\\x%02X"%int(p*255)
- texdata += '"'
- out_file.write("raw_data", texdata)
- out_file.end()
- else:
- out_file.write("texture", '"%s"'%image_name(diffuse_tex.image))
- out_file.end()
+ ss.sub.append(Statement("raw_data", texdata))
+ st.sub.append(ss)
+ elif tex.image:
+ st.sub.append(Statement("texture", image_name(tex.image)))
+ pass_st.sub.append(st)
+ statements.append(pass_st)
- out_file.end()
+ return statements
- def export_material(self, mat, out_file):
- cm = get_colormap(mat.srgb_colors)
- if any((s and s.use_map_color_diffuse) for s in mat.texture_slots):
- out_file.write("diffuse", 1.0, 1.0, 1.0, 1.0)
- amb = cm(mat.ambient)
- out_file.write("ambient", amb, amb, amb, 1.0)
+ def export_material(self, material):
+ from .datafile import Statement
+ statements = []
+
+ cm = get_colormap(material.srgb_colors)
+ if any(s.use_map_color_diffuse for s in material.texture_slots if s):
+ statements.append(Statement("diffuse", 1.0, 1.0, 1.0, 1.0))
+ amb = cm(material.ambient)
+ statements.append(Statement("ambient", amb, amb, amb, 1.0))
else:
- diff = mat.diffuse_color*mat.diffuse_intensity
- out_file.write("diffuse", cm(diff.r), cm(diff.g), cm(diff.b), 1.0)
- amb = diff*mat.ambient
- out_file.write("ambient", cm(amb.r), cm(amb.g), cm(amb.b), 1.0)
- spec = mat.specular_color*mat.specular_intensity
- out_file.write("specular", spec.r, spec.g, spec.b, 1.0)
- out_file.write("shininess", mat.specular_hardness)
+ diff = material.diffuse_color*material.diffuse_intensity
+ statements.append(Statement("diffuse", cm(diff.r), cm(diff.g), cm(diff.b), 1.0))
+ amb = diff*material.ambient
+ statements.append(Statement("ambient", cm(amb.r), cm(amb.g), cm(amb.b), 1.0))
+ spec = material.specular_color*material.specular_intensity
+ statements.append(Statement("specular", cm(spec.r), cm(spec.g), cm(spec.g), 1.0))
+ statements.append(Statement("shininess", material.specular_hardness))
+
+ return statements
self.resource_collection = True
self.show_progress = True
- def export(self, context, out_file):
- objs = context.selected_objects
- objs = [o for o in objs if o.type=="MESH" and (not o.compound or o.parent not in objs) and not o.lod_for_parent]
+ def export_to_file(self, context, out_fn):
+ objs = [o for o in context.selected_objects if o.type=="MESH" and not o.lod_for_parent]
+ objs = [o for o in objs if (not o.compound or o.parent not in objs)]
- from .outfile import open_output
- out_file = open_output(out_file)
-
- path, base = os.path.split(out_file.filename)
+ path, base = os.path.split(out_fn)
base, ext = os.path.splitext(base)
from .export_object import ObjectExporter
from .util import Progress
progress = Progress(self.show_progress and context)
- if self.resource_collection:
- res_out = open_output(os.path.join(path, base+"_resources.mdc"))
+ from .export_object import ObjectExporter
+ object_export = ObjectExporter()
- # TODO Export techniques as separate items in the collection
- for i, o in enumerate(unique_objects):
- res_out.begin("object", '"{}.object"'.format(o.name))
- progress.push_task_slice(o.name, i, len(objs))
- object_export.export(context, res_out, o, progress)
- progress.pop_task()
- res_out.end()
+ from .datafile import Statement
+ if self.resource_collection:
+ with open(os.path.join(path, base+"_resources.mdc"), "w") as res_out:
+ for i, o in enumerate(unique_objects):
+ progress.push_task_slice(o.name, i, len(unique_objects))
+ st = Statement("object", "{}.object".format(o.name))
+ st.sub = object_export.export_object(context, o, progress)
+ st.write_to_file(res_out)
+ progress.pop_task()
else:
- object_export.separate_mesh = True
- object_export.separate_tech = True
res_dir = os.path.join(path, base+"_resources")
if not os.path.exists(res_dir):
os.makedirs(res_dir)
for i, o in enumerate(unique_objects):
- obj_out = open_output(os.path.join(res_dir, o.name+".object"))
- progress.push_task_slice(o.name, i, len(objs))
- object_export.export(context, obj_out, o, progress)
+ progress.push_task_slice(o.name, i, len(unique_objects))
+ st = object_export.export_object(context, o, progress)
+ with open(os.path.join(res_dir, o.name+".object"), "w") as obj_out:
+ for s in st:
+ s.write_to_file(obj_out)
progress.pop_task()
+ statements = self.export_scene(context, objs, progress, prototypes=object_prototypes)
+
+ with open(out_fn, "w") as out_file:
+ for s in statements:
+ s.write_to_file(out_file)
+
+ def export_scene(self, context, objs, progress, *, prototypes=None):
+ from .datafile import Statement
+ statements = []
+
for o in objs:
- out_file.begin("object", '"{}.object"'.format(object_prototypes[o.name].name))
+ st = Statement("object", "{}.object".format(prototypes[o.name].name))
# XXX Parent relationships screw up the location and rotation
- out_file.write("position", o.location[0], o.location[1], o.location[2])
+ st.sub.append(Statement("position", o.location[0], o.location[1], o.location[2]))
if o.rotation_mode=="AXIS_ANGLE":
angle = o.rotation_axis_angle[0]
axis = o.rotation_axis_angle[1:]
q = o.rotation_euler.to_quaternion()
angle = q.angle
axis = q.axis
- out_file.write("rotation", angle*180/math.pi, axis[0], axis[1], axis[2])
- out_file.write("scale", o.scale[0], o.scale[1], o.scale[2])
- out_file.end()
+ st.sub.append(Statement("rotation", angle*180/math.pi, axis[0], axis[1], axis[2]))
+ st.sub.append(Statement("scale", o.scale[0], o.scale[1], o.scale[2]))
+ statements.append(st)
+
+ progress.set_progress(1.0)
+
+ return statements
projects / libs / gl.git / commitdiff