def __init__(self, mesh):
guicommon.Object.__init__(self, mesh)
self.hasWarpTargets = False
self.MIN_AGE = 1.0
self.MAX_AGE = 90.0
self.MID_AGE = 25.0
self.mesh.setCameraProjection(0)
self.mesh.setPickable(True)
self.setShadeless(0)
self.setCull(1)
self.meshData = self.mesh
self.maskFaces()
self._resetProxies()
self.targetsDetailStack = {} # All details targets applied, with their values
self.symmetryModeEnabled = False
self.setDefaultValues()
self.bodyZones = ['l-eye','r-eye', 'jaw', 'nose', 'mouth', 'head', 'neck', 'torso', 'hip', 'pelvis', 'r-upperarm', 'l-upperarm', 'r-lowerarm', 'l-lowerarm', 'l-hand',
'r-hand', 'r-upperleg', 'l-upperleg', 'r-lowerleg', 'l-lowerleg', 'l-foot', 'r-foot', 'ear']
self.material = material.fromFile(getSysDataPath('skins/default.mhmat'))
self._defaultMaterial = material.Material().copyFrom(self.material)
self._modifiers = dict()
self._modifier_varMapping = dict() # Maps macro variable to the modifier group that modifies it
self._modifier_dependencyMapping = dict() # Maps a macro variable to all the modifiers that depend on it
self._modifier_groups = dict()
self._modifier_type_cache = dict()
self.blockEthnicUpdates = False # When set to True, changes to race are not normalized automatically
animation.AnimatedMesh.__init__(self, skel=None, mesh=self.meshData, vertexToBoneMapping=None)
# Make sure that shadow vertices are copied
self.refreshStaticMeshes()
def input_mesh(mesh_file):
with open(mesh_file) as f:
lines = f.readlines()
nnode,nelem,nmaterial,dof = [int(s) for s in lines[0].split()]
irec = 1
nodes = [None] * nnode
for inode in range(nnode):
items = lines[inode+irec].split() #mesh.in2行以降
id = int(items[0])
xyz = np.array([float(s) for s in items[1:3]]) #node座標list2成分
freedom = np.array([int(s) for s in items[3:]])
nodes[inode] = node.Node(id,xyz,freedom)
irec += nnode #irecを1+nnodeで再定義
elements = [None] * nelem
for ielem in range(nelem):
items = lines[ielem+irec].split() #mesh.in1+nnode行以降
id = int(items[0])
style = items[1]
material_id = int(items[2])
inode = np.array([int(s) for s in items[3:]])
elements[ielem] = element.Element(id,style,material_id,inode)
irec += nelem
materials = [None] * nmaterial
for imaterial in range(nmaterial):
items = lines[imaterial+irec].split()
id = int(items[0])
style = items[1]
param = np.array([float(s) for s in items[2:]])
materials[imaterial] = material.Material(id,style,param)
return fem.Fem(dof,nodes,elements,materials)
def __init__(self, file, type, human):
log.debug("Loading proxy file: %s.", file)
import makehuman
name = os.path.splitext(os.path.basename(file))[0]
self.name = name.capitalize().replace(" ","_")
self.type = type
self.object = None
self.human = human
if not human:
raise RuntimeError("Proxy constructor expects a valid human object.")
self.file = file
if file:
self.mtime = os.path.getmtime(file)
else:
self.mtime = None
self.uuid = None
self.basemesh = makehuman.getBasemeshVersion()
self.tags = []
self.ref_vIdxs = None # (Vidx1,Vidx2,Vidx3) list with references to human vertex indices, indexed by proxy vert
self.weights = None # (w1,w2,w3) list, with weights per human vertex (mapped by ref_vIdxs), indexed by proxy vert
self.vertWeights = {} # (proxy-vert, weight) list for each parent vert (reverse mapping of self.weights, indexed by human vertex)
self.offsets = None # (x,y,z) list of vertex offsets, indexed by proxy vert
self.tmatrix = TMatrix() # Offset transformation matrix. Replaces scale
self.z_depth = -1 # Render order depth for the proxy object. Also used to determine which proxy object should mask others (delete faces)
self.max_pole = None # Signifies the maximum number of faces per vertex on the mesh topology. Set to none for default.
self.uvLayers = {}
self.material = material.Material(self.name)
self._obj_file = None
self._vertexgroup_file = None # TODO document, is this still used?
self.vertexGroups = None
self._material_file = None
self.deleteVerts = np.zeros(len(human.meshData.coord), bool)
def parse_f(self, args):
if (len(self.tex_coords) > 1) and (len(self.normals) == 1):
# does the spec allow for texture coordinates without normals?
# if we allow this condition, the user will get a black screen
# which is really confusing
raise PywavefrontException, 'Found texture coordinates, but no normals'
if self.mesh is None:
self.mesh = mesh.Mesh()
self.wavefront.add_mesh(self.mesh)
if self.material is None:
self.material = material.Material()
self.mesh.add_material(self.material)
# For fan triangulation, remember first and latest vertices
v1 = None
vlast = None
points = []
for i, v in enumerate(args[0:]):
v_index, t_index, n_index = \
(map(int, [j or 0 for j in v.split('/')]) + [0, 0])[:3]
if v_index < 0:
v_index += len(self.vertices) - 1
if t_index < 0:
t_index += len(self.tex_coords) - 1
if n_index < 0:
n_index += len(self.normals) - 1
vertex = self.tex_coords[t_index] + \
self.normals[n_index] + \
self.vertices[v_index]
if i >= 3:
# Triangulate
self.material.vertices += v1 + vlast
self.material.vertices += vertex
if i == 0:
v1 = vertex
vlast = vertex
def __init__(self):
depth = 0.25
min_radius = self.__class__.min_radius
inner_endcap_radius = 0.34
self.maxeta = max_eta(inner_endcap_radius, self.__class__.min_z,
self.__class__.max_z)
nX0 = 23 #CLIC CDR, page 70, value for CLIC_ILD
nLambdaI = 1 # ibid
depth = self.__class__.max_z - self.__class__.min_z
X0 = depth / nX0
lambdaI = depth / nLambdaI
volume = VolumeCylinder('ecal', self.__class__.max_radius,
self.__class__.max_z,
self.__class__.min_radius,
self.__class__.min_z)
mat = material.Material('ECAL', X0, lambdaI)
# todo: recompute
self.eta_junction = volume.inner.eta_junction()
# cooking up thresholds. a HG calo must be quite sensitive
self.emin = {'barrel': 0.2, 'endcap': 0.2}
# CLIC CDR p.123
self.eres = {'barrel': [0.167, 0.0, 0.011]}
super(ECAL, self).__init__('ecal', volume, mat)
def __init__(self):
depth = 0.25
min_radius = self.__class__.min_radius
min_z = self.__class__.min_z
inner_endcap_radius = 0.25
self.maxeta = -math.log(
math.tan(math.atan(inner_endcap_radius / 1.7) / 2.))
nX0 = 23 #CLIC CDR, page 70, value for CLIC_ILD
nLambdaI = 1 # ibid
outer_radius = min_radius + depth
outer_z = min_z + depth
X0 = depth / nX0
lambdaI = depth / nLambdaI
volume = VolumeCylinder('ecal', outer_radius, outer_z, min_radius,
min_z)
mat = material.Material('ECAL', X0, lambdaI)
# todo: recompute
self.eta_junction = volume.inner.eta_junction()
# cooking up thresholds. a HG calo must be quite sensitive
self.emin = {'barrel': 0.2, 'endcap': 0.2}
# CLIC CDR p.123
self.eres = {'barrel': [0.167, 0.0, 0.011]}
super(ECAL, self).__init__('ecal', volume, mat)
def __init__(self, settings=None):
self.settings = settings
self.human = G.app.selectedHuman
self.macroModifierValues = dict()
self.appliedTargets = dict(self.human.targetsDetailStack)
self.skin = material.Material().copyFrom(self.human.material)
self.hair = mhapi.assets.getEquippedHair()
self.eyebrows = mhapi.assets.getEquippedEyebrows()
self.eyelashes = mhapi.assets.getEquippedEyelashes()
self.clothes = mhapi.assets.getEquippedClothes()
self._fillMacroModifierValues()
self.modifierInfo = ModifierInfo()
if not settings is None:
self._randomizeMacros()
if settings.getValue("materials", "randomizeSkinMaterials"):
self._randomizeSkin()
self._randomizeProxies()
self._randomizeDetails()
def __init__(self):
volume = VolumeCylinder('hcal', 3.33, 2.348, 2.02, 2.348)
mat = material.Material('HCAL', 1.74e-3, 0.17)
self.eta_crack = 3.
self.eres = [0.5, 0., 0.]
super(HCAL, self).__init__('hcal', volume, mat)
def __init__(self, filename): self.filename = filename self.done = False self.triangles = [] scene = pyassimp.load(self.filename, pyassimp.postprocess.aiProcess_Triangulate) if scene: for index, mesh in enumerate(scene.meshes): for num in range(len(mesh.faces)): face = mesh.faces[num] if face.size == 3: vertex = [glm.vec3(), glm.vec3(), glm.vec3()] vertex[0].x = mesh.vertices[face[0], 0] vertex[0].y = mesh.vertices[face[0], 1] vertex[0].z = mesh.vertices[face[0], 2] vertex[1].x = mesh.vertices[face[1], 0] vertex[1].y = mesh.vertices[face[1], 1] vertex[1].z = mesh.vertices[face[1], 2] vertex[2].x = mesh.vertices[face[2], 0] vertex[2].y = mesh.vertices[face[2], 1] vertex[2].z = mesh.vertices[face[2], 2] self.triangles.append(triangle.Triangle(glm.vec3(vertex[0].x, vertex[0].y, vertex[0].z), glm.vec3(vertex[1].x, vertex[1].y, vertex[1].z), glm.vec3(vertex[2].x, vertex[2].y, vertex[2].z), material.Material())) self.done = True
def __init__(self):
self.data_path = os.path.join(os.path.dirname(__file__), "materials")
self.file_path = None
self.tmp_material = material.Material()
self.loaded_materials = []
def parse_material(node, two_sided=False):
node_id = None
if 'id' in node.attrib:
node_id = node.attrib['id']
if node.attrib['type'] == 'diffuse':
diffuse_reflectance = Variable(torch.from_numpy(\
np.array([0.5, 0.5, 0.5], dtype=np.float32)))
diffuse_uv_scale = Variable(torch.from_numpy(\
np.array([1.0, 1.0], dtype=np.float32)))
specular_reflectance = Variable(torch.from_numpy(\
np.array([0.0, 0.0, 0.0], dtype=np.float32)))
specular_uv_scale = Variable(torch.from_numpy(\
np.array([1.0, 1.0], dtype=np.float32)))
roughness = Variable(torch.from_numpy(\
np.array([1.0], dtype=np.float32)))
for child in node:
if child.attrib['name'] == 'reflectance':
if child.tag == 'texture':
for grandchild in child:
if grandchild.attrib['name'] == 'filename':
diffuse_reflectance = Variable(torch.from_numpy(\
image.imread(grandchild.attrib['value'])))
elif grandchild.attrib['name'] == 'uscale':
diffuse_uv_scale.data[0] = float(
grandchild.attrib['value'])
elif grandchild.attrib['name'] == 'vscale':
diffuse_uv_scale.data[1] = float(
grandchild.attrib['value'])
elif child.tag == 'rgb':
diffuse_reflectance = \
Variable(torch.from_numpy(\
parse_vector(child.attrib['value'])))
elif child.attrib['name'] == 'specular':
if child.tag == 'texture':
for grandchild in child:
if grandchild.attrib['name'] == 'filename':
specular_reflectance = Variable(torch.from_numpy(\
image.imread(grandchild.attrib['value'])))
elif grandchild.attrib['name'] == 'uscale':
specular_uv_scale.data[0] = float(
grandchild.attrib['value'])
elif grandchild.attrib['name'] == 'vscale':
specular_uv_scale.data[1] = float(
grandchild.attrib['value'])
elif child.tag == 'rgb':
specular_reflectance = \
Variable(torch.from_numpy(\
parse_vector(child.attrib['value'])))
elif child.attrib['name'] == 'roughness':
roughness = \
Variable(torch.from_numpy(\
float(child.attrib['value'])))
return (node_id,
material.Material(diffuse_reflectance,
diffuse_uv_scale=diffuse_uv_scale,
specular_reflectance=specular_reflectance,
specular_uv_scale=specular_uv_scale,
roughness=roughness,
two_sided=two_sided))
elif node.attrib['type'] == 'twosided':
ret = parse_material(node[0], True)
return (node_id, ret[1])
#
# Constants, dimensions, etc. for the solver
# Expect this file to change greatly over the course of its development
import node
import mesh
import quadrature
import material
import calculator
import plot1d
import numpy as np
FIXED_SOURCE = 1.0 # TODO: scale by 1, 2, 4pi?
# Define the constituent materials
fuel_mat = material.Material(groups=1)
fuel_mat.macro_xs = {'scatter': np.array([1.0]), 'absorption': np.array([0.1])}
mod_mat = material.Material(groups=1)
mod_mat.macro_xs = {'absorption': np.array([0.1]), 'scatter': np.array([10.0])}
# Cell dimensions
PITCH = 0.6 # cm; pin pitch
WIDTH = 0.4 # cm; length of one side of the square fuel pin
class Pincell1D(mesh.Mesh1D):
"""Mesh for a one-dimensional pincell with 3 regions:
mod, fuel, and mod
Parameters:
(e1_len * e2_len)).view([-1, 1])
normals = normals / length(normals).view([-1, 1])
return normals
resolution = [256, 256]
cam = camera.Camera(position=np.array([0, 3, -6], dtype=np.float32),
look_at=np.array([0, 0, 0], dtype=np.float32),
up=np.array([0, 1, 0], dtype=np.float32),
cam_to_world=None,
fov=45.0,
clip_near=0.01,
clip_far=10000.0,
resolution=resolution)
mat_grey = material.Material(diffuse_reflectance=torch.from_numpy(
np.array([0.5, 0.5, 0.5], dtype=np.float32)))
mat_black = material.Material(diffuse_reflectance=torch.from_numpy(
np.array([0.0, 0.0, 0.0], dtype=np.float32)))
materials = [mat_grey, mat_black]
# plane_vertices, plane_indices=generate_plane([32, 32])
# shape_plane=shape.Shape(plane_vertices,plane_indices,None,None,0)
indices, vertices, uvs, normals = load_obj.load_obj(
'results/heightfield_gan/model.obj')
indices = Variable(torch.from_numpy(indices.astype(np.int64)))
vertices = Variable(torch.from_numpy(vertices))
normals = compute_vertex_normal(vertices, indices)
shape_plane = shape.Shape(vertices, indices, None, normals, 0)
light_vertices=Variable(torch.from_numpy(\
np.array([[-0.1,50,-0.1],[-0.1,50,0.1],[0.1,50,-0.1],[0.1,50,0.1]],dtype=np.float32)))
light_indices=torch.from_numpy(\
np.array([[0,2,1],[1,2,3]],dtype=np.int32))
Iw = 1.00748
Iww = 0.796819
Aw = 0.247913
# 读取模型文件
# =================================================================
xlsx = pd.ExcelFile('Data.xlsx')
nod = xlsx.parse('Node', index_col=0)
ele = xlsx.parse('Element', index_col=0)
cons = xlsx.parse('Constraint', index_col=0)
nLoad = xlsx.parse('nLoad', index_col=0)
eLoad = xlsx.parse('eLoad', index_col=0)
# 定义材料特性与截面几何特性
# =================================================================
mat = material.Material(E, mu, gamma, alpha)
sec = section.Section(A, I, Aw, Sw, Iw, Iww)
# 计算局部坐标系下的单元刚度矩阵
# =================================================================
beam = element.ShearLag(mat, sec, nod, ele)
Ke = beam.stiffness()
# 计算自由度和单元定位向量
# =================================================================
n_phi = 1 # 每个节点选取的剪力滞自由度个数
DOF = np.array(range(3 + n_phi))
DOF = core.getDOF(cons, nod.shape[0])
LOC = core.getLOC(DOF, ele)
# 计算整体坐标系下的单元刚度矩阵
def loadBinaryProxy(path, human, type):
log.debug("Loading binary proxy %s.", path)
npzfile = np.load(path)
#if type is None:
# proxyType = npzfile['proxyType'].tostring()
#else:
proxyType = type
proxy = Proxy(path, proxyType, human)
proxy.name = npzfile['name'].tostring()
proxy.uuid = npzfile['uuid'].tostring()
proxy.basemesh = npzfile['basemesh'].tostring()
if 'description' in npzfile:
proxy.description = npzfile['description'].tostring()
if 'version' in npzfile:
proxy.version = int(npzfile['version'])
if 'lic_str' in npzfile and 'lic_idx' in npzfile:
proxy.license.fromNumpyString(npzfile['lic_str'], npzfile['lic_idx'])
proxy.tags = set(
_unpackStringList(npzfile['tags_str'], npzfile['tags_idx']))
if 'z_depth' in npzfile:
proxy.z_depth = int(npzfile['z_depth'])
if 'max_pole' in npzfile:
proxy.max_pole = int(npzfile['max_pole'])
num_refverts = int(npzfile['num_refverts'])
if num_refverts == 3:
proxy.ref_vIdxs = npzfile['ref_vIdxs']
proxy.offsets = npzfile['offsets']
proxy.weights = npzfile['weights']
else:
num_refs = npzfile['ref_vIdxs'].shape[0]
proxy.ref_vIdxs = np.zeros((num_refs, 3), dtype=np.uint32)
proxy.ref_vIdxs[:, 0] = npzfile['ref_vIdxs']
proxy.offsets = np.zeros((num_refs, 3), dtype=np.float32)
proxy.weights = np.zeros((num_refs, 3), dtype=np.float32)
proxy.weights[:, 0] = npzfile['weights']
if "deleteVerts" in npzfile:
proxy.deleteVerts = npzfile['deleteVerts']
# Reconstruct reverse vertex (and weights) mapping
proxy._reloadReverseMapping()
proxy.tmatrix = TMatrix()
proxy.uvLayers = {}
for uvIdx, uvName in enumerate(
_unpackStringList(npzfile['uvLayers_str'],
npzfile['uvLayers_idx'])):
uvLayers[uvIdx] = uvName
proxy.material = material.Material(proxy.name)
if 'material_file' in npzfile:
proxy._material_file = npzfile['material_file'].tostring()
if proxy.material_file:
proxy.material.fromFile(proxy.material_file)
proxy._obj_file = npzfile['obj_file'].tostring()
if 'vertexBoneWeights_file' in npzfile:
proxy._vertexBoneWeights_file = npzfile[
'vertexBoneWeights_file'].tostring()
if proxy.vertexBoneWeights_file:
proxy.vertexBoneWeights = VertexBoneWeights.fromFile(
proxy.vertexBoneWeights_file)
if proxy.z_depth == -1:
log.warning('Proxy file %s does not specify a Z depth. Using 50.',
path)
proxy.z_depth = 50
return proxy
def Render(settings):
progress = Progress.begin()
if not mh.hasRenderToRenderbuffer():
settings['dimensions'] = (G.windowWidth, G.windowHeight)
if settings['lightmapSSS']:
progress(0, 0.05, "Storing data")
import material
human = G.app.selectedHuman
materialBackup = material.Material(human.material)
progress(0.05, 0.1, "Projecting lightmaps")
diffuse = imgop.Image(data=human.material.diffuseTexture)
lmap = projection.mapSceneLighting(settings['scene'],
border=human.material.sssRScale)
progress(0.1, 0.4, "Applying medium scattering")
lmapG = imgop.blurred(lmap, human.material.sssGScale, 13)
progress(0.4, 0.7, "Applying high scattering")
lmapR = imgop.blurred(lmap, human.material.sssRScale, 13)
lmap = imgop.compose([lmapR, lmapG, lmap])
if not diffuse.isEmpty:
progress(0.7, 0.8, "Combining textures")
lmap = imgop.resized(lmap, diffuse.width, diffuse.height)
progress(0.8, 0.9)
lmap = imgop.multiply(lmap, diffuse)
lmap.sourcePath = "Internal_Renderer_Lightmap_SSS_Texture"
progress(0.9, 0.95, "Setting up renderer")
human.material.diffuseTexture = lmap
human.mesh.configureShading(diffuse=True)
human.mesh.shadeless = True
progress(0.95, 0.98, None)
else:
progress(0, 0.99, None)
if not mh.hasRenderToRenderbuffer():
# Limited fallback mode, read from screen buffer
log.message("Fallback render: grab screen")
img = mh.grabScreen(0, 0, G.windowWidth, G.windowHeight)
alphaImg = None
else:
# Render to framebuffer object
renderprog = Progress()
renderprog(0, 0.99 - 0.59 * settings['AA'], "Rendering")
width, height = settings['dimensions']
log.message("Rendering at %sx%s", width, height)
if settings['AA']:
width = width * 2
height = height * 2
img = mh.renderToBuffer(width, height)
alphaImg = mh.renderAlphaMask(width, height)
img = imgop.addAlpha(img, imgop.getChannel(alphaImg, 0))
if settings['AA']:
renderprog(0.4, 0.99, "AntiAliasing")
# Resize to 50% using Qt image class
qtImg = img.toQImage()
del img
# Bilinear filtered resize for anti-aliasing
scaledImg = qtImg.scaled(
width / 2,
height / 2,
transformMode=gui.QtCore.Qt.SmoothTransformation)
del qtImg
img = scaledImg
#img = image.Image(scaledImg) # Convert back to MH image
#del scaledImg
renderprog.finish()
if settings['lightmapSSS']:
progress(0.98, 0.99, "Restoring data")
human.material = materialBackup
progress(1, None, 'Rendering complete')
gui3d.app.getCategory('Rendering').getTaskByName('Viewer').setImage(img)
mh.changeTask('Rendering', 'Viewer')
gui3d.app.statusPersist('Rendering complete.')
data['influencesPerVertex']=influencesPerVertex
assert len(data['ref_vIdxs'])==len(data['weights'])
assert len(data['ref_vIdxs'])>0
assert len(data['offsets'])>0
assert len(data['skinIndices'])==len(data['skinIndices'])
assert len(data['skinIndices'])>0
assert len(data['skinIndices'])%data['influencesPerVertex']==0
# load alternative materials
materials=[]
if prxy.material_file:
for material_file in Path(prxy.material_file).dirname().glob('*.mhmat'):
material_name = str(Path(material_file).basename().splitext()[0])
mat = material.Material(material_name)
mat.fromFile(material_file)
mtl = parse_mtl(material_to_mtl(mat, texdir=os.path.dirname(outfile)))
mtl = mtl[mtl.keys()[0]]
mtl['name']=material_name
materials.append(mtl)
data["materials"] = materials
json.dump(data, open(outfile, 'w'), cls=NP_MH_Encoder, separators=(',', ':'))
# copy thumbnail
thumbnail = Path(infile.replace('.obj','.thumb'))
if thumbnail.isfile():
copyAndCompress(thumbnail,outfile.replace('.json','.thumb.png'))
for thumbnail in [p.replace('.mhmat','.thumb') for p in Path(prxy.material_file).dirname().glob('*.mhmat')]:
resolution = [256, 256]
position = Variable(torch.from_numpy(np.array([0, 0, -5], dtype=np.float32)))
look_at = Variable(torch.from_numpy(np.array([0, 0, 0], dtype=np.float32)))
up = Variable(torch.from_numpy(np.array([0, 1, 0], dtype=np.float32)))
fov = Variable(torch.from_numpy(np.array([45.0], dtype=np.float32)))
clip_near = Variable(torch.from_numpy(np.array([0.01], dtype=np.float32)))
clip_far = Variable(torch.from_numpy(np.array([10000.0], dtype=np.float32)))
cam = camera.Camera(position=position,
look_at=look_at,
up=up,
cam_to_world=None,
fov=fov,
clip_near=clip_near,
clip_far=clip_far,
resolution=resolution)
mat_grey=material.Material(\
diffuse_reflectance=torch.from_numpy(np.array([0.5,0.5,0.5],dtype=np.float32)))
mat_checker_board=material.Material(\
diffuse_reflectance=torch.from_numpy(image.imread('test/results/test_texture/checker_board.exr')))
materials = [mat_grey, mat_checker_board]
vertices=Variable(torch.from_numpy(\
np.array([[-1.0,-1.0,0.0], [-1.0,1.0,0.0], [1.0,-1.0,0.0], [1.0,1.0,0.0]],dtype=np.float32)))
indices = torch.from_numpy(np.array([[0, 1, 2], [1, 3, 2]], dtype=np.int32))
uvs = torch.from_numpy(
np.array([[0.0, 0.0], [0.0, 1.0], [1.0, 0.0], [1.0, 1.0]],
dtype=np.float32))
shape_plane = shape.Shape(vertices, indices, uvs, None, 1)
light_vertices=Variable(torch.from_numpy(\
np.array([[-1,-1,-7],[1,-1,-7],[-1,1,-7],[1,1,-7]],dtype=np.float32)))
light_indices=torch.from_numpy(\
np.array([[0,1,2],[1,3,2]],dtype=np.int32))
shape_light = shape.Shape(light_vertices, light_indices, None, None, 0)
def loadBinaryProxy(path, human, type):
log.debug("Loading binary proxy %s.", path)
npzfile = np.load(path)
#if type is None:
# proxyType = npzfile['proxyType'].tostring()
#else:
proxyType = type
proxy = Proxy(path, proxyType, human)
proxy.name = npzfile['name'].tostring()
proxy.uuid = npzfile['uuid'].tostring()
proxy.basemesh = npzfile['basemesh'].tostring()
proxy.tags = set(_unpackStringList(npzfile['tags_str'], npzfile['tags_idx']))
if 'z_depth' in npzfile:
proxy.z_depth = int(npzfile['z_depth'])
if 'max_pole' in npzfile:
proxy.max_pole = int(npzfile['max_pole'])
proxy.num_refverts = int(npzfile['num_refverts'])
if proxy.num_refverts == 3:
proxy.ref_vIdxs = npzfile['ref_vIdxs']
proxy.offsets = npzfile['offsets']
proxy.weights = npzfile['weights']
else:
num_refs = npzfile['ref_vIdxs'].shape[0]
proxy.ref_vIdxs = np.zeros((num_refs,3), dtype=np.uint32)
proxy.ref_vIdxs[:,0] = npzfile['ref_vIdxs']
proxy.offsets = np.zeros((num_refs,3), dtype=np.float32)
proxy.weights = np.zeros((num_refs,3), dtype=np.float32)
proxy.weights[:,0] = npzfile['weights']
if "deleteVerts" in npzfile:
proxy.deleteVerts = npzfile['deleteVerts']
# Reconstruct reverse vertex (and weights) mapping
proxy._reloadReverseMapping()
proxy.tmatrix = TMatrix()
proxy.uvLayers = {}
for uvIdx, uvName in enumerate(_unpackStringList(npzfile['uvLayers_str'], npzfile['uvLayers_idx'])):
uvLayers[uvIdx] = uvName
proxy.material = material.Material(proxy.name)
if 'material_file' in npzfile:
proxy._material_file = npzfile['material_file'].tostring()
if proxy.material_file:
proxy.material.fromFile(proxy.material_file)
proxy._obj_file = npzfile['obj_file'].tostring()
if 'vertexgroup_file' in npzfile:
proxy._vertexgroup_file = npzfile['vertexgroup_file'].tostring()
if proxy.vertexgroup_file:
proxy.vertexGroups = io_json.loadJson(proxy.vertexgroup_file)
# Just set the defaults for these, no idea if they are still relevant
proxy.wire = False
proxy.cage = False
proxy.modifiers = []
proxy.shapekeys = []
if proxy.z_depth == -1:
log.warning('Proxy file %s does not specify a Z depth. Using 50.', path)
proxy.z_depth = 50
return proxy
def __init__(self):
volume = VolumeCylinder('hcal', 2.9, 3.6, 1.9, 2.6)
mat = material.Material('HCAL', None, 0.17)
super(HCAL, self).__init__('ecal', volume, mat)
def Render(settings):
progress = Progress.begin()
if not mh.hasRenderToRenderbuffer():
settings['dimensions'] = (G.windowWidth, G.windowHeight)
if settings['lightmapSSS']:
progress(0, 0.05, "Storing data")
import material
human = G.app.selectedHuman
materialBackup = material.Material(human.material)
progress(0.05, 0.1, "Projecting lightmaps")
diffuse = imgop.Image(data=human.material.diffuseTexture)
lmap = projection.mapSceneLighting(settings['scene'],
border=human.material.sssRScale)
progress(0.1, 0.4, "Applying medium scattering")
lmapG = imgop.blurred(lmap, human.material.sssGScale, 13)
progress(0.4, 0.7, "Applying high scattering")
lmapR = imgop.blurred(lmap, human.material.sssRScale, 13)
lmap = imgop.compose([lmapR, lmapG, lmap])
if not diffuse.isEmpty:
progress(0.7, 0.8, "Combining textures")
lmap = imgop.resized(lmap,
diffuse.width,
diffuse.height,
filter=image.FILTER_BILINEAR)
progress(0.8, 0.9)
lmap = imgop.multiply(lmap, diffuse)
lmap.sourcePath = "Internal_Renderer_Lightmap_SSS_Texture"
progress(0.9, 0.95, "Setting up renderer")
human.material.diffuseTexture = lmap
human.configureShading(diffuse=True)
human.shadeless = True
progress(0.95, 0.98, None)
else:
progress(0, 0.99, None)
if not mh.hasRenderToRenderbuffer():
# Limited fallback mode, read from screen buffer
log.message("Fallback render: grab screen")
img = mh.grabScreen(0, 0, G.windowWidth, G.windowHeight)
alphaImg = None
else:
# Render to framebuffer object
renderprog = Progress()
renderprog(0, 0.99 - 0.59 * settings['AA'], "Rendering")
width, height = settings['dimensions']
log.message("Rendering at %sx%s", width, height)
if settings['AA']:
width = width * 2
height = height * 2
img = mh.renderToBuffer(width, height)
alphaImg = mh.renderAlphaMask(width, height)
img = imgop.addAlpha(img, imgop.getChannel(alphaImg, 0))
if settings['AA']:
renderprog(0.4, 0.99, "AntiAliasing")
# Resize to 50% using bi-linear filtering
img = img.resized(width / 2,
height / 2,
filter=image.FILTER_BILINEAR)
# TODO still haven't figured out where components get swapped, but this hack appears to be necessary
img.data[:, :, :] = img.data[:, :, (2, 1, 0, 3)]
renderprog.finish()
if settings['lightmapSSS']:
progress(0.98, 0.99, "Restoring data")
human.material = materialBackup
progress(1, None, 'Rendering complete')
gui3d.app.getCategory('Rendering').getTaskByName('Viewer').setImage(img)
mh.changeTask('Rendering', 'Viewer')
gui3d.app.statusPersist('Rendering complete')
def loadBinaryProxy(path, human, type):
log.debug("Loading binary proxy %s.", path)
npzfile = np.load(path)
#if type is None:
# proxyType = npzfile['proxyType'].tostring()
#else:
proxyType = type
proxy = Proxy(path, proxyType, human)
proxy.name = npzfile['name'].tostring()
proxy.uuid = npzfile['uuid'].tostring()
proxy.basemesh = npzfile['basemesh'].tostring()
if 'description' in npzfile:
proxy.description = npzfile['description'].tostring()
if 'version' in npzfile:
proxy.version = int(npzfile['version'])
if 'lic_str' in npzfile and 'lic_idx' in npzfile:
proxy.license.fromNumpyString(npzfile['lic_str'], npzfile['lic_idx'])
proxy.tags = set(_unpackStringList(npzfile['tags_str'], npzfile['tags_idx']))
if 'z_depth' in npzfile:
proxy.z_depth = int(npzfile['z_depth'])
if 'max_pole' in npzfile:
proxy.max_pole = int(npzfile['max_pole'])
if 'special_pose_str' in npzfile:
special_poses = _unpackStringList(npzfile['special_pose_str'], npzfile['special_pose_idx'])
for idx in range(0, len(special_poses), 2):
proxy.special_pose[special_poses[idx]] = special_poses[idx+1]
num_refverts = int(npzfile['num_refverts'])
if num_refverts > 1: # 3 or 4
proxy.ref_vIdxs = npzfile['ref_vIdxs']
proxy.weights = npzfile['weights']
if 'offsets' in npzfile:
proxy.offsets = npzfile['offsets']
else:
if proxy.new_fitting:
proxy.offsets = None
else:
proxy.offsets = np.zeros((num_refs,3), dtype=np.float32)
else: # 1 refvert
num_refs = npzfile['ref_vIdxs'].shape[0]
proxy.ref_vIdxs = np.zeros((num_refs,3), dtype=np.uint32)
proxy.ref_vIdxs[:,0] = npzfile['ref_vIdxs']
proxy.offsets = np.zeros((num_refs,3), dtype=np.float32)
proxy.weights = np.zeros((num_refs,3), dtype=np.float32)
proxy.weights[:,0] = npzfile['weights']
if "deleteVerts" in npzfile:
proxy.deleteVerts = npzfile['deleteVerts']
# Reconstruct reverse vertex (and weights) mapping
proxy._reloadReverseMapping()
if proxy.new_fitting:
# Create alias
proxy.deltas = proxy.weights
# TODO we could skip this for new-style proxies
proxy.tmatrix.fromNumpyStruct(npzfile)
proxy.uvLayers = {}
for uvIdx, uvName in enumerate(_unpackStringList(npzfile['uvLayers_str'], npzfile['uvLayers_idx'])):
proxy.uvLayers[uvIdx] = uvName
proxy.material = material.Material(proxy.name)
if 'material_file' in npzfile:
proxy._material_file = npzfile['material_file'].tostring()
if proxy.material_file:
proxy.material.fromFile(proxy.material_file)
proxy._obj_file = npzfile['obj_file'].tostring()
if 'vertexBoneWeights_file' in npzfile:
proxy._vertexBoneWeights_file = npzfile['vertexBoneWeights_file'].tostring()
if proxy.vertexBoneWeights_file:
from animation import VertexBoneWeights
proxy.vertexBoneWeights = VertexBoneWeights.fromFile(proxy.vertexBoneWeights_file)
if proxy.z_depth == -1:
log.warning('Proxy file %s does not specify a Z depth. Using 50.', path)
proxy.z_depth = 50
return proxy
import light
import shape
import transform
import numpy as np
dtype = torch.FloatTensor
resolution = [256, 256]
cam = camera.Camera(position=np.array([0, 2, -5], dtype=np.float32),
look_at=np.array([0, 0, 0], dtype=np.float32),
up=np.array([0, 1, 0], dtype=np.float32),
cam_to_world=None,
fov=45.0,
clip_near=0.01,
clip_far=10000.0,
resolution=resolution)
mat_grey = material.Material(
albedo=torch.from_numpy(np.array([0.5, 0.5, 0.5], dtype=np.float32)))
mat_red = material.Material(
albedo=torch.from_numpy(np.array([0.9, 0.15, 0.15], dtype=np.float32)))
mat_green = material.Material(
albedo=torch.from_numpy(np.array([0.15, 0.9, 0.15], dtype=np.float32)))
mat_black = material.Material(
albedo=torch.from_numpy(np.array([0.0, 0.0, 0.0], dtype=np.float32)))
materials = [mat_grey, mat_red, mat_green, mat_black]
floor_vertices=Variable(torch.from_numpy(\
np.array([[-2.0,0.0,-2.0],[-2.0,0.0,2.0],[2.0,0.0,-2.0],[2.0,0.0,2.0]],dtype=np.float32)))
floor_indices = torch.from_numpy(
np.array([[0, 1, 2], [1, 3, 2]], dtype=np.int32))
shape_floor = shape.Shape(floor_vertices, floor_indices, None, None, 0)
red_reflector_vertices=Variable(torch.from_numpy(\
np.array([[-4.0,4.0,2.0],[-4.0,8.0,2.0],[0.0,4.0,2.0],[0.0,8.0,2.0]],dtype=np.float32)))
red_reflector_indices = torch.from_numpy(
RHO_MOD = 0.7 # g/cm^3
# One-group cross sections
SIGMA_S_U238 = 11.29 # b
SIGMA_S_O16 = 3.888 # b
SIGMA_S_H1 = 20.47 # b
SIGMA_A_H1 = 1.0 # b
# --> fuel is pure scattering; only absorption is hydrogen
# Define the nuclides
u238 = material.Nuclide(238, {"nu-scatter": SIGMA_S_U238})
o16 = material.Nuclide(16, {"nu-scatter": SIGMA_S_O16})
h1 = material.Nuclide(1, {"nu-scatter": SIGMA_S_H1,
"absorption": SIGMA_A_H1})
# Define the constituent materials
fuel_mat = material.Material().fromNuclides([u238], RHO_FUEL, name="Fuel")
fuel_mat.macro_xs["transport"] = sum(fuel_mat.macro_xs.values())
mod_mat = material.Material().fromNuclides([o16, h1, h1], RHO_MOD, name="Moderator")
mod_mat.macro_xs["transport"] = sum(mod_mat.macro_xs.values())
# Cell dimensions
PITCH = 1.25 # cm; pin pitch
WIDTH = 0.80 # cm; length of one side of the square fuel pin
BOUNDARIES = ["periodic"]*4
class Pincell2D(mesh.Mesh2D):
"""Mesh for a two-dimensional pincell with 3 regions:
mod, fuel, and mod
Parameters:
class MaterialEnum(Enum):
iron = material.Material(1,1,1)
steel = material.Material(1.5,1.5,1.5)
import geometry as gm
import simulator as simu
import material as mt
import time
def print_hi(name):
# Use a breakpoint in the code line below to debug your script.
print(f'Hi, {name}') # Press Ctrl+F8 to toggle the breakpoint.
if __name__ == '__main__':
cell0 = gm.Cell(2, -80, -50, 1000, -1000, 1000, -1000)
cell1 = gm.Cell(1, -50, 50, 1000, -1000, 1000, -1000)
cell2 = gm.Cell(2, 50, 80, 1000, -1000, 1000, -1000)
mat1 = mt.Material(1, 0.7, 0.0092, 0.010)
mat2 = mt.Material(2, 0.9, 0.002, 0)
cell_list = [cell0, cell1, cell2]
geo = gm.Geometry(cell_list)
mat_list = [mat1, mat2]
mode1 = simu.Mode(100, 50, 30, False)
runner = simu.Simulate(geo, mat_list, mode1)
t1 = time.time()
runner.run()
t2 = time.time() - t1
print_hi(f'succeed, run in {t2} seconds')
def __init__(self):
volume = VolumeCylinder('ecal', 1.55, 2.25, 1.30, 2.)
mat = material.Material('ECAL', 8.9e-3, 0.) # lambda_I = 0
self.eta_crack = 1.5
self.emin = 2.
super(ECAL, self).__init__('ecal', volume, mat)
def __init__(self, data =None):
#Inicializamos todo:
self.im = Image.open("stars64.bmp")
self.d = np.array(self.im).reshape(-1,1)
self.im.close()
#Variables de la clase
self.width=800
self.height=800
self.aspect = self.width/self.height
self.angulo = 0
self.window=0
#**Cargamos Materiales**
self.materiales = data["materiales"]
self.NUM_MATERIALES = len(self.materiales)
for i in range (self.NUM_MATERIALES):
self.materialesCargados.append(material.Material(self.materiales[i]["luzambiente"], self.materiales[i]["luzspecular"], self.materiales[i]["luzdifusa"], self.materiales[i]["brillo"]))
print("&Material",i,"cargado desde JSON")
#**Cargar Astros**
numLunas=0
self.planetas = data["planetas"]
self.NUM_ASTROS = len(self.planetas)
#Aqui cargamos los datos en modelos y los guardamos en una lista llamada astros
for i in range(self.NUM_ASTROS):
if(self.planetas[i]["l"]=="n"):
numLunas=0
self.astros.append(model.Modelo(self.planetas[i], self.materialesCargados[i]))
print("&Planeta",i,"cargado desde JSON")
elif(self.planetas[i]["l"]=="l"):
numLunas+=1
self.astros[i-numLunas].addLuna(model.Modelo(self.planetas[i], self.materialesCargados[i]))
#self.lunas.append(model.Modelo(self.planetas[i], self.materialesCargados[i]))
print("&Luna",numLunas,"del planeta",self.astros[i-numLunas].nombre,"cargado desde JSON")
#**Cargar Camaras**
self.camaras = data["camaras"]
self.numCamaras = len(self.camaras)
#Cargamos las camaras de data en objetos Camara_Frustum
for i in range (self.numCamaras):
self.camarasCargadas.append(cf.Camera_Frustum(self.camaras[i]["ejex"], self.camaras[i]["ejey"], self.camaras[i]["ejez"],
self.camaras[i]["centrox"], self.camaras[i]["centroy"], self.camaras[i]["centroz"],
self.camaras[i]["upx"], self.camaras[i]["upy"], self.camaras[i]["upz"]))
print("&Camara",i,"cargada desde JSON")
#**Cargamos Focos**
self.focos = data["focos"]
self.NUM_FOCOS=len(self.focos)
for i in range (self.NUM_FOCOS):
self.focosCargados.append(foco.Foco(self.focos[i]["brillo"], self.focos[i]["luzdifusa"], self.focos[i]["luzambiente"], self.focos[i]["luzspecular"], self.focos[i]["posicion"]))
print("&Foco",i,"cargado desde JSON")
#Tamaño de los ejes y del alejamiento de Z.
self.tamanio=0
self.z0=0
#Factor para el tamaño del modelo.
self.escalaGeneral = 0.013
self.multiplicadorVelocidad = 15
#Rotacion de los modelos.
self.alpha=0
self.beta=0
#Variables para la gestion del ratón.
self.xold=0
self.yold=0
self.zoom=1.0
#Vistas del Sistema Planetario.
#modelo.tipoVista iForma
self.iDibujo=3
self.iFondo=0
self.iForma=6
self.iCamara=10
def __init__(self, obj, after):
super(MaterialAction, self).__init__("Change material of %s" % obj.mesh.name)
self.obj = obj
self.before = material.Material().copyFrom(obj.material)
self.after = after
mg["mod"]["D"] = mod_diffusion
mg["mod"]["transport"] = 1/(3*mod_diffusion)
mg["mod"]["absorption"] = np.array([0.0010, 0.0300])
s11, s22 = mg["mod"]["transport"] - mg["mod"]["absorption"]
s12 = 0.0500
mod_scatter_matrix = np.array([[s11, 0],
[s12, s22]])
mg["mod"]["nu-scatter"] = mod_scatter_matrix
scatter = mod_scatter_matrix.sum(axis=0)
mg["mod"]["total"] = mg["mod"]["transport"]
else:
raise NotImplementedError("{} groups".format(G))
mod_mat = material.Material(name="Moderator", groups=G)
mod_mat.macro_xs = mg["mod"]
fuel_mat = material.Material(name="Fuel, 3.1%", groups=G)
fuel_mat.macro_xs = mg["fuel"]
if G == 1:
# debug
fuel_mat.macro_xs["nu-fission"] = 2.1*fuel_mat.macro_xs["absorption"] # debug; force kinf to 2.1
fuel_mat.macro_xs["total"] = fuel_mat.macro_xs["transport"]
# analytically calculate kinf from the 1-group xs
kinf = float(mg["fuel"]["nu-fission"]/mg["fuel"]["absorption"])
elif G == 2:
# fudge the numbers for testing
'''
mg["fuel"]["nu-fission"][:] = 2.2*mg["fuel"]["absorption"][:] # debug: force kinf to 2.2
