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Bastien Montagne
committed
# ***** 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 #****
import subprocess
import os
import sys
import time
from math import atan, pi, degrees, sqrt, cos, sin
import re
import platform#
import subprocess#
from bpy.types import(Operator)
from bpy_extras.io_utils import ImportHelper
from bpy_extras import object_utils
##############################SF###########################
##############find image texture
ext = {
'JPG': "jpeg",
'JPEG': "jpeg",
'GIF': "gif",
'TGA': "tga",
'IFF': "iff",
'PPM': "ppm",
'PNG': "png",
'SYS': "sys",
'TIFF': "tiff",
'TIF': "tiff",
'EXR': "exr",
'HDR': "hdr",
}.get(os.path.splitext(imgF)[-1].upper(), "")
print(" WARNING: texture image format not supported ")
image_map = ""
if ts.mapping == 'FLAT':
image_map = "map_type 0 "
elif ts.mapping == 'SPHERE':
image_map = "map_type 1 "
elif ts.mapping == 'TUBE':
image_map = "map_type 2 "
## map_type 3 and 4 in development (?)
## for POV-Ray, currently they just seem to default back to Flat (type 0)
#elif ts.mapping=="?":
#elif ts.mapping=="?":
if ts.texture.use_interpolation:
image_map += " interpolate 2 "
if ts.texture.extension == 'CLIP':
image_map += " once "
#image_map += "}"
#if ts.mapping=='CUBE':
# image_map+= "warp { cubic } rotate <-90,0,180>"
# no direct cube type mapping. Though this should work in POV 3.7
# it doesn't give that good results(best suited to environment maps?)
# print(" No texture image found ")
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def imgMapTransforms(ts):
# XXX TODO: unchecked textures give error of variable referenced before assignment XXX
# POV-Ray "scale" is not a number of repetitions factor, but ,its
# inverse, a standard scale factor.
# 0.5 Offset is needed relatively to scale because center of the
# scale is 0.5,0.5 in blender and 0,0 in POV
image_map_transforms = ""
image_map_transforms = ("scale <%.4g,%.4g,%.4g> translate <%.4g,%.4g,%.4g>" % \
( 1.0 / ts.scale.x,
1.0 / ts.scale.y,
1.0 / ts.scale.z,
0.5-(0.5/ts.scale.x) - (ts.offset.x),
0.5-(0.5/ts.scale.y) - (ts.offset.y),
ts.offset.z))
# image_map_transforms = (" translate <-0.5,-0.5,0.0> scale <%.4g,%.4g,%.4g> translate <%.4g,%.4g,%.4g>" % \
# ( 1.0 / ts.scale.x,
# 1.0 / ts.scale.y,
# 1.0 / ts.scale.z,
# (0.5 / ts.scale.x) + ts.offset.x,
# (0.5 / ts.scale.y) + ts.offset.y,
# ts.offset.z))
# image_map_transforms = ("translate <-0.5,-0.5,0> scale <-1,-1,1> * <%.4g,%.4g,%.4g> translate <0.5,0.5,0> + <%.4g,%.4g,%.4g>" % \
# (1.0 / ts.scale.x,
# 1.0 / ts.scale.y,
# 1.0 / ts.scale.z,
# ts.offset.x,
# ts.offset.y,
# ts.offset.z))
return image_map_transforms
# texture_coords refers to the mapping of world textures:
if wts.texture_coords == 'VIEW' or wts.texture_coords == 'GLOBAL':
elif wts.texture_coords == 'ANGMAP':
image_mapBG = " map_type 1 "
elif wts.texture_coords == 'TUBE':
image_mapBG = " map_type 2 "
if wts.texture.use_interpolation:
image_mapBG += " interpolate 2 "
if wts.texture.extension == 'CLIP':
image_mapBG += " once "
#image_mapBG += "}"
#if wts.mapping == 'CUBE':
# image_mapBG += "warp { cubic } rotate <-90,0,180>"
# no direct cube type mapping. Though this should work in POV 3.7
# it doesn't give that good results(best suited to environment maps?)
#if image_mapBG == "":
# print(" No background texture image found ")
return bpy.path.abspath(image.filepath, library=image.library)
# end find image texture
# -----------------------------------------------------------------------------
def string_strip_hyphen(name):
return name.replace("-", "")
def safety(name, Level):
# safety string name material
#
# Level=1 is for texture with No specular nor Mirror reflection
# Level=2 is for texture with translation of spec and mir levels
# for when no map influences them
# Level=3 is for texture with Maximum Spec and Mirror
Maurice Raybaud
committed
prefix = ""
return prefix + name + "0" # used for 0 of specular map
return prefix + name + "1" # used for 1 of specular map
Maurice Raybaud
committed
##############end safety string name material
##############################EndSF###########################
def is_renderable(ob):
return (ob.hide_render==False)
def renderable_objects():
return [ob for ob in bpy.data.objects if is_renderable(ob)]
Maurice Raybaud
committed
tabLevel = 0
unpacked_images=[]
user_dir = bpy.utils.resource_path('USER')
preview_dir = os.path.join(user_dir, "preview")
## Make sure Preview directory exists and is empty
smokePath = os.path.join(preview_dir, "smoke.df3")
def write_global_setting(scene,file):
file.write("global_settings {\n")
file.write(" assumed_gamma %.6f\n"%scene.pov.assumed_gamma)
if scene.pov.global_settings_default == False:
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if scene.pov.adc_bailout_enable and scene.pov.radio_enable == False:
file.write(" adc_bailout %.6f\n"%scene.pov.adc_bailout)
if scene.pov.ambient_light_enable:
file.write(" ambient_light <%.6f,%.6f,%.6f>\n"%scene.pov.ambient_light[:])
if scene.pov.irid_wavelength_enable:
file.write(" irid_wavelength <%.6f,%.6f,%.6f>\n"%scene.pov.irid_wavelength[:])
if scene.pov.charset_enable:
file.write(" charset %s\n"%scene.pov.charset)
if scene.pov.max_trace_level_enable:
file.write(" max_trace_level %s\n"%scene.pov.max_trace_level)
if scene.pov.max_intersections_enable:
file.write(" max_intersections %s\n"%scene.pov.max_intersections)
if scene.pov.number_of_waves_enable:
file.write(" number_of_waves %s\n"%scene.pov.number_of_waves)
if scene.pov.noise_generator_enable:
file.write(" noise_generator %s\n"%scene.pov.noise_generator)
if scene.pov.sslt_enable:
file.write(" mm_per_unit %s\n"%scene.pov.mm_per_unit)
file.write(" subsurface {\n")
file.write(" samples %s, %s\n"%(scene.pov.sslt_samples_max,scene.pov.sslt_samples_min))
if scene.pov.sslt_radiosity:
file.write(" radiosity on\n")
file.write("}\n")
if scene.pov.radio_enable:
file.write(" radiosity {\n")
file.write(" pretrace_start %.6f\n"%scene.pov.radio_pretrace_start)
file.write(" pretrace_end %.6f\n"%scene.pov.radio_pretrace_end)
file.write(" count %s\n"%scene.pov.radio_count)
file.write(" nearest_count %s\n"%scene.pov.radio_nearest_count)
file.write(" error_bound %.6f\n"%scene.pov.radio_error_bound)
file.write(" recursion_limit %s\n"%scene.pov.radio_recursion_limit)
file.write(" low_error_factor %.6f\n"%scene.pov.radio_low_error_factor)
file.write(" gray_threshold %.6f\n"%scene.pov.radio_gray_threshold)
file.write(" maximum_reuse %.6f\n"%scene.pov.radio_maximum_reuse)
file.write(" minimum_reuse %.6f\n"%scene.pov.radio_minimum_reuse)
file.write(" brightness %.6f\n"%scene.pov.radio_brightness)
file.write(" adc_bailout %.6f\n"%scene.pov.radio_adc_bailout)
if scene.pov.radio_normal:
file.write(" normal on\n")
if scene.pov.radio_always_sample:
file.write(" always_sample on\n")
if scene.pov.radio_media:
file.write(" media on\n")
if scene.pov.radio_subsurface:
file.write(" subsurface on\n")
file.write(" }\n")
if scene.pov.photon_enable:
file.write(" photons {\n")
if scene.pov.photon_enable_count:
file.write(" count %s\n"%scene.pov.photon_count)
else:
file.write(" spacing %.6g\n"%scene.pov.photon_spacing)
if scene.pov.photon_gather:
file.write(" gather %s, %s\n"%(scene.pov.photon_gather_min,scene.pov.photon_gather_max))
if scene.pov.photon_autostop:
file.write(" autostop %.4g\n"%scene.pov.photon_autostop_value)
if scene.pov.photon_jitter_enable:
file.write(" jitter %.4g\n"%scene.pov.photon_jitter)
file.write(" max_trace_level %s\n"%scene.pov.photon_max_trace_level)
if scene.pov.photon_adc:
file.write(" adc_bailout %.6f\n"%scene.pov.photon_adc_bailout)
if scene.pov.photon_media_enable:
file.write(" media %s, %s\n"%(scene.pov.photon_media_steps,scene.pov.photon_media_factor))
if scene.pov.photon_savefile or scene.pov.photon_loadfile:
filePh = bpy.path.abspath(scene.pov.photon_map_file)
if scene.pov.photon_savefile:
file.write('save_file "%s"\n'%filePh)
if scene.pov.photon_loadfile and os.path.exists(filePh):
file.write('load_file "%s"\n'%filePh)
file.write("}\n")
file.write("}\n")
def write_object_modifiers(scene,ob,File):
if ob.pov.hollow:
File.write("hollow\n")
if ob.pov.double_illuminate:
File.write("double_illuminate\n")
if ob.pov.sturm:
File.write("sturm\n")
if ob.pov.no_shadow:
File.write("no_shadow\n")
if ob.pov.no_image:
File.write("no_image\n")
if ob.pov.no_reflection:
File.write("no_reflection\n")
if ob.pov.no_radiosity:
File.write("no_radiosity\n")
if ob.pov.inverse:
File.write("inverse\n")
if ob.pov.hierarchy:
File.write("hierarchy\n")
if scene.pov.photon_enable:
File.write("photons {\n")
if ob.pov.target:
File.write("target %.4g\n"%ob.pov.target_value)
if ob.pov.refraction:
File.write("refraction on\n")
if ob.pov.reflection:
File.write("reflection on\n")
if ob.pov.pass_through:
File.write("pass_through\n")
File.write("}\n")
# if ob.pov.object_ior > 1:
# File.write("interior {\n")
# File.write("ior %.4g\n"%ob.pov.object_ior)
# if scene.pov.photon_enable and ob.pov.target and ob.pov.refraction and ob.pov.dispersion:
# File.write("ior %.4g\n"%ob.pov.dispersion_value)
# File.write("ior %s\n"%ob.pov.dispersion_samples)
# if scene.pov.photon_enable == False:
# File.write("caustics %.4g\n"%ob.pov.fake_caustics_power)
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def exportPattern(texture):
tex=texture
pat = tex.pov
PATname = "PAT_%s"%string_strip_hyphen(bpy.path.clean_name(tex.name))
mappingDif = ("translate <%.4g,%.4g,%.4g> scale <%.4g,%.4g,%.4g>" % \
(pat.tex_mov_x, pat.tex_mov_y, pat.tex_mov_z,
1.0 / pat.tex_scale_x, 1.0 / pat.tex_scale_y, 1.0 / pat.tex_scale_z))
texStrg=""
def exportColorRamp(texture):
tex=texture
pat = tex.pov
colRampStrg="color_map {\n"
numColor=0
for el in tex.color_ramp.elements:
numColor+=1
pos = el.position
col=el.color
colR,colG,colB,colA = col[0],col[1],col[2],1-col[3]
if pat.tex_pattern_type not in {'checker', 'hexagon', 'square', 'triangular', 'brick'} :
colRampStrg+="[%.4g color rgbf<%.4g,%.4g,%.4g,%.4g>] \n"%(pos,colR,colG,colB,colA)
if pat.tex_pattern_type in {'brick','checker'} and numColor < 3:
colRampStrg+="color rgbf<%.4g,%.4g,%.4g,%.4g> \n"%(colR,colG,colB,colA)
if pat.tex_pattern_type == 'hexagon' and numColor < 4 :
colRampStrg+="color rgbf<%.4g,%.4g,%.4g,%.4g> \n"%(colR,colG,colB,colA)
if pat.tex_pattern_type == 'square' and numColor < 5 :
colRampStrg+="color rgbf<%.4g,%.4g,%.4g,%.4g> \n"%(colR,colG,colB,colA)
if pat.tex_pattern_type == 'triangular' and numColor < 7 :
colRampStrg+="color rgbf<%.4g,%.4g,%.4g,%.4g> \n"%(colR,colG,colB,colA)
colRampStrg+="} \n"
#end color map
return colRampStrg
#much work to be done here only defaults translated for now:
#pov noise_generator 3 means perlin noise
if pat.tex_pattern_type == 'emulator':
texStrg+="pigment {\n"
####################### EMULATE BLENDER VORONOI TEXTURE ####################
if tex.type == 'VORONOI':
texStrg+="crackle\n"
texStrg+=" offset %.4g\n"%tex.nabla
texStrg+=" form <%.4g,%.4g,%.4g>\n"%(tex.weight_1, tex.weight_2, tex.weight_3)
if tex.distance_metric == 'DISTANCE':
texStrg+=" metric 2.5\n"
if tex.distance_metric == 'DISTANCE_SQUARED':
texStrg+=" metric 2.5\n"
texStrg+=" poly_wave 2\n"
if tex.distance_metric == 'MINKOVSKY':
texStrg+=" metric %s\n"%tex.minkovsky_exponent
if tex.distance_metric == 'MINKOVSKY_FOUR':
texStrg+=" metric 4\n"
if tex.distance_metric == 'MINKOVSKY_HALF':
texStrg+=" metric 0.5\n"
if tex.distance_metric == 'CHEBYCHEV':
texStrg+=" metric 10\n"
if tex.distance_metric == 'MANHATTAN':
texStrg+=" metric 1\n"
if tex.color_mode == 'POSITION':
texStrg+="solid\n"
texStrg+="scale 0.25\n"
if tex.use_color_ramp == True:
texStrg+=exportColorRamp(tex)
else:
texStrg+="color_map {\n"
texStrg+="[0 color rgbt<0,0,0,1>]\n"
texStrg+="[1 color rgbt<1,1,1,0>]\n"
texStrg+="}\n"
####################### EMULATE BLENDER CLOUDS TEXTURE ####################
if tex.type == 'CLOUDS':
if tex.noise_type == 'SOFT_NOISE':
texStrg+="wrinkles\n"
texStrg+="scale 0.25\n"
else:
texStrg+="granite\n"
if tex.use_color_ramp == True:
texStrg+=exportColorRamp(tex)
else:
texStrg+="color_map {\n"
texStrg+="[0 color rgbt<0,0,0,1>]\n"
texStrg+="[1 color rgbt<1,1,1,0>]\n"
texStrg+="}\n"
####################### EMULATE BLENDER WOOD TEXTURE ####################
if tex.type == 'WOOD':
if tex.wood_type == 'RINGS':
texStrg+="wood\n"
texStrg+="scale 0.25\n"
if tex.wood_type == 'RINGNOISE':
texStrg+="wood\n"
texStrg+="scale 0.25\n"
texStrg+="turbulence %.4g\n"%(tex.turbulence/100)
if tex.wood_type == 'BANDS':
texStrg+="marble\n"
texStrg+="scale 0.25\n"
texStrg+="rotate <45,-45,45>\n"
if tex.wood_type == 'BANDNOISE':
texStrg+="marble\n"
texStrg+="scale 0.25\n"
texStrg+="rotate <45,-45,45>\n"
texStrg+="turbulence %.4g\n"%(tex.turbulence/10)
if tex.noise_basis_2 == 'SIN':
texStrg+="sine_wave\n"
if tex.noise_basis_2 == 'TRI':
texStrg+="triangle_wave\n"
if tex.noise_basis_2 == 'SAW':
texStrg+="ramp_wave\n"
if tex.use_color_ramp == True:
texStrg+=exportColorRamp(tex)
else:
texStrg+="color_map {\n"
texStrg+="[0 color rgbt<0,0,0,0>]\n"
texStrg+="[1 color rgbt<1,1,1,0>]\n"
texStrg+="}\n"
####################### EMULATE BLENDER STUCCI TEXTURE ####################
if tex.type == 'STUCCI':
texStrg+="bozo\n"
texStrg+="scale 0.25\n"
if tex.noise_type == 'HARD_NOISE':
texStrg+="triangle_wave\n"
if tex.use_color_ramp == True:
texStrg+=exportColorRamp(tex)
else:
texStrg+="color_map {\n"
texStrg+="[0 color rgbf<1,1,1,0>]\n"
texStrg+="[1 color rgbt<0,0,0,1>]\n"
texStrg+="}\n"
else:
if tex.use_color_ramp == True:
texStrg+=exportColorRamp(tex)
else:
texStrg+="color_map {\n"
texStrg+="[0 color rgbf<0,0,0,1>]\n"
texStrg+="[1 color rgbt<1,1,1,0>]\n"
texStrg+="}\n"
####################### EMULATE BLENDER MAGIC TEXTURE ####################
if tex.type == 'MAGIC':
texStrg+="leopard\n"
if tex.use_color_ramp == True:
texStrg+=exportColorRamp(tex)
else:
texStrg+="color_map {\n"
texStrg+="[0 color rgbt<1,1,1,0.5>]\n"
texStrg+="[0.25 color rgbf<0,1,0,0.75>]\n"
texStrg+="[0.5 color rgbf<0,0,1,0.75>]\n"
texStrg+="[0.75 color rgbf<1,0,1,0.75>]\n"
texStrg+="[1 color rgbf<0,1,0,0.75>]\n"
texStrg+="}\n"
texStrg+="scale 0.1\n"
####################### EMULATE BLENDER MARBLE TEXTURE ####################
if tex.type == 'MARBLE':
texStrg+="marble\n"
texStrg+="turbulence 0.5\n"
texStrg+="noise_generator 3\n"
texStrg+="scale 0.75\n"
texStrg+="rotate <45,-45,45>\n"
if tex.use_color_ramp == True:
texStrg+=exportColorRamp(tex)
else:
if tex.marble_type == 'SOFT':
texStrg+="color_map {\n"
texStrg+="[0 color rgbt<0,0,0,0>]\n"
texStrg+="[0.05 color rgbt<0,0,0,0>]\n"
texStrg+="[1 color rgbt<0.9,0.9,0.9,0>]\n"
texStrg+="}\n"
elif tex.marble_type == 'SHARP':
texStrg+="color_map {\n"
texStrg+="[0 color rgbt<0,0,0,0>]\n"
texStrg+="[0.025 color rgbt<0,0,0,0>]\n"
texStrg+="[1 color rgbt<0.9,0.9,0.9,0>]\n"
texStrg+="}\n"
else:
texStrg+="[0 color rgbt<0,0,0,0>]\n"
texStrg+="[1 color rgbt<1,1,1,0>]\n"
texStrg+="}\n"
if tex.noise_basis_2 == 'SIN':
texStrg+="sine_wave\n"
if tex.noise_basis_2 == 'TRI':
texStrg+="triangle_wave\n"
if tex.noise_basis_2 == 'SAW':
texStrg+="ramp_wave\n"
####################### EMULATE BLENDER BLEND TEXTURE ####################
if tex.type == 'BLEND':
if tex.progression=='RADIAL':
texStrg+="radial\n"
if tex.use_flip_axis=='HORIZONTAL':
texStrg+="rotate x*90\n"
else:
texStrg+="rotate <-90,0,90>\n"
texStrg+="ramp_wave\n"
elif tex.progression=='SPHERICAL':
texStrg+="spherical\n"
texStrg+="scale 3\n"
texStrg+="poly_wave 1\n"
elif tex.progression=='QUADRATIC_SPHERE':
texStrg+="spherical\n"
texStrg+="scale 3\n"
texStrg+=" poly_wave 2\n"
elif tex.progression=='DIAGONAL':
texStrg+="gradient <1,1,0>\n"
texStrg+="scale 3\n"
elif tex.use_flip_axis=='HORIZONTAL':
texStrg+="gradient x\n"
texStrg+="scale 2.01\n"
elif tex.use_flip_axis=='VERTICAL':
texStrg+="gradient y\n"
texStrg+="scale 2.01\n"
#texStrg+="ramp_wave\n"
#texStrg+="frequency 0.5\n"
texStrg+="phase 0.5\n"
if tex.use_color_ramp == True:
texStrg+=exportColorRamp(tex)
else:
texStrg+="color_map {\n"
texStrg+="[0 color rgbt<1,1,1,0>]\n"
texStrg+="[1 color rgbf<0,0,0,1>]\n"
texStrg+="}\n"
if tex.progression == 'LINEAR':
texStrg+=" poly_wave 1\n"
if tex.progression == 'QUADRATIC':
texStrg+=" poly_wave 2\n"
if tex.progression == 'EASING':
texStrg+=" poly_wave 1.5\n"
####################### EMULATE BLENDER MUSGRAVE TEXTURE ####################
# if tex.type == 'MUSGRAVE':
# texStrg+="function{ f_ridged_mf( x, y, 0, 1, 2, 9, -0.5, 3,3 )*0.5}\n"
# texStrg+="color_map {\n"
# texStrg+="[0 color rgbf<0,0,0,1>]\n"
# texStrg+="[1 color rgbf<1,1,1,0>]\n"
# texStrg+="}\n"
# simplified for now:
if tex.type == 'MUSGRAVE':
texStrg+="bozo scale 0.25 \n"
if tex.use_color_ramp == True:
texStrg+=exportColorRamp(tex)
else:
texStrg+="color_map {[0.5 color rgbf<0,0,0,1>][1 color rgbt<1,1,1,0>]}ramp_wave \n"
####################### EMULATE BLENDER DISTORTED NOISE TEXTURE ####################
if tex.type == 'DISTORTED_NOISE':
texStrg+="average\n"
texStrg+=" pigment_map {\n"
texStrg+=" [1 bozo scale 0.25 turbulence %.4g\n" %tex.distortion
if tex.use_color_ramp == True:
texStrg+=exportColorRamp(tex)
else:
texStrg+="color_map {\n"
texStrg+="[0 color rgbt<1,1,1,0>]\n"
texStrg+="[1 color rgbf<0,0,0,1>]\n"
texStrg+="}\n"
texStrg+="]\n"
if tex.noise_distortion == 'CELL_NOISE':
texStrg+=" [1 cells scale 0.1\n"
if tex.use_color_ramp == True:
texStrg+=exportColorRamp(tex)
else:
texStrg+="color_map {\n"
texStrg+="[0 color rgbt<1,1,1,0>]\n"
texStrg+="[1 color rgbf<0,0,0,1>]\n"
texStrg+="}\n"
texStrg+="]\n"
if tex.noise_distortion=='VORONOI_CRACKLE':
texStrg+=" [1 crackle scale 0.25\n"
if tex.use_color_ramp == True:
texStrg+=exportColorRamp(tex)
else:
texStrg+="color_map {\n"
texStrg+="[0 color rgbt<1,1,1,0>]\n"
texStrg+="[1 color rgbf<0,0,0,1>]\n"
texStrg+="}\n"
texStrg+="]\n"
if tex.noise_distortion in ['VORONOI_F1','VORONOI_F2','VORONOI_F3','VORONOI_F4','VORONOI_F2_F1']:
texStrg+=" [1 crackle metric 2.5 scale 0.25 turbulence %.4g\n" %(tex.distortion/2)
if tex.use_color_ramp == True:
texStrg+=exportColorRamp(tex)
else:
texStrg+="color_map {\n"
texStrg+="[0 color rgbt<1,1,1,0>]\n"
texStrg+="[1 color rgbf<0,0,0,1>]\n"
texStrg+="}\n"
texStrg+="]\n"
else:
texStrg+=" [1 wrinkles scale 0.25\n"
if tex.use_color_ramp == True:
texStrg+=exportColorRamp(tex)
else:
texStrg+="color_map {\n"
texStrg+="[0 color rgbt<1,1,1,0>]\n"
texStrg+="[1 color rgbf<0,0,0,1>]\n"
texStrg+="}\n"
texStrg+="]\n"
texStrg+=" }\n"
####################### EMULATE BLENDER NOISE TEXTURE ####################
if tex.type == 'NOISE':
texStrg+="cells\n"
texStrg+="turbulence 3\n"
texStrg+="omega 3\n"
if tex.use_color_ramp == True:
texStrg+=exportColorRamp(tex)
else:
texStrg+="color_map {\n"
texStrg+="[0.75 color rgb<0,0,0,>]\n"
texStrg+="[1 color rgb<1,1,1,>]\n"
texStrg+="}\n"
####################### IGNORE OTHER BLENDER TEXTURE ####################
else: #non translated textures
pass
texStrg+="}\n\n"
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texStrg+="#declare f%s=\n"%PATname
texStrg+="function{pigment{%s}}\n"%PATname
texStrg+="\n"
else:
texStrg+="pigment {\n"
texStrg+="%s\n"%pat.tex_pattern_type
if pat.tex_pattern_type == 'agate':
texStrg+="agate_turb %.4g\n"%pat.modifier_turbulence
if pat.tex_pattern_type in {'spiral1', 'spiral2', 'tiling'}:
texStrg+="%s\n"%pat.modifier_numbers
if pat.tex_pattern_type == 'quilted':
texStrg+="control0 %s control1 %s\n"%(pat.modifier_control0, pat.modifier_control1)
if pat.tex_pattern_type == 'mandel':
texStrg+="%s exponent %s \n"%(pat.f_iter, pat.f_exponent)
if pat.tex_pattern_type == 'julia':
texStrg+="<%.4g, %.4g> %s exponent %s \n"%(pat.julia_complex_1, pat.julia_complex_2, pat.f_iter, pat.f_exponent)
if pat.tex_pattern_type == 'magnet' and pat.magnet_style == 'mandel':
texStrg+="%s mandel %s \n"%(pat.magnet_type, pat.f_iter)
if pat.tex_pattern_type == 'magnet' and pat.magnet_style == 'julia':
texStrg+="%s julia <%.4g, %.4g> %s\n"%(pat.magnet_type, pat.julia_complex_1, pat.julia_complex_2, pat.f_iter)
if pat.tex_pattern_type in {'mandel', 'julia', 'magnet'}:
texStrg+="interior %s, %.4g\n"%(pat.f_ior, pat.f_ior_fac)
texStrg+="exterior %s, %.4g\n"%(pat.f_eor, pat.f_eor_fac)
if pat.tex_pattern_type == 'gradient':
texStrg+="<%s, %s, %s> \n"%(pat.grad_orient_x, pat.grad_orient_y, pat.grad_orient_z)
if pat.tex_pattern_type == 'pavement':
numTiles=pat.pave_tiles
numPattern=1
if pat.pave_sides == '4' and pat.pave_tiles == 3:
numPattern = pat.pave_pat_2
if pat.pave_sides == '6' and pat.pave_tiles == 3:
numPattern = pat.pave_pat_3
if pat.pave_sides == '3' and pat.pave_tiles == 4:
numPattern = pat.pave_pat_3
if pat.pave_sides == '3' and pat.pave_tiles == 5:
numPattern = pat.pave_pat_4
if pat.pave_sides == '4' and pat.pave_tiles == 4:
numPattern = pat.pave_pat_5
if pat.pave_sides == '6' and pat.pave_tiles == 4:
numPattern = pat.pave_pat_7
if pat.pave_sides == '4' and pat.pave_tiles == 5:
numPattern = pat.pave_pat_12
if pat.pave_sides == '3' and pat.pave_tiles == 6:
numPattern = pat.pave_pat_12
if pat.pave_sides == '6' and pat.pave_tiles == 5:
numPattern = pat.pave_pat_22
if pat.pave_sides == '4' and pat.pave_tiles == 6:
numPattern = pat.pave_pat_35
if pat.pave_sides == '6' and pat.pave_tiles == 6:
numTiles = 5
texStrg+="number_of_sides %s number_of_tiles %s pattern %s form %s \n"%(pat.pave_sides, numTiles, numPattern, pat.pave_form)
################ functions #####################################################################################################
if pat.tex_pattern_type == 'function':
texStrg+="{ %s"%pat.func_list
texStrg+="(x"
if pat.func_plus_x != "NONE":
if pat.func_plus_x =='increase':
texStrg+="*"
if pat.func_plus_x =='plus':
texStrg+="+"
texStrg+="%.4g"%pat.func_x
texStrg+=",y"
if pat.func_plus_y != "NONE":
if pat.func_plus_y =='increase':
texStrg+="*"
if pat.func_plus_y =='plus':
texStrg+="+"
texStrg+="%.4g"%pat.func_y
texStrg+=",z"
if pat.func_plus_z != "NONE":
if pat.func_plus_z =='increase':
texStrg+="*"
if pat.func_plus_z =='plus':
texStrg+="+"
texStrg+="%.4g"%pat.func_z
sort = -1
if pat.func_list in {"f_comma","f_crossed_trough","f_cubic_saddle","f_cushion","f_devils_curve",
"f_enneper","f_glob","f_heart","f_hex_x","f_hex_y","f_hunt_surface",
"f_klein_bottle","f_kummer_surface_v1","f_lemniscate_of_gerono","f_mitre",
"f_nodal_cubic","f_noise_generator","f_odd","f_paraboloid","f_pillow",
"f_piriform","f_quantum","f_quartic_paraboloid","f_quartic_saddle",
"f_sphere","f_steiners_roman","f_torus_gumdrop","f_umbrella"}:
sort = 0
if pat.func_list in {"f_bicorn","f_bifolia","f_boy_surface","f_superellipsoid","f_torus"}:
sort = 1
if pat.func_list in {"f_ellipsoid","f_folium_surface","f_hyperbolic_torus",
"f_kampyle_of_eudoxus","f_parabolic_torus","f_quartic_cylinder","f_torus2"}:
sort = 2
if pat.func_list in {"f_blob2","f_cross_ellipsoids","f_flange_cover","f_isect_ellipsoids",
"f_kummer_surface_v2","f_ovals_of_cassini","f_rounded_box","f_spikes_2d","f_strophoid"}:
sort = 3
if pat.func_list in {"f_algbr_cyl1","f_algbr_cyl2","f_algbr_cyl3","f_algbr_cyl4","f_blob","f_mesh1","f_poly4","f_spikes"}:
sort = 4
if pat.func_list in {"f_devils_curve_2d","f_dupin_cyclid","f_folium_surface_2d","f_hetero_mf","f_kampyle_of_eudoxus_2d",
"f_lemniscate_of_gerono_2d","f_polytubes","f_ridge","f_ridged_mf","f_spiral","f_witch_of_agnesi"}:
sort = 5
if pat.func_list in {"f_helix1","f_helix2","f_piriform_2d","f_strophoid_2d"}:
sort = 6
if pat.func_list == "f_helical_torus":
sort = 7
if sort > -1:
texStrg+=",%.4g"%pat.func_P0
if sort > 0:
texStrg+=",%.4g"%pat.func_P1
if sort > 1:
texStrg+=",%.4g"%pat.func_P2
if sort > 2:
texStrg+=",%.4g"%pat.func_P3
if sort > 3:
texStrg+=",%.4g"%pat.func_P4
if sort > 4:
texStrg+=",%.4g"%pat.func_P5
if sort > 5:
texStrg+=",%.4g"%pat.func_P6
if sort > 6:
texStrg+=",%.4g"%pat.func_P7
texStrg+=",%.4g"%pat.func_P8
texStrg+=",%.4g"%pat.func_P9
texStrg+=")}\n"
############## end functions ###############################################################
if pat.tex_pattern_type not in {'checker', 'hexagon', 'square', 'triangular', 'brick'}:
texStrg+="color_map {\n"
numColor=0
if tex.use_color_ramp == True:
for el in tex.color_ramp.elements:
numColor+=1
pos = el.position
col=el.color
colR,colG,colB,colA = col[0],col[1],col[2],1-col[3]
if pat.tex_pattern_type not in {'checker', 'hexagon', 'square', 'triangular', 'brick'} :
texStrg+="[%.4g color rgbf<%.4g,%.4g,%.4g,%.4g>] \n"%(pos,colR,colG,colB,colA)
if pat.tex_pattern_type in {'brick','checker'} and numColor < 3:
texStrg+="color rgbf<%.4g,%.4g,%.4g,%.4g> \n"%(colR,colG,colB,colA)
if pat.tex_pattern_type == 'hexagon' and numColor < 4 :
texStrg+="color rgbf<%.4g,%.4g,%.4g,%.4g> \n"%(colR,colG,colB,colA)
if pat.tex_pattern_type == 'square' and numColor < 5 :
texStrg+="color rgbf<%.4g,%.4g,%.4g,%.4g> \n"%(colR,colG,colB,colA)
if pat.tex_pattern_type == 'triangular' and numColor < 7 :
texStrg+="color rgbf<%.4g,%.4g,%.4g,%.4g> \n"%(colR,colG,colB,colA)
else:
texStrg+="[0 color rgbf<0,0,0,1>]\n"
texStrg+="[1 color rgbf<1,1,1,0>]\n"
if pat.tex_pattern_type not in {'checker', 'hexagon', 'square', 'triangular', 'brick'} :
texStrg+="} \n"
if pat.tex_pattern_type == 'brick':
texStrg+="brick_size <%.4g, %.4g, %.4g> mortar %.4g \n"%(pat.brick_size_x, pat.brick_size_y, pat.brick_size_z, pat.brick_mortar)
texStrg+="%s \n"%mappingDif
texStrg+="rotate <%.4g,%.4g,%.4g> \n"%(pat.tex_rot_x, pat.tex_rot_y, pat.tex_rot_z)
texStrg+="turbulence <%.4g,%.4g,%.4g> \n"%(pat.warp_turbulence_x, pat.warp_turbulence_y, pat.warp_turbulence_z)
texStrg+="octaves %s \n"%pat.modifier_octaves
texStrg+="lambda %.4g \n"%pat.modifier_lambda
texStrg+="omega %.4g \n"%pat.modifier_omega
texStrg+="frequency %.4g \n"%pat.modifier_frequency
texStrg+="phase %.4g \n"%pat.modifier_phase
texStrg+="}\n\n"
texStrg+="#declare f%s=\n"%PATname
texStrg+="function{pigment{%s}}\n"%PATname
texStrg+="\n"
return(texStrg)
Campbell Barton
committed
import mathutils
# Only for testing
if not scene:
scene = bpy.data.scenes[0]
render = scene.render
world = scene.world
global_matrix = mathutils.Matrix.Rotation(-pi / 2.0, 4, 'X')
comments = scene.pov.comments_enable and not scene.pov.tempfiles_enable
linebreaksinlists = scene.pov.list_lf_enable and not scene.pov.tempfiles_enable
feature_set = bpy.context.user_preferences.addons[__package__].preferences.branch_feature_set_povray
using_uberpov = (feature_set=='uberpov')
pov_binary = PovrayRender._locate_binary()
if using_uberpov:
print("Unofficial UberPOV feature set chosen in preferences")
else:
print("Official POV-Ray 3.7 feature set chosen in preferences")
if 'uber' in pov_binary:
print("The name of the binary suggests you are probably rendering with Uber POV engine")
print("The name of the binary suggests you are probably rendering with standard POV engine")
Constantin Rahn
committed
def setTab(tabtype, spaces):
TabStr = ""
Campbell Barton
committed
if tabtype == 'NONE':
TabStr = ""
Campbell Barton
committed
elif tabtype == 'TAB':
TabStr = "\t"
Campbell Barton
committed
elif tabtype == 'SPACE':
TabStr = spaces * " "
Constantin Rahn
committed
return TabStr
Bastien Montagne
committed
tab = setTab(scene.pov.indentation_character, scene.pov.indentation_spaces)
if not scene.pov.tempfiles_enable:
def tabWrite(str_o):
global tabLevel
brackets = str_o.count("{") - str_o.count("}") + str_o.count("[") - str_o.count("]")
if brackets < 0:
tabLevel = tabLevel + brackets
if tabLevel < 0:
print("Indentation Warning: tabLevel = %s" % tabLevel)
tabLevel = 0
if tabLevel >= 1:
file.write("%s" % tab * tabLevel)
file.write(str_o)
if brackets > 0:
tabLevel = tabLevel + brackets
Constantin Rahn
committed
def uniqueName(name, nameSeq):
if name not in nameSeq:
return name
name_orig = name
i = 1
while name in nameSeq:
name = "%s_%.3d" % (name_orig, i)
tabWrite("matrix <%.6f, %.6f, %.6f, %.6f, %.6f, %.6f, %.6f, %.6f, %.6f, %.6f, %.6f, %.6f>\n" %
(matrix[0][0], matrix[1][0], matrix[2][0],
matrix[0][1], matrix[1][1], matrix[2][1],
matrix[0][2], matrix[1][2], matrix[2][2],
matrix[0][3], matrix[1][3], matrix[2][3]))
Bastien Montagne
committed
def MatrixAsPovString(matrix):
sMatrix = ("matrix <%.6f, %.6f, %.6f, %.6f, %.6f, %.6f, %.6f, %.6f, %.6f, %.6f, %.6f, %.6f>\n" %
(matrix[0][0], matrix[1][0], matrix[2][0],
matrix[0][1], matrix[1][1], matrix[2][1],
matrix[0][2], matrix[1][2], matrix[2][2],
matrix[0][3], matrix[1][3], matrix[2][3]))
Bastien Montagne
committed
return sMatrix
def writeObjectMaterial(material, ob):
Doug Hammond
committed
# DH - modified some variables to be function local, avoiding RNA write
# this should be checked to see if it is functionally correct
Bastien Montagne
committed
# Commented out: always write IOR to be able to use it for SSS, Fresnel reflections...
#if material and material.transparency_method == 'RAYTRACE':
if material:
# But there can be only one!
if material.subsurface_scattering.use: # SSS IOR get highest priority
tabWrite("interior {\n")
tabWrite("ior %.6f\n" % material.subsurface_scattering.ior)
Bastien Montagne
committed
# Then the raytrace IOR taken from raytrace transparency properties and used for
# reflections if IOR Mirror option is checked.
elif material.pov.mirror_use_IOR:
tabWrite("interior {\n")
tabWrite("ior %.6f\n" % material.raytrace_transparency.ior)
tabWrite("interior {\n")
tabWrite("ior %.6f\n" % material.raytrace_transparency.ior)
Doug Hammond
committed
pov_fake_caustics = False
pov_photons_refraction = False
pov_photons_reflection = False
Bastien Montagne
committed
if material.pov.photons_reflection:
Bastien Montagne
committed
if material.pov.refraction_type == "0":
Doug Hammond
committed
pov_fake_caustics = False
pov_photons_refraction = False
Bastien Montagne
committed
elif material.pov.refraction_type == "1":
Doug Hammond
committed
pov_fake_caustics = True
pov_photons_refraction = False
Bastien Montagne
committed
elif material.pov.refraction_type == "2":
Doug Hammond
committed
pov_fake_caustics = False
pov_photons_refraction = True
Bastien Montagne
committed
# If only Raytrace transparency is set, its IOR will be used for refraction, but user
# can set up 'un-physical' fresnel reflections in raytrace mirror parameters.
# Last, if none of the above is specified, user can set up 'un-physical' fresnel
# reflections in raytrace mirror parameters. And pov IOR defaults to 1.
if material.pov.caustics_enable:
Doug Hammond
committed
if pov_fake_caustics:
Bastien Montagne
committed
tabWrite("caustics %.3g\n" % material.pov.fake_caustics_power)
Maurice Raybaud
committed
if pov_photons_refraction:
Bastien Montagne
committed
# Default of 1 means no dispersion
tabWrite("dispersion %.6f\n" % material.pov.photons_dispersion)
Maurice Raybaud
committed
tabWrite("dispersion_samples %.d\n" % material.pov.photons_dispersion_samples)
if material.use_transparency and material.transparency_method == 'RAYTRACE':
# fade_distance
Bastien Montagne
committed
# In Blender this value has always been reversed compared to what tooltip says.
# 100.001 rather than 100 so that it does not get to 0
# which deactivates the feature in POV
Bastien Montagne
committed
tabWrite("fade_distance %.3g\n" % \
(100.001 - material.raytrace_transparency.depth_max))
# fade_power
tabWrite("fade_power %.3g\n" % material.raytrace_transparency.falloff)
# fade_color
Bastien Montagne
committed
tabWrite("fade_color <%.3g, %.3g, %.3g>\n" % material.pov.interior_fade_color[:])
# (variable) dispersion_samples (constant count for now)
tabWrite("}\n")
if material.pov.photons_reflection or material.pov.refraction_type=="2":
tabWrite("photons{")
Maurice Raybaud
committed
tabWrite("target %.3g\n" % ob.pov.spacing_multiplier)
if not ob.pov.collect_photons:
tabWrite("collect off\n")
if pov_photons_refraction:
tabWrite("refraction on\n")
if pov_photons_reflection:
tabWrite("reflection on\n")
tabWrite("}\n")
DEF_MAT_NAME = "" #or "Default"?
def writeMaterial(material):
# Assumes only called once on each material
if material:
name_orig = material.name
name = materialNames[name_orig] = uniqueName(bpy.path.clean_name(name_orig), materialNames)
name = name_orig = DEF_MAT_NAME
Maurice Raybaud
committed
if material:
# If saturation(.s) is not zero, then color is not grey, and has a tint
colored_specular_found = (material.specular_color.s > 0.0)
Bastien Montagne
committed
##################
# Several versions of the finish: Level conditions are variations for specular/Mirror
# texture channel map with alternative finish of 0 specular and no mirror reflection.
# Level=1 Means No specular nor Mirror reflection
# Level=2 Means translation of spec and mir levels for when no map influences them
# Level=3 Means Maximum Spec and Mirror
def povHasnoSpecularMaps(Level):
tabWrite("#declare %s = finish {" % safety(name, Level=1))
file.write(" //No specular nor Mirror reflection\n")
tabWrite("\n")
tabWrite("#declare %s = finish {" % safety(name, Level=2))
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file.write(" //translation of spec and mir levels for when no map " \
"influences them\n")
tabWrite("\n")
tabWrite("#declare %s = finish {" % safety(name, Level=3))
file.write(" //Maximum Spec and Mirror\n")
tabWrite("\n")
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# POV-Ray 3.7 now uses two diffuse values respectively for front and back shading
# (the back diffuse is like blender translucency)
frontDiffuse = material.diffuse_intensity
backDiffuse = material.translucency
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if material.pov.conserve_energy:
#Total should not go above one
if (frontDiffuse + backDiffuse) <= 1.0:
pass
elif frontDiffuse == backDiffuse:
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# Try to respect the user's 'intention' by comparing the two values but
# bringing the total back to one.
frontDiffuse = backDiffuse = 0.5
# Let the highest value stay the highest value.
elif frontDiffuse > backDiffuse:
# clamps the sum below 1
backDiffuse = min(backDiffuse, (1.0 - frontDiffuse))
# map hardness between 0.0 and 1.0
roughness = ((1.0 - ((material.specular_hardness - 1.0) / 510.0)))
## scale from 0.0 to 0.1
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# add a small value because 0.0 is invalid.
roughness += (1.0 / 511.0)
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################################Diffuse Shader######################################
# Not used for Full spec (Level=3) of the shader.
if material.diffuse_shader == 'OREN_NAYAR' and Level != 3:
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# Blender roughness is what is generally called oren nayar Sigma,
# and brilliance in POV-Ray.
tabWrite("brilliance %.3g\n" % (0.9 + material.roughness))
if material.diffuse_shader == 'TOON' and Level != 3:
tabWrite("brilliance %.3g\n" % (0.01 + material.diffuse_toon_smooth * 0.25))
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# Lower diffuse and increase specular for toon effect seems to look better
# in POV-Ray.
frontDiffuse *= 0.5
if material.diffuse_shader == 'MINNAERT' and Level != 3:
#tabWrite("aoi %.3g\n" % material.darkness)
pass # let's keep things simple for now
if material.diffuse_shader == 'FRESNEL' and Level != 3:
#tabWrite("aoi %.3g\n" % material.diffuse_fresnel_factor)
pass # let's keep things simple for now
if material.diffuse_shader == 'LAMBERT' and Level != 3:
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# trying to best match lambert attenuation by that constant brilliance value
tabWrite("brilliance 1.8\n")
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###########################Specular Shader######################################
# No difference between phong and cook torrence in blender HaHa!
if (material.specular_shader == 'COOKTORR' or
material.specular_shader == 'PHONG'):
tabWrite("phong %.3g\n" % (material.specular_intensity))
tabWrite("phong_size %.3g\n" % (material.specular_hardness / 2 + 0.25))
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# POV-Ray 'specular' keyword corresponds to a Blinn model, without the ior.
elif material.specular_shader == 'BLINN':
# Use blender Blinn's IOR just as some factor for spec intensity
tabWrite("specular %.3g\n" % (material.specular_intensity *
(material.specular_ior / 4.0)))
tabWrite("roughness %.3g\n" % roughness)
#Could use brilliance 2(or varying around 2 depending on ior or factor) too.
elif material.specular_shader == 'TOON':
tabWrite("phong %.3g\n" % (material.specular_intensity * 2.0))
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# use extreme phong_size
tabWrite("phong_size %.3g\n" % (0.1 + material.specular_toon_smooth / 2.0))
elif material.specular_shader == 'WARDISO':
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# find best suited default constant for brilliance Use both phong and
# specular for some values.
tabWrite("specular %.3g\n" % (material.specular_intensity /
(material.specular_slope + 0.0005)))
# find best suited default constant for brilliance Use both phong and
# specular for some values.
tabWrite("roughness %.4g\n" % (0.0005 + material.specular_slope / 10.0))
# find best suited default constant for brilliance Use both phong and
# specular for some values.
tabWrite("brilliance %.4g\n" % (1.8 - material.specular_slope * 1.8))
####################################################################################
tabWrite("specular 0\n")
tabWrite("specular 1\n")
tabWrite("diffuse %.3g %.3g\n" % (frontDiffuse, backDiffuse))
tabWrite("ambient %.3g\n" % material.ambient)
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# POV-Ray blends the global value
#tabWrite("ambient rgb <%.3g, %.3g, %.3g>\n" % \
# tuple([c*material.ambient for c in world.ambient_color]))
tabWrite("emission %.3g\n" % material.emit) # New in POV-Ray 3.7
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#POV-Ray just ignores roughness if there's no specular keyword
#tabWrite("roughness %.3g\n" % roughness)
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if material.pov.conserve_energy:
# added for more realistic shading. Needs some checking to see if it
# really works. --Maurice.
tabWrite("conserve_energy\n")
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if colored_specular_found == True:
tabWrite("metallic\n")
# 'phong 70.0 '
if Level != 1:
if material.raytrace_mirror.use:
raytrace_mirror = material.raytrace_mirror
if raytrace_mirror.reflect_factor:
tabWrite("reflection {\n")
tabWrite("rgb <%.3g, %.3g, %.3g>\n" % material.mirror_color[:])
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if material.pov.mirror_metallic:
tabWrite("metallic %.3g\n" % (raytrace_mirror.reflect_factor))
# Blurry reflections for UberPOV
if using_uberpov and raytrace_mirror.gloss_factor < 1.0:
#tabWrite("#ifdef(unofficial) #if(unofficial = \"patch\") #if(patch(\"upov-reflection-roughness\") > 0)\n")
tabWrite("roughness %.6f\n" % \
(0.000001/raytrace_mirror.gloss_factor))
#tabWrite("#end #end #end\n") # This and previous comment for backward compatibility, messier pov code
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if material.pov.mirror_use_IOR: # WORKING ?
# Removed from the line below: gives a more physically correct
# material but needs proper IOR. --Maurice
tabWrite("fresnel 1 ")
tabWrite("falloff %.3g exponent %.3g} " % \
(raytrace_mirror.fresnel, raytrace_mirror.fresnel_factor))
if material.subsurface_scattering.use:
subsurface_scattering = material.subsurface_scattering
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tabWrite("subsurface { translucency <%.3g, %.3g, %.3g> }\n" % (
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(subsurface_scattering.radius[0]),
(subsurface_scattering.radius[1]),
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)
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if material.pov.irid_enable:
tabWrite("irid { %.4g thickness %.4g turbulence %.4g }" % \
(material.pov.irid_amount, material.pov.irid_thickness,
material.pov.irid_turbulence))
tabWrite("diffuse 0.8\n")
tabWrite("phong 70.0\n")
#tabWrite("specular 0.2\n")
# This is written into the object
'''
if material and material.transparency_method=='RAYTRACE':
'interior { ior %.3g} ' % material.raytrace_transparency.ior
'''
#tabWrite("crand 1.0\n") # Sand granyness
#tabWrite("metallic %.6f\n" % material.spec)
#tabWrite("phong %.6f\n" % material.spec)
#tabWrite("phong_size %.6f\n" % material.spec)
#tabWrite("brilliance %.6f " % (material.specular_hardness/256.0) # Like hardness
tabWrite("}\n\n")
# Level=2 Means translation of spec and mir levels for when no map influences them
povHasnoSpecularMaps(Level=2)
special_texture_found = False
for t in material.texture_slots:
if t and t.use:
if (t.texture.type == 'IMAGE' and t.texture.image) or t.texture.type != 'IMAGE':
validPath=True
else:
validPath=False
if(t and t.use and validPath and
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(t.use_map_specular or t.use_map_raymir or t.use_map_normal or t.use_map_alpha)):
continue # Some texture found
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if special_texture_found or colored_specular_found:
# Level=1 Means No specular nor Mirror reflection
povHasnoSpecularMaps(Level=1)
# Level=3 Means Maximum Spec and Mirror
povHasnoSpecularMaps(Level=3)
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# DH disabled for now, this isn't the correct context
active_object = None # bpy.context.active_object # does not always work MR
matrix = global_matrix * camera.matrix_world
focal_point = camera.data.dof_distance
Qsize = render.resolution_x / render.resolution_y
tabWrite("#declare camLocation = <%.6f, %.6f, %.6f>;\n" %
matrix.translation[:])
tabWrite("#declare camLookAt = <%.6f, %.6f, %.6f>;\n" %
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tuple([degrees(e) for e in matrix.to_3x3().to_euler()]))
tabWrite("camera {\n")
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if scene.pov.baking_enable and active_object and active_object.type == 'MESH':
tabWrite("mesh_camera{ 1 3\n") # distribution 3 is what we want here
tabWrite("mesh{%s}\n" % active_object.name)
tabWrite("}\n")
tabWrite("location <0,0,.01>")
tabWrite("direction <0,0,-1>")
tabWrite("location <0, 0, 0>\n")
tabWrite("look_at <0, 0, -1>\n")
tabWrite("right <%s, 0, 0>\n" % - Qsize)
tabWrite("up <0, 1, 0>\n")
tabWrite("angle %f\n" % (360.0 * atan(16.0 / camera.data.lens) / pi))
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tabWrite("rotate <%.6f, %.6f, %.6f>\n" % \
tuple([degrees(e) for e in matrix.to_3x3().to_euler()]))
tabWrite("translate <%.6f, %.6f, %.6f>\n" % matrix.translation[:])
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if camera.data.pov.dof_enable and focal_point != 0:
tabWrite("aperture %.3g\n" % camera.data.pov.dof_aperture)
tabWrite("blur_samples %d %d\n" % \
(camera.data.pov.dof_samples_min, camera.data.pov.dof_samples_max))
tabWrite("variance 1/%d\n" % camera.data.pov.dof_variance)
tabWrite("confidence %.3g\n" % camera.data.pov.dof_confidence)
tabWrite("focal_point <0, 0, %f>\n" % focal_point)
tabWrite("}\n")
# Incremented after each lamp export to declare its target
# currently used for Fresnel diffuse shader as their slope vector:
global lampCount
lampCount = 0
# Get all lamps
for ob in lamps:
lamp = ob.data
matrix = global_matrix * ob.matrix_world
# Color is modified by energy #muiltiplie by 2 for a better match --Maurice
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color = tuple([c * lamp.energy * 2.0 for c in lamp.color])
tabWrite("light_source {\n")
tabWrite("< 0,0,0 >\n")
tabWrite("color rgb<%.3g, %.3g, %.3g>\n" % color)
tabWrite("spotlight\n")
tabWrite("falloff %.2f\n" % (degrees(lamp.spot_size) / 2.0)) # 1 TO 179 FOR BOTH
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tabWrite("radius %.6f\n" % \
((degrees(lamp.spot_size) / 2.0) * (1.0 - lamp.spot_blend)))
# Blender does not have a tightness equivilent, 0 is most like blender default.
tabWrite("tightness 0\n") # 0:10f
tabWrite("point_at <0, 0, -1>\n")
tabWrite("parallel\n")
tabWrite("point_at <0, 0, -1>\n") # *must* be after 'parallel'
tabWrite("area_illumination\n")
tabWrite("fade_distance %.6f\n" % (lamp.distance / 2.0))
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# Area lights have no falloff type, so always use blenders lamp quad equivalent
# for those?
tabWrite("fade_power %d\n" % 2)
size_x = lamp.size
samples_x = lamp.shadow_ray_samples_x
if lamp.shape == 'SQUARE':
size_y = size_x
samples_y = samples_x
else:
size_y = lamp.size_y
samples_y = lamp.shadow_ray_samples_y
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tabWrite("area_light <%.6f,0,0>,<0,%.6f,0> %d, %d\n" % \
(size_x, size_y, samples_x, samples_y))
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if lamp.shadow_ray_sample_method == 'CONSTANT_JITTERED':
if lamp.use_jitter:
tabWrite("jitter\n")
tabWrite("adaptive 1\n")
tabWrite("jitter\n")
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# HEMI never has any shadow_method attribute
if(not scene.render.use_shadows or lamp.type == 'HEMI' or
(lamp.type != 'HEMI' and lamp.shadow_method == 'NOSHADOW')):
tabWrite("shadowless\n")
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# Sun shouldn't be attenuated. Hemi and area lights have no falloff attribute so they
# are put to type 2 attenuation a little higher above.
if lamp.type not in {'SUN', 'AREA', 'HEMI'}:
tabWrite("fade_distance %.6f\n" % (lamp.distance / 2.0))
tabWrite("fade_power %d\n" % 2) # Use blenders lamp quad equivalent
tabWrite("fade_power %d\n" % 1) # Use blenders lamp linear
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# supposing using no fade power keyword would default to constant, no attenuation.
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elif lamp.falloff_type == 'CONSTANT':
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# Using Custom curve for fade power 3 for now.
elif lamp.falloff_type == 'CUSTOM_CURVE':
tabWrite("fade_power %d\n" % 4)
tabWrite("}\n")
lampCount += 1
# v(A,B) rotates vector A about origin by vector B.
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file.write("#declare lampTarget%s= vrotate(<%.4g,%.4g,%.4g>,<%.4g,%.4g,%.4g>);\n" % \
(lampCount, -(ob.location.x), -(ob.location.y), -(ob.location.z),
ob.rotation_euler.x, ob.rotation_euler.y, ob.rotation_euler.z))
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####################################################################################################
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def exportRainbows(rainbows):
for ob in rainbows:
povdataname = ob.data.name #enough?
angle = degrees(ob.data.spot_size/2.5) #radians in blender (2
width = ob.data.spot_blend *10
distance = ob.data.shadow_buffer_clip_start
#eps=0.0000001
#angle = br/(cr+eps) * 10 #eps is small epsilon variable to avoid dividing by zero
#width = ob.dimensions[2] #now let's say width of rainbow is the actual proxy height
# formerly:
#cz-bz # let's say width of the rainbow is height of the cone (interfacing choice
# v(A,B) rotates vector A about origin by vector B.
# and avoid a 0 length vector by adding 1
# file.write("#declare %s_Target= vrotate(<%.6g,%.6g,%.6g>,<%.4g,%.4g,%.4g>);\n" % \
# (povdataname, -(ob.location.x+0.1), -(ob.location.y+0.1), -(ob.location.z+0.1),
# ob.rotation_euler.x, ob.rotation_euler.y, ob.rotation_euler.z))
direction = (ob.location.x,ob.location.y,ob.location.z) # not taking matrix into account
rmatrix = global_matrix * ob.matrix_world
#ob.rotation_euler.to_matrix().to_4x4() * mathutils.Vector((0,0,1))
# XXX Is result of the below offset by 90 degrees?
up =ob.matrix_world.to_3x3()[1].xyz #* global_matrix
# XXX TO CHANGE:
#formerly:
#tabWrite("#declare %s = rainbow {\n"%povdataname)
# clumsy for now but remove the rainbow from instancing
# system because not an object. use lamps later instead of meshes
#del data_ref[dataname]
tabWrite("rainbow {\n")
tabWrite("angle %.4f\n"%angle)
tabWrite("width %.4f\n"%width)
tabWrite("distance %.4f\n"%distance)
tabWrite("arc_angle %.4f\n"%ob.pov.arc_angle)
tabWrite("falloff_angle %.4f\n"%ob.pov.falloff_angle)
tabWrite("direction <%.4f,%.4f,%.4f>\n"%rmatrix.translation[:])
tabWrite("up <%.4f,%.4f,%.4f>\n"%(up[0],up[1],up[2]))
tabWrite("color_map {\n")
tabWrite("[0.000 color rgbt<1.0, 0.5, 1.0, 1.0>]\n")
tabWrite("[0.130 color rgbt<0.5, 0.5, 1.0, 0.9>]\n")
tabWrite("[0.298 color rgbt<0.2, 0.2, 1.0, 0.7>]\n")
tabWrite("[0.412 color rgbt<0.2, 1.0, 1.0, 0.4>]\n")
tabWrite("[0.526 color rgbt<0.2, 1.0, 0.2, 0.4>]\n")
tabWrite("[0.640 color rgbt<1.0, 1.0, 0.2, 0.4>]\n")
tabWrite("[0.754 color rgbt<1.0, 0.5, 0.2, 0.6>]\n")
tabWrite("[0.900 color rgbt<1.0, 0.2, 0.2, 0.7>]\n")
tabWrite("[1.000 color rgbt<1.0, 0.2, 0.2, 1.0>]\n")
tabWrite("}\n")
povMatName = "Default_texture"
#tabWrite("texture {%s}\n"%povMatName)
write_object_modifiers(scene,ob,file)
#tabWrite("rotate x*90\n")
#matrix = global_matrix * ob.matrix_world
#writeMatrix(matrix)
tabWrite("}\n")
#continue #Don't render proxy mesh, skip to next object
################################XXX LOFT, ETC.
def exportCurves(scene, ob):
name_orig = "OB" + ob.name
dataname_orig = "DATA" + ob.data.name
name = string_strip_hyphen(bpy.path.clean_name(name_orig))
dataname = string_strip_hyphen(bpy.path.clean_name(dataname_orig))
global_matrix = mathutils.Matrix.Rotation(-pi / 2.0, 4, 'X')
matrix=global_matrix*ob.matrix_world
bezier_sweep = False
if ob.pov.curveshape == 'sphere_sweep':
for spl in ob.data.splines:
if spl.type == "BEZIER":
bezier_sweep = True
if ob.pov.curveshape in {'loft','birail'}:
n=0
for spline in ob.data.splines:
n+=1
tabWrite('#declare %s%s=spline {\n'%(dataname,n))
tabWrite('cubic_spline\n')
lp = len(spline.points)
delta = 1/(lp)
d=-delta
point = spline.points[lp-1]
x,y,z,w = point.co[:]
tabWrite('%.6f, <%.6f,%.6f,%.6f>\n'%(d,x,y,z))
d+=delta
for point in spline.points:
x,y,z,w = point.co[:]
tabWrite('%.6f, <%.6f,%.6f,%.6f>\n'%(d,x,y,z))
d+=delta
for i in range(2):
point = spline.points[i]
x,y,z,w = point.co[:]
tabWrite('%.6f, <%.6f,%.6f,%.6f>\n'%(d,x,y,z))
d+=delta
tabWrite('}\n')
if ob.pov.curveshape in {'loft'}:
n = len(ob.data.splines)
tabWrite('#declare %s = array[%s]{\n'%(dataname,(n+3)))
tabWrite('spline{%s%s},\n'%(dataname,n))
for i in range(n):
tabWrite('spline{%s%s},\n'%(dataname,(i+1)))
tabWrite('spline{%s1},\n'%(dataname))
tabWrite('spline{%s2}\n'%(dataname))
tabWrite('}\n')
# Use some of the Meshmaker.inc macro, here inlined
file.write('#macro CheckFileName(FileName)\n')
file.write(' #local Len=strlen(FileName);\n')
file.write(' #if(Len>0)\n')
file.write(' #if(file_exists(FileName))\n')
file.write(' #if(Len>=4)\n')
file.write(' #local Ext=strlwr(substr(FileName,Len-3,4))\n')
file.write(' #if (strcmp(Ext,".obj")=0 | strcmp(Ext,".pcm")=0 | strcmp(Ext,".arr")=0)\n')
file.write(' #local Return=99;\n')
file.write(' #else\n')
file.write(' #local Return=0;\n')
file.write(' #end\n')
file.write(' #else\n')
file.write(' #local Return=0;\n')
file.write(' #end\n')
file.write(' #else\n')
file.write(' #if(Len>=4)\n')
file.write(' #local Ext=strlwr(substr(FileName,Len-3,4))\n')
file.write(' #if (strcmp(Ext,".obj")=0 | strcmp(Ext,".pcm")=0 | strcmp(Ext,".arr")=0)\n')
file.write(' #if (strcmp(Ext,".obj")=0)\n')
file.write(' #local Return=2;\n')
file.write(' #end\n')
file.write(' #if (strcmp(Ext,".pcm")=0)\n')
file.write(' #local Return=3;\n')
file.write(' #end\n')
file.write(' #if (strcmp(Ext,".arr")=0)\n')
file.write(' #local Return=4;\n')
file.write(' #end\n')
file.write(' #else\n')
file.write(' #local Return=1;\n')
file.write(' #end\n')
file.write(' #else\n')
file.write(' #local Return=1;\n')
file.write(' #end\n')
file.write(' #end\n')
file.write(' #else\n')
file.write(' #local Return=1;\n')
file.write(' #end\n')
file.write(' (Return)\n')
file.write('#end\n')
file.write('#macro BuildSpline(Arr, SplType)\n')
file.write(' #local Ds=dimension_size(Arr,1);\n')
file.write(' #local Asc=asc(strupr(SplType));\n')
file.write(' #if(Asc!=67 & Asc!=76 & Asc!=81) \n')
file.write(' #local Asc=76;\n')
file.write(' #debug "\nWrong spline type defined (C/c/L/l/N/n/Q/q), using default linear_spline\\n"\n')
file.write(' #end\n')
file.write(' spline {\n')
file.write(' #switch (Asc)\n')
file.write(' #case (67) //C cubic_spline\n')
file.write(' cubic_spline\n')
file.write(' #break\n')
file.write(' #case (76) //L linear_spline\n')
file.write(' linear_spline\n')
file.write(' #break\n')
file.write(' #case (78) //N linear_spline\n')
file.write(' natural_spline\n')
file.write(' #break\n')
file.write(' #case (81) //Q Quadratic_spline\n')
file.write(' quadratic_spline\n')
file.write(' #break\n')
file.write(' #end\n')
file.write(' #local Add=1/((Ds-2)-1);\n')
file.write(' #local J=0-Add;\n')
file.write(' #local I=0;\n')
file.write(' #while (I<Ds)\n')
file.write(' J\n')
file.write(' Arr[I]\n')
file.write(' #local I=I+1;\n')
file.write(' #local J=J+Add;\n')
file.write(' #end\n')
file.write(' }\n')
file.write('#end\n')
file.write('#macro BuildWriteMesh2(VecArr, NormArr, UVArr, U, V, FileName)\n')
#suppressed some file checking from original macro because no more separate files
file.write(' #local Write=0;\n')
file.write(' #debug concat("\\n\\n Building mesh2: \\n - vertex_vectors\\n")\n')
file.write(' #local NumVertices=dimension_size(VecArr,1);\n')
file.write(' #switch (Write)\n')
file.write(' #case(1)\n')
file.write(' #write(\n')
file.write(' MeshFile,\n')
file.write(' " vertex_vectors {\\n",\n')
file.write(' " ", str(NumVertices,0,0),"\\n "\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #case(2)\n')
file.write(' #write(\n')
file.write(' MeshFile,\n')
file.write(' "# Vertices: ",str(NumVertices,0,0),"\\n"\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #case(3)\n')
file.write(' #write(\n')
file.write(' MeshFile,\n')
file.write(' str(2*NumVertices,0,0),",\\n"\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #case(4)\n')
file.write(' #write(\n')
file.write(' MeshFile,\n')
file.write(' "#declare VertexVectors= array[",str(NumVertices,0,0),"] {\\n "\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #end\n')
file.write(' mesh2 {\n')
file.write(' vertex_vectors {\n')
file.write(' NumVertices\n')
file.write(' #local I=0;\n')
file.write(' #while (I<NumVertices)\n')
file.write(' VecArr[I]\n')
file.write(' #switch(Write)\n')
file.write(' #case(1)\n')
file.write(' #write(MeshFile, VecArr[I])\n')
file.write(' #break\n')
file.write(' #case(2)\n')
file.write(' #write(\n')
file.write(' MeshFile,\n')
file.write(' "v ", VecArr[I].x," ", VecArr[I].y," ", VecArr[I].z,"\\n"\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #case(3)\n')
file.write(' #write(\n')
file.write(' MeshFile,\n')
file.write(' VecArr[I].x,",", VecArr[I].y,",", VecArr[I].z,",\\n"\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #case(4)\n')
file.write(' #write(MeshFile, VecArr[I])\n')
file.write(' #break\n')
file.write(' #end\n')
file.write(' #local I=I+1;\n')
file.write(' #if(Write=1 | Write=4)\n')
file.write(' #if(mod(I,3)=0)\n')
file.write(' #write(MeshFile,"\\n ")\n')
file.write(' #end\n')
file.write(' #end \n')
file.write(' #end\n')
file.write(' #switch(Write)\n')
file.write(' #case(1)\n')
file.write(' #write(MeshFile,"\\n }\\n")\n')
file.write(' #break\n')
file.write(' #case(2)\n')
file.write(' #write(MeshFile,"\\n")\n')
file.write(' #break\n')
file.write(' #case(3)\n')
file.write(' // do nothing\n')
file.write(' #break\n')
file.write(' #case(4) \n')
file.write(' #write(MeshFile,"\\n}\\n")\n')
file.write(' #break\n')
file.write(' #end\n')
file.write(' }\n')
file.write(' #debug concat(" - normal_vectors\\n") \n')
file.write(' #local NumVertices=dimension_size(NormArr,1);\n')
file.write(' #switch(Write)\n')
file.write(' #case(1)\n')
file.write(' #write(\n')
file.write(' MeshFile,\n')
file.write(' " normal_vectors {\\n",\n')
file.write(' " ", str(NumVertices,0,0),"\\n "\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #case(2)\n')
file.write(' #write(\n')
file.write(' MeshFile,\n')
file.write(' "# Normals: ",str(NumVertices,0,0),"\\n"\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #case(3)\n')
file.write(' // do nothing\n')
file.write(' #break\n')
file.write(' #case(4)\n')
file.write(' #write(\n')
file.write(' MeshFile,\n')
file.write(' "#declare NormalVectors= array[",str(NumVertices,0,0),"] {\\n "\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #end\n')
file.write(' normal_vectors {\n')
file.write(' NumVertices\n')
file.write(' #local I=0;\n')
file.write(' #while (I<NumVertices)\n')
file.write(' NormArr[I]\n')
file.write(' #switch(Write)\n')
file.write(' #case(1)\n')
file.write(' #write(MeshFile NormArr[I])\n')
file.write(' #break\n')
file.write(' #case(2)\n')
file.write(' #write(\n')
file.write(' MeshFile,\n')
file.write(' "vn ", NormArr[I].x," ", NormArr[I].y," ", NormArr[I].z,"\\n"\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #case(3)\n')
file.write(' #write(\n')
file.write(' MeshFile,\n')
file.write(' NormArr[I].x,",", NormArr[I].y,",", NormArr[I].z,",\\n"\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #case(4)\n')
file.write(' #write(MeshFile NormArr[I])\n')
file.write(' #break\n')
file.write(' #end\n')
file.write(' #local I=I+1;\n')
file.write(' #if(Write=1 | Write=4) \n')
file.write(' #if(mod(I,3)=0)\n')
file.write(' #write(MeshFile,"\\n ")\n')
file.write(' #end\n')
file.write(' #end\n')
file.write(' #end\n')
file.write(' #switch(Write)\n')
file.write(' #case(1)\n')
file.write(' #write(MeshFile,"\\n }\\n")\n')
file.write(' #break\n')
file.write(' #case(2)\n')
file.write(' #write(MeshFile,"\\n")\n')
file.write(' #break\n')
file.write(' #case(3)\n')
file.write(' //do nothing\n')
file.write(' #break\n')
file.write(' #case(4)\n')
file.write(' #write(MeshFile,"\\n}\\n")\n')
file.write(' #break\n')
file.write(' #end\n')
file.write(' }\n')
file.write(' #debug concat(" - uv_vectors\\n") \n')
file.write(' #local NumVertices=dimension_size(UVArr,1);\n')
file.write(' #switch(Write)\n')
file.write(' #case(1)\n')
file.write(' #write(\n')
file.write(' MeshFile, \n')
file.write(' " uv_vectors {\\n",\n')
file.write(' " ", str(NumVertices,0,0),"\\n "\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #case(2)\n')
file.write(' #write(\n')
file.write(' MeshFile,\n')
file.write(' "# UV-vectors: ",str(NumVertices,0,0),"\\n"\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #case(3)\n')
file.write(' // do nothing, *.pcm does not support uv-vectors\n')
file.write(' #break\n')
file.write(' #case(4)\n')
file.write(' #write(\n')
file.write(' MeshFile,\n')
file.write(' "#declare UVVectors= array[",str(NumVertices,0,0),"] {\\n "\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #end\n')
file.write(' uv_vectors {\n')
file.write(' NumVertices\n')
file.write(' #local I=0;\n')
file.write(' #while (I<NumVertices)\n')
file.write(' UVArr[I]\n')
file.write(' #switch(Write)\n')
file.write(' #case(1)\n')
file.write(' #write(MeshFile UVArr[I])\n')
file.write(' #break\n')
file.write(' #case(2)\n')
file.write(' #write(\n')
file.write(' MeshFile,\n')
file.write(' "vt ", UVArr[I].u," ", UVArr[I].v,"\\n"\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #case(3)\n')
file.write(' //do nothing\n')
file.write(' #break\n')
file.write(' #case(4)\n')
file.write(' #write(MeshFile UVArr[I])\n')
file.write(' #break\n')
file.write(' #end\n')
file.write(' #local I=I+1; \n')
file.write(' #if(Write=1 | Write=4)\n')
file.write(' #if(mod(I,3)=0)\n')
file.write(' #write(MeshFile,"\\n ")\n')
file.write(' #end \n')
file.write(' #end\n')
file.write(' #end \n')
file.write(' #switch(Write)\n')
file.write(' #case(1)\n')
file.write(' #write(MeshFile,"\\n }\\n")\n')
file.write(' #break\n')
file.write(' #case(2)\n')
file.write(' #write(MeshFile,"\\n")\n')
file.write(' #break\n')
file.write(' #case(3)\n')
file.write(' //do nothing\n')
file.write(' #break\n')
file.write(' #case(4)\n')
file.write(' #write(MeshFile,"\\n}\\n")\n')
file.write(' #break\n')
file.write(' #end\n')
file.write(' }\n')
file.write('\n')
file.write(' #debug concat(" - face_indices\\n") \n')
file.write(' #declare NumFaces=U*V*2;\n')
file.write(' #switch(Write)\n')
file.write(' #case(1)\n')
file.write(' #write(\n')
file.write(' MeshFile,\n')
file.write(' " face_indices {\\n"\n')
file.write(' " ", str(NumFaces,0,0),"\\n "\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #case(2)\n')
file.write(' #write (\n')
file.write(' MeshFile,\n')
file.write(' "# faces: ",str(NumFaces,0,0),"\\n"\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #case(3)\n')
file.write(' #write (\n')
file.write(' MeshFile,\n')
file.write(' "0,",str(NumFaces,0,0),",\\n"\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #case(4)\n')
file.write(' #write(\n')
file.write(' MeshFile,\n')
file.write(' "#declare FaceIndices= array[",str(NumFaces,0,0),"] {\\n "\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #end\n')
file.write(' face_indices {\n')
file.write(' NumFaces\n')
file.write(' #local I=0;\n')
file.write(' #local H=0;\n')
file.write(' #local NumVertices=dimension_size(VecArr,1);\n')
file.write(' #while (I<V)\n')
file.write(' #local J=0;\n')
file.write(' #while (J<U)\n')
file.write(' #local Ind=(I*U)+I+J;\n')
file.write(' <Ind, Ind+1, Ind+U+2>, <Ind, Ind+U+1, Ind+U+2>\n')
file.write(' #switch(Write)\n')
file.write(' #case(1)\n')
file.write(' #write(\n')
file.write(' MeshFile,\n')
file.write(' <Ind, Ind+1, Ind+U+2>, <Ind, Ind+U+1, Ind+U+2>\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #case(2)\n')
file.write(' #write(\n')
file.write(' MeshFile,\n')
file.write(' "f ",Ind+1,"/",Ind+1,"/",Ind+1," ",Ind+1+1,"/",Ind+1+1,"/",Ind+1+1," ",Ind+U+2+1,"/",Ind+U+2+1,"/",Ind+U+2+1,"\\n",\n')
file.write(' "f ",Ind+U+1+1,"/",Ind+U+1+1,"/",Ind+U+1+1," ",Ind+1,"/",Ind+1,"/",Ind+1," ",Ind+U+2+1,"/",Ind+U+2+1,"/",Ind+U+2+1,"\\n"\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #case(3)\n')
file.write(' #write(\n')
file.write(' MeshFile,\n')
file.write(' Ind,",",Ind+NumVertices,",",Ind+1,",",Ind+1+NumVertices,",",Ind+U+2,",",Ind+U+2+NumVertices,",\\n"\n')
file.write(' Ind+U+1,",",Ind+U+1+NumVertices,",",Ind,",",Ind+NumVertices,",",Ind+U+2,",",Ind+U+2+NumVertices,",\\n"\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #case(4)\n')
file.write(' #write(\n')
file.write(' MeshFile,\n')
file.write(' <Ind, Ind+1, Ind+U+2>, <Ind, Ind+U+1, Ind+U+2>\n')
file.write(' )\n')
file.write(' #break\n')
file.write(' #end\n')
file.write(' #local J=J+1;\n')
file.write(' #local H=H+1;\n')
file.write(' #if(Write=1 | Write=4)\n')
file.write(' #if(mod(H,3)=0)\n')
file.write(' #write(MeshFile,"\\n ")\n')
file.write(' #end \n')
file.write(' #end\n')
file.write(' #end\n')
file.write(' #local I=I+1;\n')
file.write(' #end\n')
file.write(' }\n')
file.write(' #switch(Write)\n')
file.write(' #case(1)\n')
file.write(' #write(MeshFile, "\\n }\\n}")\n')
file.write(' #fclose MeshFile\n')
file.write(' #debug concat(" Done writing\\n")\n')
file.write(' #break\n')
file.write(' #case(2)\n')
file.write(' #fclose MeshFile\n')
file.write(' #debug concat(" Done writing\\n")\n')
file.write(' #break\n')
file.write(' #case(3)\n')
file.write(' #fclose MeshFile\n')
file.write(' #debug concat(" Done writing\\n")\n')
file.write(' #break\n')
file.write(' #case(4)\n')
file.write(' #write(MeshFile, "\\n}\\n}")\n')
file.write(' #fclose MeshFile\n')
file.write(' #debug concat(" Done writing\\n")\n')
file.write(' #break\n')
file.write(' #end\n')
file.write(' }\n')
file.write('#end\n')
file.write('#macro MSM(SplineArray, SplRes, Interp_type, InterpRes, FileName)\n')
file.write(' #declare Build=CheckFileName(FileName);\n')
file.write(' #if(Build=0)\n')
file.write(' #debug concat("\\n Parsing mesh2 from file: ", FileName, "\\n")\n')
file.write(' #include FileName\n')
file.write(' object{Surface}\n')
file.write(' #else\n')
file.write(' #local NumVertices=(SplRes+1)*(InterpRes+1);\n')
file.write(' #local NumFaces=SplRes*InterpRes*2;\n')
file.write(' #debug concat("\\n Calculating ",str(NumVertices,0,0)," vertices for ", str(NumFaces,0,0)," triangles\\n\\n")\n')
file.write(' #local VecArr=array[NumVertices]\n')
file.write(' #local NormArr=array[NumVertices]\n')
file.write(' #local UVArr=array[NumVertices]\n')
file.write(' #local N=dimension_size(SplineArray,1);\n')
file.write(' #local TempSplArr0=array[N];\n')
file.write(' #local TempSplArr1=array[N];\n')
file.write(' #local TempSplArr2=array[N];\n')
file.write(' #local PosStep=1/SplRes;\n')
file.write(' #local InterpStep=1/InterpRes;\n')
file.write(' #local Count=0;\n')
file.write(' #local Pos=0;\n')
file.write(' #while(Pos<=1)\n')
file.write(' #local I=0;\n')
file.write(' #if (Pos=0)\n')
file.write(' #while (I<N)\n')
file.write(' #local Spl=spline{SplineArray[I]}\n')
file.write(' #local TempSplArr0[I]=<0,0,0>+Spl(Pos);\n')
file.write(' #local TempSplArr1[I]=<0,0,0>+Spl(Pos+PosStep);\n')
file.write(' #local TempSplArr2[I]=<0,0,0>+Spl(Pos-PosStep);\n')
file.write(' #local I=I+1;\n')
file.write(' #end\n')
file.write(' #local S0=BuildSpline(TempSplArr0, Interp_type)\n')
file.write(' #local S1=BuildSpline(TempSplArr1, Interp_type)\n')
file.write(' #local S2=BuildSpline(TempSplArr2, Interp_type)\n')
file.write(' #else\n')
file.write(' #while (I<N)\n')
file.write(' #local Spl=spline{SplineArray[I]}\n')
file.write(' #local TempSplArr1[I]=<0,0,0>+Spl(Pos+PosStep);\n')
file.write(' #local I=I+1;\n')
file.write(' #end\n')
file.write(' #local S1=BuildSpline(TempSplArr1, Interp_type)\n')
file.write(' #end\n')
file.write(' #local J=0;\n')
file.write(' #while (J<=1)\n')
file.write(' #local P0=<0,0,0>+S0(J);\n')
file.write(' #local P1=<0,0,0>+S1(J);\n')
file.write(' #local P2=<0,0,0>+S2(J);\n')
file.write(' #local P3=<0,0,0>+S0(J+InterpStep);\n')
file.write(' #local P4=<0,0,0>+S0(J-InterpStep);\n')
file.write(' #local B1=P4-P0;\n')
file.write(' #local B2=P2-P0;\n')
file.write(' #local B3=P3-P0;\n')
file.write(' #local B4=P1-P0;\n')
file.write(' #local N1=vcross(B1,B2);\n')
file.write(' #local N2=vcross(B2,B3);\n')
file.write(' #local N3=vcross(B3,B4);\n')
file.write(' #local N4=vcross(B4,B1);\n')
file.write(' #local Norm=vnormalize((N1+N2+N3+N4));\n')
file.write(' #local VecArr[Count]=P0;\n')
file.write(' #local NormArr[Count]=Norm;\n')
file.write(' #local UVArr[Count]=<J,Pos>;\n')
file.write(' #local J=J+InterpStep;\n')
file.write(' #local Count=Count+1;\n')
file.write(' #end\n')
file.write(' #local S2=spline{S0}\n')
file.write(' #local S0=spline{S1}\n')
file.write(' #debug concat("\\r Done ", str(Count,0,0)," vertices : ", str(100*Count/NumVertices,0,2)," %")\n')
file.write(' #local Pos=Pos+PosStep;\n')
file.write(' #end\n')
file.write(' BuildWriteMesh2(VecArr, NormArr, UVArr, InterpRes, SplRes, "")\n')
file.write(' #end\n')
file.write('#end\n\n')
file.write('#macro Coons(Spl1, Spl2, Spl3, Spl4, Iter_U, Iter_V, FileName)\n')
file.write(' #declare Build=CheckFileName(FileName);\n')
file.write(' #if(Build=0)\n')
file.write(' #debug concat("\\n Parsing mesh2 from file: ", FileName, "\\n")\n')
file.write(' #include FileName\n')
file.write(' object{Surface}\n')
file.write(' #else\n')
file.write(' #local NumVertices=(Iter_U+1)*(Iter_V+1);\n')
file.write(' #local NumFaces=Iter_U*Iter_V*2;\n')
file.write(' #debug concat("\\n Calculating ", str(NumVertices,0,0), " vertices for ",str(NumFaces,0,0), " triangles\\n\\n")\n')
file.write(' #declare VecArr=array[NumVertices] \n')
file.write(' #declare NormArr=array[NumVertices] \n')
file.write(' #local UVArr=array[NumVertices] \n')
file.write(' #local Spl1_0=Spl1(0);\n')
file.write(' #local Spl2_0=Spl2(0);\n')
file.write(' #local Spl3_0=Spl3(0);\n')
file.write(' #local Spl4_0=Spl4(0);\n')
file.write(' #local UStep=1/Iter_U;\n')
file.write(' #local VStep=1/Iter_V;\n')
file.write(' #local Count=0;\n')
file.write(' #local I=0;\n')
file.write(' #while (I<=1)\n')
file.write(' #local Im=1-I;\n')
file.write(' #local J=0;\n')
file.write(' #while (J<=1)\n')
file.write(' #local Jm=1-J;\n')
file.write(' #local C0=Im*Jm*(Spl1_0)+Im*J*(Spl2_0)+I*J*(Spl3_0)+I*Jm*(Spl4_0);\n')
file.write(' #local P0=LInterpolate(I, Spl1(J), Spl3(Jm)) + \n')
file.write(' LInterpolate(Jm, Spl2(I), Spl4(Im))-C0;\n')
file.write(' #declare VecArr[Count]=P0;\n')
file.write(' #local UVArr[Count]=<J,I>;\n')
file.write(' #local J=J+UStep;\n')
file.write(' #local Count=Count+1;\n')
file.write(' #end\n')
file.write(' #debug concat(\n')
file.write(' "\r Done ", str(Count,0,0)," vertices : ",\n')
file.write(' str(100*Count/NumVertices,0,2)," %"\n')
file.write(' )\n')
file.write(' #local I=I+VStep;\n')
file.write(' #end\n')
file.write(' #debug "\r Normals "\n')
file.write(' #local Count=0;\n')
file.write(' #local I=0;\n')
file.write(' #while (I<=Iter_V)\n')
file.write(' #local J=0;\n')
file.write(' #while (J<=Iter_U)\n')
file.write(' #local Ind=(I*Iter_U)+I+J;\n')
file.write(' #local P0=VecArr[Ind];\n')
file.write(' #if(J=0)\n')
file.write(' #local P1=P0+(P0-VecArr[Ind+1]);\n')
file.write(' #else\n')
file.write(' #local P1=VecArr[Ind-1];\n')
file.write(' #end\n')
file.write(' #if (J=Iter_U)\n')
file.write(' #local P2=P0+(P0-VecArr[Ind-1]);\n')
file.write(' #else\n')
file.write(' #local P2=VecArr[Ind+1];\n')
file.write(' #end\n')
file.write(' #if (I=0)\n')
file.write(' #local P3=P0+(P0-VecArr[Ind+Iter_U+1]);\n')
file.write(' #else\n')
file.write(' #local P3=VecArr[Ind-Iter_U-1];\n')
file.write(' #end\n')
file.write(' #if (I=Iter_V)\n')
file.write(' #local P4=P0+(P0-VecArr[Ind-Iter_U-1]);\n')
file.write(' #else\n')
file.write(' #local P4=VecArr[Ind+Iter_U+1];\n')
file.write(' #end\n')
file.write(' #local B1=P4-P0;\n')
file.write(' #local B2=P2-P0;\n')
file.write(' #local B3=P3-P0;\n')
file.write(' #local B4=P1-P0;\n')
file.write(' #local N1=vcross(B1,B2);\n')
file.write(' #local N2=vcross(B2,B3);\n')
file.write(' #local N3=vcross(B3,B4);\n')
file.write(' #local N4=vcross(B4,B1);\n')
file.write(' #local Norm=vnormalize((N1+N2+N3+N4));\n')
file.write(' #declare NormArr[Count]=Norm;\n')
file.write(' #local J=J+1;\n')
file.write(' #local Count=Count+1;\n')
file.write(' #end\n')
file.write(' #debug concat("\r Done ", str(Count,0,0)," normals : ",str(100*Count/NumVertices,0,2), " %")\n')
file.write(' #local I=I+1;\n')
file.write(' #end\n')
file.write(' BuildWriteMesh2(VecArr, NormArr, UVArr, Iter_U, Iter_V, FileName)\n')
file.write(' #end\n')
file.write('#end\n\n')
if bezier_sweep == False:
tabWrite("#declare %s =\n"%dataname)
if ob.pov.curveshape == 'sphere_sweep' and bezier_sweep == False:
tabWrite("union {\n")
for spl in ob.data.splines:
if spl.type != "BEZIER":
spl_type = "linear"
if spl.type == "NURBS":
spl_type = "cubic"
points=spl.points
numPoints=len(points)
if spl.use_cyclic_u:
numPoints+=3
tabWrite("sphere_sweep { %s_spline %s,\n"%(spl_type,numPoints))
if spl.use_cyclic_u:
pt1 = points[len(points)-1]
wpt1 = pt1.co
tabWrite("<%.4g,%.4g,%.4g>,%.4g\n" %(wpt1[0], wpt1[1], wpt1[2], pt1.radius*ob.data.bevel_depth))
for pt in points:
wpt = pt.co
tabWrite("<%.4g,%.4g,%.4g>,%.4g\n" %(wpt[0], wpt[1], wpt[2], pt.radius*ob.data.bevel_depth))
if spl.use_cyclic_u:
for i in range (0,2):
endPt=points[i]
wpt = endPt.co
tabWrite("<%.4g,%.4g,%.4g>,%.4g\n" %(wpt[0], wpt[1], wpt[2], endPt.radius*ob.data.bevel_depth))
tabWrite("}\n")
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if ob.pov.curveshape == 'sor':
for spl in ob.data.splines:
if spl.type in {'POLY','NURBS'}:
points=spl.points
numPoints=len(points)
tabWrite("sor { %s,\n"%numPoints)
for pt in points:
wpt = pt.co
tabWrite("<%.4g,%.4g>\n" %(wpt[0], wpt[1]))
else:
tabWrite("box { 0,0\n")
if ob.pov.curveshape in {'lathe','prism'}:
spl = ob.data.splines[0]
if spl.type == "BEZIER":
points=spl.bezier_points
lenCur=len(points)-1
lenPts=lenCur*4
ifprism = ''
if ob.pov.curveshape in {'prism'}:
height = ob.data.extrude
ifprism = '-%s, %s,'%(height, height)
lenCur+=1
lenPts+=4
tabWrite("%s { bezier_spline %s %s,\n"%(ob.pov.curveshape,ifprism,lenPts))
for i in range(0,lenCur):
p1=points[i].co
pR=points[i].handle_right
end = i+1
if i == lenCur-1 and ob.pov.curveshape in {'prism'}:
end = 0
pL=points[end].handle_left
p2=points[end].co
line="<%.4g,%.4g>"%(p1[0],p1[1])
line+="<%.4g,%.4g>"%(pR[0],pR[1])
line+="<%.4g,%.4g>"%(pL[0],pL[1])
line+="<%.4g,%.4g>"%(p2[0],p2[1])
tabWrite("%s\n" %line)
else:
points=spl.points
lenCur=len(points)
lenPts=lenCur
ifprism = ''
if ob.pov.curveshape in {'prism'}:
height = ob.data.extrude
ifprism = '-%s, %s,'%(height, height)
lenPts+=3
spl_type = 'quadratic'
if spl.type == 'POLY':
spl_type = 'linear'
tabWrite("%s { %s_spline %s %s,\n"%(ob.pov.curveshape,spl_type,ifprism,lenPts))
if ob.pov.curveshape in {'prism'}:
pt = points[len(points)-1]
wpt = pt.co
tabWrite("<%.4g,%.4g>\n" %(wpt[0], wpt[1]))
for pt in points:
wpt = pt.co
tabWrite("<%.4g,%.4g>\n" %(wpt[0], wpt[1]))
if ob.pov.curveshape in {'prism'}:
for i in range(2):
pt = points[i]
wpt = pt.co
tabWrite("<%.4g,%.4g>\n" %(wpt[0], wpt[1]))
if bezier_sweep:
spl = ob.data.splines[0]
points=spl.bezier_points
lenCur = len(points)-1
numPoints = lenCur*4
if spl.use_cyclic_u:
lenCur += 1
numPoints += 4
tabWrite("#declare %s_bezier_points = array[%s]{\n"%(dataname,numPoints))
for i in range(lenCur):
p1=points[i].co
pR=points[i].handle_right
end = i+1
if spl.use_cyclic_u and i == (lenCur - 1):
end = 0
pL=points[end].handle_left
p2=points[end].co
line="<%.4g,%.4g,%.4f>"%(p1[0],p1[1],p1[2])
line+="<%.4g,%.4g,%.4f>"%(pR[0],pR[1],pR[2])
line+="<%.4g,%.4g,%.4f>"%(pL[0],pL[1],pL[2])
line+="<%.4g,%.4g,%.4f>"%(p2[0],p2[1],p2[2])
tabWrite("%s\n" %line)
tabWrite("}\n")
#tabWrite('#include "bezier_spheresweep.inc"\n') #now inlined
tabWrite('#declare %s = object{Shape_Bezierpoints_Sphere_Sweep(%s, %s_bezier_points, %.4f) \n'%(dataname,ob.data.resolution_u,dataname,ob.data.bevel_depth))
if ob.pov.curveshape in {'loft'}:
tabWrite('object {MSM(%s,%s,"c",%s,"")\n'%(dataname,ob.pov.res_u,ob.pov.res_v))
if ob.pov.curveshape in {'birail'}:
splines = '%s1,%s2,%s3,%s4'%(dataname,dataname,dataname,dataname)
tabWrite('object {Coons(%s, %s, %s, "")\n'%(splines,ob.pov.res_u,ob.pov.res_v))
povMatName = "Default_texture"
if ob.active_material:
#povMatName = string_strip_hyphen(bpy.path.clean_name(ob.active_material.name))
try:
material = ob.active_material
writeObjectMaterial(material, ob)
except IndexError:
print(me)
#tabWrite("texture {%s}\n"%povMatName)
if ob.pov.curveshape in {'prism'}:
tabWrite("rotate <90,0,0>\n")
tabWrite("scale y*-1\n" )
tabWrite("}\n")
#################################################################
def exportMeta(metas):
# TODO - blenders 'motherball' naming is not supported.
if comments and len(metas) >= 1:
file.write("//--Blob objects--\n\n")
# important because no elements will break parsing.
elements = [elem for elem in meta.elements if elem.type in {'BALL', 'ELLIPSOID'}]
tabWrite("blob {\n")
tabWrite("threshold %.4g\n" % meta.threshold)
Bastien Montagne
committed
importance = ob.pov.importance_value
material = meta.materials[0] # lame! - blender cant do enything else.
except:
material = None
for elem in elements:
loc = elem.co
stiffness = elem.stiffness
if elem.use_negative:
stiffness = - stiffness
if elem.type == 'BALL':
Bastien Montagne
committed
tabWrite("sphere { <%.6g, %.6g, %.6g>, %.4g, %.4g }\n" % \
(loc.x, loc.y, loc.z, elem.radius, stiffness))
# After this wecould do something simple like...
# "pigment {Blue} }"
# except we'll write the color
elif elem.type == 'ELLIPSOID':
# location is modified by scale
Bastien Montagne
committed
tabWrite("sphere { <%.6g, %.6g, %.6g>, %.4g, %.4g }\n" % \
(loc.x / elem.size_x, loc.y / elem.size_y, loc.z / elem.size_z,
elem.radius, stiffness))
tabWrite("scale <%.6g, %.6g, %.6g> \n" % \
(elem.size_x, elem.size_y, elem.size_z))
if material:
diffuse_color = material.diffuse_color
trans = 1.0 - material.alpha
if material.use_transparency and material.transparency_method == 'RAYTRACE':
povFilter = material.raytrace_transparency.filter * (1.0 - material.alpha)
trans = (1.0 - material.alpha) - povFilter
material_finish = materialNames[material.name]
Bastien Montagne
committed
tabWrite("pigment {rgbft<%.3g, %.3g, %.3g, %.3g, %.3g>} \n" % \
(diffuse_color[0], diffuse_color[1], diffuse_color[2],
povFilter, trans))
tabWrite("finish {%s}\n" % safety(material_finish, Level=2))
tabWrite("pigment {rgb<1 1 1>} \n")
Bastien Montagne
committed
# Write the finish last.
tabWrite("finish {%s}\n" % (safety(DEF_MAT_NAME, Level=2)))
writeObjectMaterial(material, ob)
writeMatrix(global_matrix * ob.matrix_world)
Maurice Raybaud
committed
# Importance for radiosity sampling added here
tabWrite("radiosity { \n")
tabWrite("importance %3g \n" % importance)
tabWrite("}\n")
tabWrite("}\n") # End of Metaball block
if comments and len(metas) >= 1:
file.write("\n")
Bastien Montagne
committed
# objectNames = {}
DEF_OBJ_NAME = "Default"
Bastien Montagne
committed
def exportMeshes(scene, sel):
# obmatslist = []
# def hasUniqueMaterial():
# # Grab materials attached to object instances ...
# if hasattr(ob, 'material_slots'):
# for ms in ob.material_slots:
# if ms.material is not None and ms.link == 'OBJECT':
Bastien Montagne
committed
# if ms.material in obmatslist:
# return False
# else:
# obmatslist.append(ms.material)
# return True
# def hasObjectMaterial(ob):
# # Grab materials attached to object instances ...
# if hasattr(ob, 'material_slots'):
# for ms in ob.material_slots:
# if ms.material is not None and ms.link == 'OBJECT':
Bastien Montagne
committed
# # If there is at least one material slot linked to the object
Bastien Montagne
committed
# # and not the data (mesh), always create a new, "private" data instance.
Bastien Montagne
committed
# return True
# return False
# For objects using local material(s) only!
# This is a mapping between a tuple (dataname, materialnames, ...), and the POV dataname.
Bastien Montagne
committed
# As only objects using:
# * The same data.
# * EXACTLY the same materials, in EXACTLY the same sockets.
# ... can share a same instance in POV export.
Bastien Montagne
committed
obmats2data = {}
Bastien Montagne
committed
def checkObjectMaterials(ob, name, dataname):
if hasattr(ob, 'material_slots'):
has_local_mats = False
key = [dataname]
for ms in ob.material_slots:
Bastien Montagne
committed
key.append(ms.material.name)
if ms.link == 'OBJECT' and not has_local_mats:
has_local_mats = True
else:
# Even if the slot is empty, it is important to grab it...
Bastien Montagne
committed
key.append("")
if has_local_mats:
# If this object uses local material(s), lets find if another object
# using the same data and exactly the same list of materials
# (in the same slots) has already been processed...
Bastien Montagne
committed
# Note that here also, we use object name as new, unique dataname for Pov.
key = tuple(key) # Lists are not hashable...
Bastien Montagne
committed
if key not in obmats2data:
obmats2data[key] = name
return obmats2data[key]
return None
data_ref = {}
Bastien Montagne
committed
def store(scene, ob, name, dataname, matrix):
# The Object needs to be written at least once but if its data is
# already in data_ref this has already been done.
Bastien Montagne
committed
# This func returns the "povray" name of the data, or None
Bastien Montagne
committed
# if no writing is needed.
if ob.is_modified(scene, 'RENDER'):
# Data modified.
# Create unique entry in data_ref by using object name
# (always unique in Blender) as data name.
data_ref[name] = [(name, MatrixAsPovString(matrix))]
return name
# Here, we replace dataname by the value returned by checkObjectMaterials, only if
# it is not evaluated to False (i.e. only if the object uses some local material(s)).
dataname = checkObjectMaterials(ob, name, dataname) or dataname
if dataname in data_ref:
# Data already known, just add the object instance.
data_ref[dataname].append((name, MatrixAsPovString(matrix)))
# No need to write data
return None
else:
# Data not yet processed, create a new entry in data_ref.
data_ref[dataname] = [(name, MatrixAsPovString(matrix))]
return dataname
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def exportSmoke(smoke_obj_name):
#if LuxManager.CurrentScene.name == 'preview':
#return 1, 1, 1, 1.0
#else:
flowtype = -1
smoke_obj = bpy.data.objects[smoke_obj_name]
domain = None
# Search smoke domain target for smoke modifiers
for mod in smoke_obj.modifiers:
if mod.name == 'Smoke':
if mod.smoke_type == 'FLOW':
if mod.flow_settings.smoke_flow_type == 'BOTH':
flowtype = 2
else:
if mod.flow_settings.smoke_flow_type == 'SMOKE':
flowtype = 0
else:
if mod.flow_settings.smoke_flow_type == 'FIRE':
flowtype = 1
if mod.smoke_type == 'DOMAIN':
domain = smoke_obj
smoke_modifier = mod
eps = 0.000001
if domain is not None:
#if bpy.app.version[0] >= 2 and bpy.app.version[1] >= 71:
# Blender version 2.71 supports direct access to smoke data structure
set = mod.domain_settings
channeldata = []
for v in set.density_grid:
channeldata.append(v.real)
print(v.real)
## Usage en voxel texture:
# channeldata = []
# if channel == 'density':
# for v in set.density_grid:
# channeldata.append(v.real)
# if channel == 'fire':
# for v in set.flame_grid:
# channeldata.append(v.real)
resolution = set.resolution_max
big_res = []
big_res.append(set.domain_resolution[0])
big_res.append(set.domain_resolution[1])
big_res.append(set.domain_resolution[2])
if set.use_high_resolution:
big_res[0] = big_res[0] * (set.amplify + 1)
big_res[1] = big_res[1] * (set.amplify + 1)
big_res[2] = big_res[2] * (set.amplify + 1)
# else:
# p = []
##gather smoke domain settings
# BBox = domain.bound_box
# p.append([BBox[0][0], BBox[0][1], BBox[0][2]])
# p.append([BBox[6][0], BBox[6][1], BBox[6][2]])
# set = mod.domain_settings
# resolution = set.resolution_max
# smokecache = set.point_cache
# ret = read_cache(smokecache, set.use_high_resolution, set.amplify + 1, flowtype)
# res_x = ret[0]
# res_y = ret[1]
# res_z = ret[2]
# density = ret[3]
# fire = ret[4]
# if res_x * res_y * res_z > 0:
##new cache format
# big_res = []
# big_res.append(res_x)
# big_res.append(res_y)
# big_res.append(res_z)
# else:
# max = domain.dimensions[0]
# if (max - domain.dimensions[1]) < -eps:
# max = domain.dimensions[1]
# if (max - domain.dimensions[2]) < -eps:
# max = domain.dimensions[2]
# big_res = [int(round(resolution * domain.dimensions[0] / max, 0)),
# int(round(resolution * domain.dimensions[1] / max, 0)),
# int(round(resolution * domain.dimensions[2] / max, 0))]
# if set.use_high_resolution:
# big_res = [big_res[0] * (set.amplify + 1), big_res[1] * (set.amplify + 1),
# big_res[2] * (set.amplify + 1)]
# if channel == 'density':
# channeldata = density
# if channel == 'fire':
# channeldata = fire
# sc_fr = '%s/%s/%s/%05d' % (efutil.export_path, efutil.scene_filename(), bpy.context.scene.name, bpy.context.scene.frame_current)
# if not os.path.exists( sc_fr ):
# os.makedirs(sc_fr)
# smoke_filename = '%s.smoke' % bpy.path.clean_name(domain.name)
# smoke_path = '/'.join([sc_fr, smoke_filename])
# with open(smoke_path, 'wb') as smoke_file:
# # Binary densitygrid file format
# #
# # File header
# smoke_file.write(b'SMOKE') #magic number
# smoke_file.write(struct.pack('<I', big_res[0]))
# smoke_file.write(struct.pack('<I', big_res[1]))
# smoke_file.write(struct.pack('<I', big_res[2]))
# smoke_file.write(struct.pack('<%df'%len(channeldata), *channeldata))
# LuxLog('Binary SMOKE file written: %s' % (smoke_path))
#return big_res[0], big_res[1], big_res[2], channeldata
mydf3 = df3.df3(big_res[0],big_res[1],big_res[2])
sim_sizeX, sim_sizeY, sim_sizeZ = mydf3.size()
for x in range(sim_sizeX):
for y in range(sim_sizeY):
for z in range(sim_sizeZ):
mydf3.set(x, y, z, channeldata[((z * sim_sizeY + y) * sim_sizeX + x)])
mydf3.exportDF3(smokePath)
print('Binary smoke.df3 file written in preview directory')
if comments:
file.write("\n//--Smoke--\n\n")
# Note: We start with a default unit cube.
# This is mandatory to read correctly df3 data - otherwise we could just directly use bbox
# coordinates from the start, and avoid scale/translate operations at the end...
file.write("box{<0,0,0>, <1,1,1>\n")
file.write(" pigment{ rgbt 1 }\n")
file.write(" hollow\n")
file.write(" interior{ //---------------------\n")
file.write(" media{ method 3\n")
file.write(" emission <1,1,1>*1\n")# 0>1 for dark smoke to white vapour
file.write(" scattering{ 1, // Type\n")
file.write(" <1,1,1>*0.1\n")
file.write(" density{density_file df3 \"%s\"\n" % (smokePath))
file.write(" color_map {\n")
file.write(" [0.00 rgb 0]\n")
file.write(" [0.05 rgb 0]\n")
file.write(" [0.20 rgb 0.2]\n")
file.write(" [0.30 rgb 0.6]\n")
file.write(" [0.40 rgb 1]\n")
file.write(" [1.00 rgb 1]\n")
file.write(" } // end color_map\n")
file.write(" } // end of density\n")
file.write(" samples %i // higher = more precise\n" % resolution)
file.write(" } // end of media --------------------------\n")
file.write(" } // end of interior\n")
# START OF TRANSFORMATIONS
# Size to consider here are bbox dimensions (i.e. still in object space, *before* applying
# loc/rot/scale and other transformations (like parent stuff), aka matrix_world).
bbox = smoke_obj.bound_box
dim = [abs(bbox[6][0] - bbox[0][0]), abs(bbox[6][1] - bbox[0][1]), abs(bbox[6][2] - bbox[0][2])]
# We scale our cube to get its final size and shapes but still in *object* space (same as Blender's bbox).
file.write("scale<%.6g,%.6g,%.6g>\n" % (dim[0], dim[1], dim[2]))
# We offset our cube such that (0,0,0) coordinate matches Blender's object center.
file.write("translate<%.6g,%.6g,%.6g>\n" % (bbox[0][0], bbox[0][1], bbox[0][2]))
# We apply object's transformations to get final loc/rot/size in world space!
# Note: we could combine the two previous transformations with this matrix directly...
writeMatrix(global_matrix * smoke_obj.matrix_world)
# END OF TRANSFORMATIONS
#file.write(" interpolate 1\n")
#file.write(" frequency 0\n")
#file.write(" }\n")
Bastien Montagne
committed
ob_num = 0
Bastien Montagne
committed
# XXX I moved all those checks here, as there is no need to compute names
Bastien Montagne
committed
# for object we won't export here!
if (ob.type in {'LAMP', 'CAMERA', 'EMPTY',
'META', 'ARMATURE', 'LATTICE'}):
for mod in ob.modifiers:
if mod and hasattr(mod, 'smoke_type'):
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smokeFlag=True
if (mod.smoke_type == 'DOMAIN'):
exportSmoke(ob.name)
break # don't render domain mesh or flow emitter mesh, skip to next object.
if not smokeFlag:
# Export Hair
renderEmitter = True
if hasattr(ob, 'particle_systems'):
renderEmitter = False
for pSys in ob.particle_systems:
if pSys.settings.use_render_emitter:
renderEmitter = True
for mod in [m for m in ob.modifiers if (m is not None) and (m.type == 'PARTICLE_SYSTEM')]:
if (pSys.settings.render_type == 'PATH') and mod.show_render and (pSys.name == mod.particle_system.name):
tstart = time.time()
texturedHair=0
if ob.active_material is not None:
pmaterial = ob.material_slots[pSys.settings.material - 1].material
for th in pmaterial.texture_slots:
if th and th.use:
if (th.texture.type == 'IMAGE' and th.texture.image) or th.texture.type != 'IMAGE':
if th.use_map_color_diffuse:
texturedHair=1
if pmaterial.strand.use_blender_units:
strandStart = pmaterial.strand.root_size
strandEnd = pmaterial.strand.tip_size
strandShape = pmaterial.strand.shape
else: # Blender unit conversion
strandStart = pmaterial.strand.root_size / 200.0
strandEnd = pmaterial.strand.tip_size / 200.0
strandShape = pmaterial.strand.shape
else:
pmaterial = "default" # No material assigned in blender, use default one
strandStart = 0.01
strandEnd = 0.01
strandShape = 0.0
# Set the number of particles to render count rather than 3d view display
pSys.set_resolution(scene, ob, 'RENDER')
steps = pSys.settings.draw_step
steps = 3 ** steps # or (power of 2 rather than 3) + 1 # Formerly : len(particle.hair_keys)
totalNumberOfHairs = ( len(pSys.particles) + len(pSys.child_particles) )
#hairCounter = 0
file.write('#declare HairArray = array[%i] {\n' % totalNumberOfHairs)
for pindex in range(0, totalNumberOfHairs):
#if particle.is_exist and particle.is_visible:
#hairCounter += 1
#controlPointCounter = 0
# Each hair is represented as a separate sphere_sweep in POV-Ray.
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file.write('sphere_sweep{')
if pSys.settings.use_hair_bspline:
file.write('b_spline ')
file.write('%i,\n' % (steps + 2)) # +2 because the first point needs tripling to be more than a handle in POV
else:
file.write('linear_spline ')
file.write('%i,\n' % (steps))
#changing world coordinates to object local coordinates by multiplying with inverted matrix
initCo = ob.matrix_world.inverted()*(pSys.co_hair(ob, pindex, 0))
if ob.active_material is not None:
pmaterial = ob.material_slots[pSys.settings.material-1].material
for th in pmaterial.texture_slots:
if th and th.use and th.use_map_color_diffuse:
#treat POV textures as bitmaps
if (th.texture.type == 'IMAGE' and th.texture.image and th.texture_coords == 'UV' and ob.data.uv_textures != None): # or (th.texture.pov.tex_pattern_type != 'emulator' and th.texture_coords == 'UV' and ob.data.uv_textures != None):
image=th.texture.image
image_width = image.size[0]
image_height = image.size[1]
image_pixels = image.pixels[:]
uv_co = pSys.uv_on_emitter(mod, pSys.particles[pindex], pindex, 0)
x_co = round(uv_co[0] * (image_width - 1))
y_co = round(uv_co[1] * (image_height - 1))
pixelnumber = (image_width * y_co) + x_co
r = image_pixels[pixelnumber*4]
g = image_pixels[pixelnumber*4+1]
b = image_pixels[pixelnumber*4+2]
a = image_pixels[pixelnumber*4+3]
initColor=(r,g,b,a)
else:
#only overwrite variable for each competing texture for now
initColor=th.texture.evaluate((initCo[0],initCo[1],initCo[2]))
for step in range(0, steps):
co = pSys.co_hair(ob, pindex, step)
#for controlPoint in particle.hair_keys:
if pSys.settings.clump_factor != 0:
hDiameter = pSys.settings.clump_factor / 200.0 * random.uniform(0.5, 1)
elif step == 0:
hDiameter = strandStart
else:
hDiameter += (strandEnd-strandStart)/(pSys.settings.draw_step+1) #XXX +1 or not?
if step == 0 and pSys.settings.use_hair_bspline:
# Write three times the first point to compensate pov Bezier handling
file.write('<%.6g,%.6g,%.6g>,%.7g,\n' % (co[0], co[1], co[2], abs(hDiameter)))
file.write('<%.6g,%.6g,%.6g>,%.7g,\n' % (co[0], co[1], co[2], abs(hDiameter)))
#file.write('<%.6g,%.6g,%.6g>,%.7g' % (particle.location[0], particle.location[1], particle.location[2], abs(hDiameter))) # Useless because particle location is the tip, not the root.
#file.write(',\n')
#controlPointCounter += 1
#totalNumberOfHairs += len(pSys.particles)# len(particle.hair_keys)
# Each control point is written out, along with the radius of the
# hair at that point.
file.write('<%.6g,%.6g,%.6g>,%.7g' % (co[0], co[1], co[2], abs(hDiameter)))
# All coordinates except the last need a following comma.
if step != steps - 1:
file.write(',\n')
else:
if texturedHair:
# Write pigment and alpha (between Pov and Blender alpha 0 and 1 are reversed)
file.write('\npigment{ color rgbf < %.3g, %.3g, %.3g, %.3g> }\n' %(initColor[0], initColor[1], initColor[2], 1.0-initColor[3]))
# End the sphere_sweep declaration for this hair
file.write('}\n')
# All but the final sphere_sweep (each array element) needs a terminating comma.
if pindex != totalNumberOfHairs:
file.write(',\n')
else:
file.write('\n')
# End the array declaration.
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if not texturedHair:
# Pick up the hair material diffuse color and create a default POV-Ray hair texture.
file.write('#ifndef (HairTexture)\n')
file.write(' #declare HairTexture = texture {\n')
file.write(' pigment {rgbt <%s,%s,%s,%s>}\n' % (pmaterial.diffuse_color[0], pmaterial.diffuse_color[1], pmaterial.diffuse_color[2], (pmaterial.strand.width_fade + 0.05)))
file.write(' }\n')
file.write('#end\n')
file.write('\n')
# Dynamically create a union of the hairstrands (or a subset of them).
# By default use every hairstrand, commented line is for hand tweaking test renders.
file.write('//Increasing HairStep divides the amount of hair for test renders.\n')
file.write('#ifndef(HairStep) #declare HairStep = 1; #end\n')
file.write('union{\n')
file.write(' #local I = 0;\n')
file.write(' #while (I < %i)\n' % totalNumberOfHairs)
file.write(' object {HairArray[I]')
if not texturedHair:
file.write(' texture{HairTexture}\n')
else:
file.write('\n')
# Translucency of the hair:
file.write(' hollow\n')
file.write(' double_illuminate\n')
file.write(' interior {\n')
file.write(' ior 1.45\n')
file.write(' media {\n')
file.write(' scattering { 1, 10*<0.73, 0.35, 0.15> /*extinction 0*/ }\n')
file.write(' absorption 10/<0.83, 0.75, 0.15>\n')
file.write(' samples 1\n')
file.write(' method 2\n')
file.write(' density {\n')
file.write(' color_map {\n')
file.write(' [0.0 rgb <0.83, 0.45, 0.35>]\n')
file.write(' [0.5 rgb <0.8, 0.8, 0.4>]\n')
file.write(' [1.0 rgb <1,1,1>]\n')
file.write(' }\n')
file.write(' }\n')
file.write(' }\n')
file.write(' }\n')
file.write(' }\n')
file.write(' #local I = I + HairStep;\n')
file.write(' #end\n')
writeMatrix(global_matrix * ob.matrix_world)
Bastien Montagne
committed
file.write('}')
print('Totals hairstrands written: %i' % totalNumberOfHairs)
print('Number of tufts (particle systems)', len(ob.particle_systems))
# Set back the displayed number of particles to preview count
pSys.set_resolution(scene, ob, 'PREVIEW')
if renderEmitter == False:
continue #don't render mesh, skip to next object.
#############################################
# Generating a name for object just like materials to be able to use it
# (baking for now or anything else).
# XXX I don't understand that: if we are here, sel if a non-empty iterable,
# so this condition is always True, IMO -- mont29
if sel:
name_orig = "OB" + ob.name
dataname_orig = "DATA" + ob.data.name
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name_orig = DEF_OBJ_NAME
dataname_orig = DEF_OBJ_NAME
name = string_strip_hyphen(bpy.path.clean_name(name_orig))
dataname = string_strip_hyphen(bpy.path.clean_name(dataname_orig))
## for slot in ob.material_slots:
## if slot.material is not None and slot.link == 'OBJECT':
## obmaterial = slot.material
#############################################
if info_callback:
info_callback("Object %2.d of %2.d (%s)" % (ob_num, len(sel), ob.name))
#if ob.type != 'MESH':
# continue
# me = ob.data
matrix = global_matrix * ob.matrix_world
povdataname = store(scene, ob, name, dataname, matrix)
if povdataname is None:
print("This is an instance")
continue
print("Writing Down First Occurence")
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############################################Povray Primitives
# special exportCurves() function takes care of writing
# lathe, sphere_sweep, birail, and loft
if ob.type == 'CURVE' and (ob.pov.curveshape in
{'lathe', 'sphere_sweep', 'loft'}):
continue #Don't render proxy mesh, skip to next object
if ob.pov.object_as == 'ISOSURFACE':
tabWrite("#declare %s = isosurface{ \n"% povdataname)
tabWrite("function{ \n")
textName = ob.pov.iso_function_text
if textName:
node_tree = bpy.context.scene.node_tree
for node in node_tree.nodes:
if node.bl_idname == "IsoPropsNode" and node.label == ob.name:
for inp in node.inputs:
if inp:
tabWrite("#declare %s = %.6g;\n"%(inp.name,inp.default_value))
text = bpy.data.texts[textName]
for line in text.lines:
split = line.body.split()
if split[0] != "#declare":
tabWrite("%s\n"%line.body)
else:
tabWrite("abs(x) - 2 + y")
tabWrite("}\n")
tabWrite("threshold %.6g\n"%ob.pov.threshold)
tabWrite("max_gradient %.6g\n"%ob.pov.max_gradient)
tabWrite("accuracy %.6g\n"%ob.pov.accuracy)
tabWrite("contained_by { ")
if ob.pov.contained_by == "sphere":
tabWrite("sphere {0,%.6g}}\n"%ob.pov.container_scale)
else:
tabWrite("box {-%.6g,%.6g}}\n"%(ob.pov.container_scale,ob.pov.container_scale))
if ob.pov.all_intersections:
tabWrite("all_intersections\n")
else:
if ob.pov.max_trace > 1:
tabWrite("max_trace %.6g\n"%ob.pov.max_trace)
povMatName = "Default_texture"
if ob.active_material:
#povMatName = string_strip_hyphen(bpy.path.clean_name(ob.active_material.name))
try:
material = ob.active_material
writeObjectMaterial(material, ob)
except IndexError:
print(me)
#tabWrite("texture {%s}\n"%povMatName)
tabWrite("scale %.6g\n"%(1/ob.pov.container_scale))
tabWrite("}\n")
continue #Don't render proxy mesh, skip to next object
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if ob.pov.object_as == 'SUPERELLIPSOID':
tabWrite("#declare %s = superellipsoid{ <%.4f,%.4f>\n"%(povdataname,ob.pov.se_n2,ob.pov.se_n1))
povMatName = "Default_texture"
if ob.active_material:
#povMatName = string_strip_hyphen(bpy.path.clean_name(ob.active_material.name))
try:
material = ob.active_material
writeObjectMaterial(material, ob)
except IndexError:
print(me)
#tabWrite("texture {%s}\n"%povMatName)
write_object_modifiers(scene,ob,file)
tabWrite("}\n")
continue #Don't render proxy mesh, skip to next object
if ob.pov.object_as == 'SUPERTORUS':
rMajor = ob.pov.st_major_radius
rMinor = ob.pov.st_minor_radius
ring = ob.pov.st_ring
cross = ob.pov.st_cross
accuracy=ob.pov.st_accuracy
gradient=ob.pov.st_max_gradient
############Inline Supertorus macro
file.write("#macro Supertorus(RMj, RMn, MajorControl, MinorControl, Accuracy, MaxGradient)\n")
file.write(" #local CP = 2/MinorControl;\n")
file.write(" #local RP = 2/MajorControl;\n")
file.write(" isosurface {\n")
file.write(" function { pow( pow(abs(pow(pow(abs(x),RP) + pow(abs(z),RP), 1/RP) - RMj),CP) + pow(abs(y),CP) ,1/CP) - RMn }\n")
file.write(" threshold 0\n")
file.write(" contained_by {box {<-RMj-RMn,-RMn,-RMj-RMn>, < RMj+RMn, RMn, RMj+RMn>}}\n")
file.write(" #if(MaxGradient >= 1)\n")
file.write(" max_gradient MaxGradient\n")
file.write(" #else\n")
file.write(" evaluate 1, 10, 0.1\n")
file.write(" #end\n")
file.write(" accuracy Accuracy\n")
file.write(" }\n")
file.write("#end\n")
############
tabWrite("#declare %s = object{ Supertorus( %.4g,%.4g,%.4g,%.4g,%.4g,%.4g)\n"%(povdataname,rMajor,rMinor,ring,cross,accuracy,gradient))
povMatName = "Default_texture"
if ob.active_material:
#povMatName = string_strip_hyphen(bpy.path.clean_name(ob.active_material.name))
try:
material = ob.active_material
writeObjectMaterial(material, ob)
except IndexError:
print(me)
#tabWrite("texture {%s}\n"%povMatName)
write_object_modifiers(scene,ob,file)
tabWrite("rotate x*90\n")
tabWrite("}\n")
continue #Don't render proxy mesh, skip to next object
if ob.pov.object_as == 'PLANE':
tabWrite("#declare %s = plane{ <0,0,1>,1\n"%povdataname)
povMatName = "Default_texture"
if ob.active_material:
#povMatName = string_strip_hyphen(bpy.path.clean_name(ob.active_material.name))
try:
material = ob.active_material
writeObjectMaterial(material, ob)
except IndexError:
print(me)
#tabWrite("texture {%s}\n"%povMatName)
write_object_modifiers(scene,ob,file)
#tabWrite("rotate x*90\n")
tabWrite("}\n")
continue #Don't render proxy mesh, skip to next object
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if ob.pov.object_as == 'BOX':
tabWrite("#declare %s = box { -1,1\n"%povdataname)
povMatName = "Default_texture"
if ob.active_material:
#povMatName = string_strip_hyphen(bpy.path.clean_name(ob.active_material.name))
try:
material = ob.active_material
writeObjectMaterial(material, ob)
except IndexError:
print(me)
#tabWrite("texture {%s}\n"%povMatName)
write_object_modifiers(scene,ob,file)
#tabWrite("rotate x*90\n")
tabWrite("}\n")
continue #Don't render proxy mesh, skip to next object
if ob.pov.object_as == 'CONE':
br = ob.pov.cone_base_radius
cr = ob.pov.cone_cap_radius
bz = ob.pov.cone_base_z
cz = ob.pov.cone_cap_z
tabWrite("#declare %s = cone { <0,0,%.4f>,%.4f,<0,0,%.4f>,%.4f\n"%(povdataname,bz,br,cz,cr))
povMatName = "Default_texture"
if ob.active_material:
#povMatName = string_strip_hyphen(bpy.path.clean_name(ob.active_material.name))
try:
material = ob.active_material
writeObjectMaterial(material, ob)
except IndexError:
print(me)
#tabWrite("texture {%s}\n"%povMatName)
write_object_modifiers(scene,ob,file)
#tabWrite("rotate x*90\n")
tabWrite("}\n")
continue #Don't render proxy mesh, skip to next object
if ob.pov.object_as == 'CYLINDER':
tabWrite("#declare %s = cylinder { <0,0,1>,<0,0,-1>,1\n"%povdataname)
povMatName = "Default_texture"
if ob.active_material:
#povMatName = string_strip_hyphen(bpy.path.clean_name(ob.active_material.name))
try:
material = ob.active_material
writeObjectMaterial(material, ob)
except IndexError:
print(me)
#tabWrite("texture {%s}\n"%povMatName)
write_object_modifiers(scene,ob,file)
#tabWrite("rotate x*90\n")
tabWrite("}\n")
continue #Don't render proxy mesh, skip to next object
if ob.pov.object_as == 'HEIGHT_FIELD':
data = ""
filename = ob.pov.hf_filename
data += '"%s"'%filename
gamma = ' gamma %.4f'%ob.pov.hf_gamma
data += gamma
if ob.pov.hf_premultiplied:
data += ' premultiplied on'
if ob.pov.hf_smooth:
data += ' smooth'
if ob.pov.hf_water > 0:
data += ' water_level %.4f'%ob.pov.hf_water
#hierarchy = ob.pov.hf_hierarchy
tabWrite('#declare %s = height_field { %s\n'%(povdataname,data))
povMatName = "Default_texture"
if ob.active_material:
#povMatName = string_strip_hyphen(bpy.path.clean_name(ob.active_material.name))
try:
material = ob.active_material
writeObjectMaterial(material, ob)
except IndexError:
print(me)
#tabWrite("texture {%s}\n"%povMatName)
write_object_modifiers(scene,ob,file)
tabWrite("rotate x*90\n")
tabWrite("translate <-0.5,0.5,0>\n")
tabWrite("scale <0,-1,0>\n")
tabWrite("}\n")
continue #Don't render proxy mesh, skip to next object
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if ob.pov.object_as == 'SPHERE':
tabWrite("#declare %s = sphere { 0,%6f\n"%(povdataname,ob.pov.sphere_radius))
povMatName = "Default_texture"
if ob.active_material:
#povMatName = string_strip_hyphen(bpy.path.clean_name(ob.active_material.name))
try:
material = ob.active_material
writeObjectMaterial(material, ob)
except IndexError:
print(me)
#tabWrite("texture {%s}\n"%povMatName)
write_object_modifiers(scene,ob,file)
#tabWrite("rotate x*90\n")
tabWrite("}\n")
continue #Don't render proxy mesh, skip to next object
if ob.pov.object_as == 'TORUS':
tabWrite("#declare %s = torus { %.4f,%.4f\n"%(povdataname,ob.pov.torus_major_radius,ob.pov.torus_minor_radius))
povMatName = "Default_texture"
if ob.active_material:
#povMatName = string_strip_hyphen(bpy.path.clean_name(ob.active_material.name))
try:
material = ob.active_material
writeObjectMaterial(material, ob)
except IndexError:
print(me)
#tabWrite("texture {%s}\n"%povMatName)
write_object_modifiers(scene,ob,file)
tabWrite("rotate x*90\n")
tabWrite("}\n")
continue #Don't render proxy mesh, skip to next object
if ob.pov.object_as == 'PARAMETRIC':
tabWrite("#declare %s = parametric {\n"%povdataname)
tabWrite("function { %s }\n"%ob.pov.x_eq)
tabWrite("function { %s }\n"%ob.pov.y_eq)
tabWrite("function { %s }\n"%ob.pov.z_eq)
tabWrite("<%.4f,%.4f>, <%.4f,%.4f>\n"%(ob.pov.u_min,ob.pov.v_min,ob.pov.u_max,ob.pov.v_max))
if ob.pov.contained_by == "sphere":
tabWrite("contained_by { sphere{0, 2} }\n")
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tabWrite("contained_by { box{-2, 2} }\n")
tabWrite("max_gradient %.6f\n"%ob.pov.max_gradient)
tabWrite("accuracy %.6f\n"%ob.pov.accuracy)
tabWrite("precompute 10 x,y,z\n")
tabWrite("}\n")
continue #Don't render proxy mesh, skip to next object
if ob.pov.object_as == 'POLYCIRCLE':
#TODO write below macro Once:
#if write_polytocircle_macro_once == 0:
file.write("/****************************\n")
file.write("This macro was written by 'And'.\n")
file.write("Link:(http://news.povray.org/povray.binaries.scene-files/)\n")
file.write("****************************/\n")
file.write("//from math.inc:\n")
file.write("#macro VPerp_Adjust(V, Axis)\n")
file.write(" vnormalize(vcross(vcross(Axis, V), Axis))\n")
file.write("#end\n")
file.write("//Then for the actual macro\n")
file.write("#macro Shape_Slice_Plane_2P_1V(point1, point2, clip_direct)\n")
file.write("#local p1 = point1 + <0,0,0>;\n")
file.write("#local p2 = point2 + <0,0,0>;\n")
file.write("#local clip_v = vnormalize(clip_direct + <0,0,0>);\n")
file.write("#local direct_v1 = vnormalize(p2 - p1);\n")
file.write("#if(vdot(direct_v1, clip_v) = 1)\n")
file.write(' #error "Shape_Slice_Plane_2P_1V error: Can\'t decide plane"\n')
file.write("#end\n\n")
file.write("#local norm = -vnormalize(clip_v - direct_v1*vdot(direct_v1,clip_v));\n")
file.write("#local d = vdot(norm, p1);\n")
file.write("plane{\n")
file.write("norm, d\n")
file.write("}\n")
file.write("#end\n\n")
file.write("//polygon to circle\n")
file.write("#macro Shape_Polygon_To_Circle_Blending(_polygon_n, _side_face, _polygon_circumscribed_radius, _circle_radius, _height)\n")
file.write("#local n = int(_polygon_n);\n")
file.write("#if(n < 3)\n")
file.write(" #error ""\n")
file.write("#end\n\n")
file.write("#local front_v = VPerp_Adjust(_side_face, z);\n")
file.write("#if(vdot(front_v, x) >= 0)\n")
file.write(" #local face_ang = acos(vdot(-y, front_v));\n")
file.write("#else\n")
file.write(" #local face_ang = -acos(vdot(-y, front_v));\n")
file.write("#end\n")
file.write("#local polyg_ext_ang = 2*pi/n;\n")
file.write("#local polyg_outer_r = _polygon_circumscribed_radius;\n")
file.write("#local polyg_inner_r = polyg_outer_r*cos(polyg_ext_ang/2);\n")
file.write("#local cycle_r = _circle_radius;\n")
file.write("#local h = _height;\n")
file.write("#if(polyg_outer_r < 0 | cycle_r < 0 | h <= 0)\n")
file.write(' #error "error: each side length must be positive"\n')
file.write("#end\n\n")
file.write("#local multi = 1000;\n")
file.write("#local poly_obj =\n")
file.write("polynomial{\n")
file.write("4,\n")
file.write("xyz(0,2,2): multi*1,\n")
file.write("xyz(2,0,1): multi*2*h,\n")
file.write("xyz(1,0,2): multi*2*(polyg_inner_r-cycle_r),\n")
file.write("xyz(2,0,0): multi*(-h*h),\n")
file.write("xyz(0,0,2): multi*(-pow(cycle_r - polyg_inner_r, 2)),\n")
file.write("xyz(1,0,1): multi*2*h*(-2*polyg_inner_r + cycle_r),\n")
file.write("xyz(1,0,0): multi*2*h*h*polyg_inner_r,\n")
file.write("xyz(0,0,1): multi*2*h*polyg_inner_r*(polyg_inner_r - cycle_r),\n")
file.write("xyz(0,0,0): multi*(-pow(polyg_inner_r*h, 2))\n")
file.write("sturm\n")
file.write("}\n\n")
file.write("#local mockup1 =\n")
file.write("difference{\n")
file.write(" cylinder{\n")
file.write(" <0,0,0.0>,<0,0,h>, max(polyg_outer_r, cycle_r)\n")
file.write(" }\n\n")
file.write(" #for(i, 0, n-1)\n")
file.write(" object{\n")
file.write(" poly_obj\n")
file.write(" inverse\n")
file.write(" rotate <0, 0, -90 + degrees(polyg_ext_ang*i)>\n")
file.write(" }\n")
file.write(" object{\n")
file.write(" Shape_Slice_Plane_2P_1V(<polyg_inner_r,0,0>,<cycle_r,0,h>,x)\n")
file.write(" rotate <0, 0, -90 + degrees(polyg_ext_ang*i)>\n")
file.write(" }\n")
file.write(" #end\n")
file.write("}\n\n")
file.write("object{\n")
file.write("mockup1\n")
file.write("rotate <0, 0, degrees(face_ang)>\n")
file.write("}\n")
file.write("#end\n")
#Use the macro
ngon = ob.pov.polytocircle_ngon
ngonR = ob.pov.polytocircle_ngonR
circleR = ob.pov.polytocircle_circleR
tabWrite("#declare %s = object { Shape_Polygon_To_Circle_Blending(%s, z, %.4f, %.4f, 2) rotate x*180 translate z*1\n"%(povdataname,ngon,ngonR,circleR))
tabWrite("}\n")
continue #Don't render proxy mesh, skip to next object
############################################else try to export mesh
else:
try:
me = ob.to_mesh(scene, True, 'RENDER')
except:
# happens when curves cant be made into meshes because of no-data
continue
importance = ob.pov.importance_value
me_materials = me.materials
me_faces = me.tessfaces[:]
if not me or not me_faces:
continue
uv_textures = me.tessface_uv_textures
if len(uv_textures) > 0:
if me.uv_textures.active and uv_textures.active.data:
uv_layer = uv_textures.active.data
uv_layer = None
try:
#vcol_layer = me.vertex_colors.active.data
vcol_layer = me.tessface_vertex_colors.active.data
except AttributeError:
vcol_layer = None
faces_verts = [f.vertices[:] for f in me_faces]
faces_normals = [f.normal[:] for f in me_faces]
verts_normals = [v.normal[:] for v in me.vertices]
# quads incur an extra face
quadCount = sum(1 for f in faces_verts if len(f) == 4)
# Use named declaration to allow reference e.g. for baking. MR
file.write("\n")
tabWrite("#declare %s =\n" % povdataname)
tabWrite("mesh2 {\n")
tabWrite("vertex_vectors {\n")
tabWrite("%d" % len(me.vertices)) # vert count
tabStr = tab * tabLevel
for v in me.vertices:
if linebreaksinlists:
file.write(",\n")
file.write(tabStr + "<%.6f, %.6f, %.6f>" % v.co[:]) # vert count
file.write(", ")
file.write("<%.6f, %.6f, %.6f>" % v.co[:]) # vert count
#tabWrite("<%.6f, %.6f, %.6f>" % v.co[:]) # vert count
file.write("\n")
tabWrite("}\n")
# Build unique Normal list
uniqueNormals = {}
for fi, f in enumerate(me_faces):
fv = faces_verts[fi]
# [-1] is a dummy index, use a list so we can modify in place
if f.use_smooth: # Use vertex normals
for v in fv:
key = verts_normals[v]
uniqueNormals[key] = [-1]
else: # Use face normal
key = faces_normals[fi]
uniqueNormals[key] = [-1]
tabWrite("normal_vectors {\n")
tabWrite("%d" % len(uniqueNormals)) # vert count
idx = 0
tabStr = tab * tabLevel
for no, index in uniqueNormals.items():
if linebreaksinlists:
file.write(",\n")
file.write(tabStr + "<%.6f, %.6f, %.6f>" % no) # vert count
file.write("<%.6f, %.6f, %.6f>" % no) # vert count
index[0] = idx
idx += 1
file.write("\n")
tabWrite("}\n")
# Vertex colors
vertCols = {} # Use for material colors also.
if uv_layer:
# Generate unique UV's
uniqueUVs = {}
#n = 0
for fi, uv in enumerate(uv_layer):
if len(faces_verts[fi]) == 4:
uvs = uv_layer[fi].uv[0], uv_layer[fi].uv[1], uv_layer[fi].uv[2], uv_layer[fi].uv[3]
uvs = uv_layer[fi].uv[0], uv_layer[fi].uv[1], uv_layer[fi].uv[2]
for uv in uvs:
uniqueUVs[uv[:]] = [-1]
tabWrite("uv_vectors {\n")
#print unique_uvs
tabWrite("%d" % len(uniqueUVs)) # vert count
idx = 0
tabStr = tab * tabLevel
for uv, index in uniqueUVs.items():
if linebreaksinlists:
file.write(",\n")
file.write(tabStr + "<%.6f, %.6f>" % uv)
file.write(", ")
file.write("<%.6f, %.6f>" % uv)
index[0] = idx
idx += 1
'''
# Just add 1 dummy vector, no real UV's
tabWrite('1') # vert count
file.write(',\n\t\t<0.0, 0.0>')
'''
file.write("\n")
tabWrite("}\n")
if me.vertex_colors:
#Write down vertex colors as a texture for each vertex
tabWrite("texture_list {\n")
tabWrite("%d\n" % (((len(me_faces)-quadCount) * 3 )+ quadCount * 4)) # works only with tris and quad mesh for now
VcolIdx=0
if comments:
file.write("\n //Vertex colors: one simple pigment texture per vertex\n")
for fi, f in enumerate(me_faces):
# annoying, index may be invalid
material_index = f.material_index
try:
material = me_materials[material_index]
except:
material = None
if material: #and material.use_vertex_color_paint: #Always use vertex color when there is some for now
col = vcol_layer[fi]
if len(faces_verts[fi]) == 4:
cols = col.color1, col.color2, col.color3, col.color4
cols = col.color1, col.color2, col.color3
for col in cols:
key = col[0], col[1], col[2], material_index # Material index!
VcolIdx+=1
vertCols[key] = [VcolIdx]
if linebreaksinlists:
tabWrite("texture {pigment{ color rgb <%6f,%6f,%6f> }}\n" % (col[0], col[1], col[2]))
else:
tabWrite("texture {pigment{ color rgb <%6f,%6f,%6f> }}" % (col[0], col[1], col[2]))
tabStr = tab * tabLevel
else:
if material:
# Multiply diffuse with SSS Color
if material.subsurface_scattering.use:
diffuse_color = [i * j for i, j in zip(material.subsurface_scattering.color[:], material.diffuse_color[:])]
key = diffuse_color[0], diffuse_color[1], diffuse_color[2], \
material_index
vertCols[key] = [-1]
else:
diffuse_color = material.diffuse_color[:]
key = diffuse_color[0], diffuse_color[1], diffuse_color[2], \
material_index
vertCols[key] = [-1]
tabWrite("\n}\n")
# Face indices
tabWrite("\nface_indices {\n")
tabWrite("%d" % (len(me_faces) + quadCount)) # faces count
tabStr = tab * tabLevel
for fi, f in enumerate(me_faces):
fv = faces_verts[fi]
material_index = f.material_index
if len(fv) == 4:
indices = (0, 1, 2), (0, 2, 3)
else:
indices = ((0, 1, 2),)
if vcol_layer:
col = vcol_layer[fi]
if len(fv) == 4:
cols = col.color1, col.color2, col.color3, col.color4
cols = col.color1, col.color2, col.color3
if not me_materials or me_materials[material_index] is None: # No materials
for i1, i2, i3 in indices:
if linebreaksinlists:
file.write(",\n")
# vert count
file.write(tabStr + "<%d,%d,%d>" % (fv[i1], fv[i2], fv[i3]))
else:
file.write(", ")
file.write("<%d,%d,%d>" % (fv[i1], fv[i2], fv[i3])) # vert count
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material = me_materials[material_index]
for i1, i2, i3 in indices:
if me.vertex_colors: #and material.use_vertex_color_paint:
# Color per vertex - vertex color
col1 = cols[i1]
col2 = cols[i2]
col3 = cols[i3]
ci1 = vertCols[col1[0], col1[1], col1[2], material_index][0]
ci2 = vertCols[col2[0], col2[1], col2[2], material_index][0]
ci3 = vertCols[col3[0], col3[1], col3[2], material_index][0]
else:
# Color per material - flat material color
if material.subsurface_scattering.use:
diffuse_color = [i * j for i, j in zip(material.subsurface_scattering.color[:], material.diffuse_color[:])]
else:
diffuse_color = material.diffuse_color[:]
ci1 = ci2 = ci3 = vertCols[diffuse_color[0], diffuse_color[1], \
diffuse_color[2], f.material_index][0]
# ci are zero based index so we'll subtract 1 from them
if linebreaksinlists:
file.write(",\n")
file.write(tabStr + "<%d,%d,%d>, %d,%d,%d" % \
(fv[i1], fv[i2], fv[i3], ci1-1, ci2-1, ci3-1)) # vert count
else:
file.write(", ")
file.write("<%d,%d,%d>, %d,%d,%d" % \
(fv[i1], fv[i2], fv[i3], ci1-1, ci2-1, ci3-1)) # vert count
file.write("\n")
tabWrite("}\n")
# normal_indices indices
tabWrite("normal_indices {\n")
tabWrite("%d" % (len(me_faces) + quadCount)) # faces count
tabStr = tab * tabLevel
for fi, fv in enumerate(faces_verts):
if len(fv) == 4:
indices = (0, 1, 2), (0, 2, 3)
else:
indices = ((0, 1, 2),)
if me_faces[fi].use_smooth:
if linebreaksinlists:
file.write(",\n")
file.write(tabStr + "<%d,%d,%d>" %\
(uniqueNormals[verts_normals[fv[i1]]][0],\
uniqueNormals[verts_normals[fv[i2]]][0],\
uniqueNormals[verts_normals[fv[i3]]][0])) # vert count
else:
file.write(", ")
file.write("<%d,%d,%d>" %\
(uniqueNormals[verts_normals[fv[i1]]][0],\
uniqueNormals[verts_normals[fv[i2]]][0],\
uniqueNormals[verts_normals[fv[i3]]][0])) # vert count
Maurice Raybaud
committed
else:
idx = uniqueNormals[faces_normals[fi]][0]
if linebreaksinlists:
file.write(",\n")
file.write(tabStr + "<%d,%d,%d>" % (idx, idx, idx)) # vert count
else:
file.write(", ")
file.write("<%d,%d,%d>" % (idx, idx, idx)) # vert count
file.write("\n")
tabWrite("}\n")
if uv_layer:
tabWrite("uv_indices {\n")
tabWrite("%d" % (len(me_faces) + quadCount)) # faces count
tabStr = tab * tabLevel
for fi, fv in enumerate(faces_verts):
if len(fv) == 4:
indices = (0, 1, 2), (0, 2, 3)
else:
indices = ((0, 1, 2),)
Maurice Raybaud
committed
uv = uv_layer[fi]
if len(faces_verts[fi]) == 4:
uvs = uv.uv[0][:], uv.uv[1][:], uv.uv[2][:], uv.uv[3][:]
Maurice Raybaud
committed
else:
uvs = uv.uv[0][:], uv.uv[1][:], uv.uv[2][:]
for i1, i2, i3 in indices:
if linebreaksinlists:
file.write(",\n")
file.write(tabStr + "<%d,%d,%d>" % (
uniqueUVs[uvs[i1]][0],\
uniqueUVs[uvs[i2]][0],\
uniqueUVs[uvs[i3]][0]))
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file.write(", ")
file.write("<%d,%d,%d>" % (
uniqueUVs[uvs[i1]][0],\
uniqueUVs[uvs[i2]][0],\
uniqueUVs[uvs[i3]][0]))
file.write("\n")
tabWrite("}\n")
if me.materials:
try:
material = me.materials[0] # dodgy
writeObjectMaterial(material, ob)
except IndexError:
print(me)
#Importance for radiosity sampling added here:
tabWrite("radiosity { \n")
tabWrite("importance %3g \n" % importance)
tabWrite("}\n")
tabWrite("}\n") # End of mesh block
else:
# No vertex colors, so write material colors as vertex colors
for i, material in enumerate(me_materials):
if material:
# Multiply diffuse with SSS Color
if material.subsurface_scattering.use:
diffuse_color = [i * j for i, j in zip(material.subsurface_scattering.color[:], material.diffuse_color[:])]
key = diffuse_color[0], diffuse_color[1], diffuse_color[2], i # i == f.mat
vertCols[key] = [-1]
else:
diffuse_color = material.diffuse_color[:]
key = diffuse_color[0], diffuse_color[1], diffuse_color[2], i # i == f.mat
vertCols[key] = [-1]
idx = 0
LocalMaterialNames = []
for col, index in vertCols.items():
#if me_materials:
mater = me_materials[col[3]]
if me_materials is None: #XXX working?
material_finish = DEF_MAT_NAME # not working properly,
trans = 0.0
Maurice Raybaud
committed
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material_finish = materialNames[mater.name]
if mater.use_transparency:
trans = 1.0 - mater.alpha
else:
trans = 0.0
if (mater.specular_color.s == 0.0):
colored_specular_found = False
else:
colored_specular_found = True
if mater.use_transparency and mater.transparency_method == 'RAYTRACE':
povFilter = mater.raytrace_transparency.filter * (1.0 - mater.alpha)
trans = (1.0 - mater.alpha) - povFilter
else:
povFilter = 0.0
##############SF
texturesDif = ""
texturesSpec = ""
texturesNorm = ""
texturesAlpha = ""
#proceduralFlag=False
for t in mater.texture_slots:
if t and t.use and t.texture.type != 'IMAGE' and t.texture.type != 'NONE':
proceduralFlag=True
image_filename = "PAT_%s"%string_strip_hyphen(bpy.path.clean_name(t.texture.name))
if image_filename:
if t.use_map_color_diffuse:
texturesDif = image_filename
# colvalue = t.default_value # UNUSED
t_dif = t
if t_dif.texture.pov.tex_gamma_enable:
imgGamma = (" gamma %.3g " % t_dif.texture.pov.tex_gamma_value)
if t.use_map_specular or t.use_map_raymir:
texturesSpec = image_filename
# colvalue = t.default_value # UNUSED
t_spec = t
if t.use_map_normal:
texturesNorm = image_filename
# colvalue = t.normal_factor * 10.0 # UNUSED
#textNormName=t.texture.image.name + ".normal"
#was the above used? --MR
t_nor = t
if t.use_map_alpha:
texturesAlpha = image_filename
# colvalue = t.alpha_factor * 10.0 # UNUSED
#textDispName=t.texture.image.name + ".displ"
#was the above used? --MR
t_alpha = t
if t and t.texture.type == 'IMAGE' and t.use and t.texture.image and t.texture.pov.tex_pattern_type == 'emulator':
proceduralFlag=False
if t.texture.image.packed_file:
orig_image_filename=t.texture.image.filepath_raw
unpackedfilename= os.path.join(preview_dir,("unpacked_img_"+(string_strip_hyphen(bpy.path.clean_name(t.texture.name)))))
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if not os.path.exists(unpackedfilename):
# record which images that were newly copied and can be safely
# cleaned up
unpacked_images.append(unpackedfilename)
t.texture.image.filepath_raw=unpackedfilename
t.texture.image.save()
image_filename = unpackedfilename
t.texture.image.filepath_raw=orig_image_filename
else:
image_filename = path_image(t.texture.image)
# IMAGE SEQUENCE BEGINS
if image_filename:
if bpy.data.images[t.texture.image.name].source == 'SEQUENCE':
korvaa = "." + str(bpy.data.textures[t.texture.name].image_user.frame_offset + 1).zfill(3) + "."
image_filename = image_filename.replace(".001.", korvaa)
print(" seq debug ")
print(image_filename)
# IMAGE SEQUENCE ENDS
imgGamma = ""
if image_filename:
if t.use_map_color_diffuse:
texturesDif = image_filename
# colvalue = t.default_value # UNUSED
t_dif = t
if t_dif.texture.pov.tex_gamma_enable:
imgGamma = (" gamma %.3g " % t_dif.texture.pov.tex_gamma_value)
if t.use_map_specular or t.use_map_raymir:
texturesSpec = image_filename
# colvalue = t.default_value # UNUSED
t_spec = t
if t.use_map_normal:
texturesNorm = image_filename
# colvalue = t.normal_factor * 10.0 # UNUSED
#textNormName=t.texture.image.name + ".normal"
#was the above used? --MR
t_nor = t
if t.use_map_alpha:
texturesAlpha = image_filename
# colvalue = t.alpha_factor * 10.0 # UNUSED
#textDispName=t.texture.image.name + ".displ"
#was the above used? --MR
t_alpha = t
####################################################################################
file.write("\n")
# THIS AREA NEEDS TO LEAVE THE TEXTURE OPEN UNTIL ALL MAPS ARE WRITTEN DOWN.
# --MR
currentMatName = string_strip_hyphen(materialNames[mater.name])
LocalMaterialNames.append(currentMatName)
file.write("\n #declare MAT_%s = \ntexture{\n" % currentMatName)
################################################################################
if mater.pov.replacement_text != "":
file.write("%s\n" % mater.pov.replacement_text)
#################################################################################
if mater.diffuse_shader == 'MINNAERT':
tabWrite("\n")
tabWrite("aoi\n")
tabWrite("texture_map {\n")
tabWrite("[%.3g finish {diffuse %.3g}]\n" % \
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(mater.darkness / 2.0, 2.0 - mater.darkness))
tabWrite("[%.3g\n" % (1.0 - (mater.darkness / 2.0)))
if mater.diffuse_shader == 'FRESNEL':
# For FRESNEL diffuse in POV, we'll layer slope patterned textures
# with lamp vector as the slope vector and nest one slope per lamp
# into each texture map's entry.
c = 1
while (c <= lampCount):
tabWrite("slope { lampTarget%s }\n" % (c))
tabWrite("texture_map {\n")
# Diffuse Fresnel value and factor go up to five,
# other kind of values needed: used the number 5 below to remap
tabWrite("[%.3g finish {diffuse %.3g}]\n" % \
((5.0 - mater.diffuse_fresnel) / 5,
(mater.diffuse_intensity *
((5.0 - mater.diffuse_fresnel_factor) / 5))))
tabWrite("[%.3g\n" % ((mater.diffuse_fresnel_factor / 5) *
(mater.diffuse_fresnel / 5.0)))
c += 1
# if shader is a 'FRESNEL' or 'MINNAERT': slope pigment pattern or aoi
# and texture map above, the rest below as one of its entry
if texturesSpec != "" or texturesAlpha != "":
if texturesSpec != "":
# tabWrite("\n")
tabWrite("pigment_pattern {\n")
if texturesSpec and texturesSpec.startswith("PAT_"):
tabWrite("function{f%s(x,y,z).grey}" %texturesSpec)
else:
# POV-Ray "scale" is not a number of repetitions factor, but its
# inverse, a standard scale factor.
# Offset seems needed relatively to scale so probably center of the
# scale is not the same in blender and POV
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mappingSpec =imgMapTransforms(t_spec)
# mappingSpec = "translate <%.4g,%.4g,%.4g> scale <%.4g,%.4g,%.4g>\n" % \
# (-t_spec.offset.x, t_spec.offset.y, t_spec.offset.z,
# 1.0 / t_spec.scale.x, 1.0 / t_spec.scale.y,
# 1.0 / t_spec.scale.z)
tabWrite("uv_mapping image_map{%s \"%s\" %s}\n" % \
(imageFormat(texturesSpec), texturesSpec, imgMap(t_spec)))
tabWrite("%s\n" % mappingSpec)
tabWrite("}\n")
tabWrite("texture_map {\n")
tabWrite("[0 \n")
if texturesDif == "":
if texturesAlpha != "":
tabWrite("\n")
if texturesAlpha and texturesAlpha.startswith("PAT_"):
tabWrite("function{f%s(x,y,z).transmit}\n" %texturesAlpha)
else:
# POV-Ray "scale" is not a number of repetitions factor, but its
# inverse, a standard scale factor.
# Offset seems needed relatively to scale so probably center of the
# scale is not the same in blender and POV
mappingAlpha = imgMapTransforms(t_alpha)
# mappingAlpha = " translate <%.4g, %.4g, %.4g> " \
# "scale <%.4g, %.4g, %.4g>\n" % \
# (-t_alpha.offset.x, -t_alpha.offset.y,
# t_alpha.offset.z, 1.0 / t_alpha.scale.x,
# 1.0 / t_alpha.scale.y, 1.0 / t_alpha.scale.z)
tabWrite("pigment {pigment_pattern {uv_mapping image_map" \
"{%s \"%s\" %s}%s" % \
(imageFormat(texturesAlpha), texturesAlpha,
imgMap(t_alpha), mappingAlpha))
tabWrite("}\n")
tabWrite("pigment_map {\n")
tabWrite("[0 color rgbft<0,0,0,1,1>]\n")
tabWrite("[1 color rgbft<%.3g, %.3g, %.3g, %.3g, %.3g>]\n" % \
(col[0], col[1], col[2], povFilter, trans))
tabWrite("}\n")
tabWrite("}\n")
else:
tabWrite("pigment {rgbft<%.3g, %.3g, %.3g, %.3g, %.3g>}\n" % \
(col[0], col[1], col[2], povFilter, trans))
if texturesSpec != "":
# Level 1 is no specular
tabWrite("finish {%s}\n" % (safety(material_finish, Level=1)))
else:
# Level 2 is translated spec
tabWrite("finish {%s}\n" % (safety(material_finish, Level=2)))
else:
mappingDif = imgMapTransforms(t_dif)
if texturesAlpha != "":
mappingAlpha = imgMapTransforms(t_alpha)
# mappingAlpha = " translate <%.4g,%.4g,%.4g> " \
# "scale <%.4g,%.4g,%.4g>" % \
# (-t_alpha.offset.x, -t_alpha.offset.y,
# t_alpha.offset.z, 1.0 / t_alpha.scale.x,
# 1.0 / t_alpha.scale.y, 1.0 / t_alpha.scale.z)
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tabWrite("pigment {\n")
tabWrite("pigment_pattern {\n")
if texturesAlpha and texturesAlpha.startswith("PAT_"):
tabWrite("function{f%s(x,y,z).transmit}\n" %texturesAlpha)
else:
tabWrite("uv_mapping image_map{%s \"%s\" %s}%s}\n" % \
(imageFormat(texturesAlpha), texturesAlpha,
imgMap(t_alpha), mappingAlpha))
tabWrite("pigment_map {\n")
tabWrite("[0 color rgbft<0,0,0,1,1>]\n")
#if texturesAlpha and texturesAlpha.startswith("PAT_"):
#tabWrite("[1 pigment{%s}]\n" %texturesDif)
if texturesDif and not texturesDif.startswith("PAT_"):
tabWrite("[1 uv_mapping image_map {%s \"%s\" %s} %s]\n" % \
(imageFormat(texturesDif), texturesDif,
(imgGamma + imgMap(t_dif)), mappingDif))
elif texturesDif and texturesDif.startswith("PAT_"):
tabWrite("[1 %s]\n" %texturesDif)
tabWrite("}\n")
tabWrite("}\n")
if texturesAlpha and texturesAlpha.startswith("PAT_"):
tabWrite("}\n")
else:
if texturesDif and texturesDif.startswith("PAT_"):
tabWrite("pigment{%s}\n" %texturesDif)
else:
tabWrite("pigment {uv_mapping image_map {%s \"%s\" %s}%s}\n" % \
(imageFormat(texturesDif), texturesDif,
(imgGamma + imgMap(t_dif)), mappingDif))
if texturesSpec != "":
# Level 1 is no specular
tabWrite("finish {%s}\n" % (safety(material_finish, Level=1)))
else:
# Level 2 is translated specular
tabWrite("finish {%s}\n" % (safety(material_finish, Level=2)))
## scale 1 rotate y*0
#imageMap = ("{image_map {%s \"%s\" %s }\n" % \
# (imageFormat(textures),textures,imgMap(t_dif)))
#tabWrite("uv_mapping pigment %s} %s finish {%s}\n" % \
# (imageMap,mapping,safety(material_finish)))
#tabWrite("pigment {uv_mapping image_map {%s \"%s\" %s}%s} " \
# "finish {%s}\n" % \
# (imageFormat(texturesDif), texturesDif, imgMap(t_dif),
# mappingDif, safety(material_finish)))
if texturesNorm != "":
## scale 1 rotate y*0
# POV-Ray "scale" is not a number of repetitions factor, but its
# inverse, a standard scale factor.
# Offset seems needed relatively to scale so probably center of the
# scale is not the same in blender and POV
mappingNor =imgMapTransforms(t_nor)
# mappingNor = " translate <%.4g,%.4g,%.4g> scale <%.4g,%.4g,%.4g>" % \
# (-t_nor.offset.x, -t_nor.offset.y, t_nor.offset.z,
# 1.0 / t_nor.scale.x, 1.0 / t_nor.scale.y,
# 1.0 / t_nor.scale.z)
#imageMapNor = ("{bump_map {%s \"%s\" %s mapping}" % \
# (imageFormat(texturesNorm),texturesNorm,imgMap(t_nor)))
#We were not using the above maybe we should?
if texturesNorm and texturesNorm.startswith("PAT_"):
tabWrite("normal{function{f%s(x,y,z).grey} bump_size %.4g}\n" %(texturesNorm, t_nor.normal_factor * 10))
else:
tabWrite("normal {uv_mapping bump_map " \
"{%s \"%s\" %s bump_size %.4g }%s}\n" % \
(imageFormat(texturesNorm), texturesNorm, imgMap(t_nor),
t_nor.normal_factor * 10, mappingNor))
if texturesSpec != "":
tabWrite("]\n")
##################Second index for mapping specular max value###############
tabWrite("[1 \n")
if texturesDif == "" and mater.pov.replacement_text == "":
if texturesAlpha != "":
# POV-Ray "scale" is not a number of repetitions factor, but its inverse,
# a standard scale factor.
# Offset seems needed relatively to scale so probably center of the scale
# is not the same in blender and POV
# Strange that the translation factor for scale is not the same as for
# translate.
# TODO: verify both matches with blender internal.
mappingAlpha = imgMapTransforms(t_alpha)
# mappingAlpha = " translate <%.4g,%.4g,%.4g> scale <%.4g,%.4g,%.4g>\n" % \
# (-t_alpha.offset.x, -t_alpha.offset.y, t_alpha.offset.z,
# 1.0 / t_alpha.scale.x, 1.0 / t_alpha.scale.y,
# 1.0 / t_alpha.scale.z)
if texturesAlpha and texturesAlpha.startswith("PAT_"):
tabWrite("function{f%s(x,y,z).transmit}\n" %texturesAlpha)
else:
tabWrite("pigment {pigment_pattern {uv_mapping image_map" \
"{%s \"%s\" %s}%s}\n" % \
(imageFormat(texturesAlpha), texturesAlpha, imgMap(t_alpha),
mappingAlpha))
tabWrite("pigment_map {\n")
tabWrite("[0 color rgbft<0,0,0,1,1>]\n")
tabWrite("[1 color rgbft<%.3g, %.3g, %.3g, %.3g, %.3g>]\n" % \
(col[0], col[1], col[2], povFilter, trans))
tabWrite("}\n")
tabWrite("}\n")
else:
tabWrite("pigment {rgbft<%.3g, %.3g, %.3g, %.3g, %.3g>}\n" % \
(col[0], col[1], col[2], povFilter, trans))
# Level 3 is full specular
tabWrite("finish {%s}\n" % (safety(material_finish, Level=3)))
elif colored_specular_found:
# Level 1 is no specular
tabWrite("finish {%s}\n" % (safety(material_finish, Level=1)))
else:
# Level 2 is translated specular
tabWrite("finish {%s}\n" % (safety(material_finish, Level=2)))
elif mater.pov.replacement_text == "":
mappingDif = imgMapTransforms(t_dif)
# mappingDif = ("scale <%.4g,%.4g,%.4g> translate <%.4g,%.4g,%.4g>" % \
# ( 1.0 / t_dif.scale.x,
# 1.0 / t_dif.scale.y,
# 1.0 / t_dif.scale.z,
# 0.5-(0.5/t_dif.scale.x) + t_dif.offset.x,
# 0.5-(0.5/t_dif.scale.y) + t_dif.offset.y,
# 0.5-(0.5/t_dif.scale.z) + t_dif.offset.z))
# Strange that the translation factor for scale is not the same as for
# translate.
# TODO: verify both matches with blender internal.
mappingAlpha = imgMapTransforms(t_alpha)
# mappingAlpha = "translate <%.4g,%.4g,%.4g> scale <%.4g,%.4g,%.4g>" % \
# (-t_alpha.offset.x, -t_alpha.offset.y, t_alpha.offset.z,
# 1.0 / t_alpha.scale.x, 1.0 / t_alpha.scale.y,
# 1.0 / t_alpha.scale.z)
if texturesAlpha and texturesAlpha.startswith("PAT_"):
tabWrite("pigment{pigment_pattern {function{f%s(x,y,z).transmit}}\n" %texturesAlpha)
tabWrite("pigment {pigment_pattern {uv_mapping image_map" \
"{%s \"%s\" %s}%s}\n" % \
(imageFormat(texturesAlpha), texturesAlpha, imgMap(t_alpha),
mappingAlpha))
tabWrite("pigment_map {\n")
tabWrite("[0 color rgbft<0,0,0,1,1>]\n")
if texturesAlpha and texturesAlpha.startswith("PAT_"):
tabWrite("[1 function{f%s(x,y,z).transmit}]\n" %texturesAlpha)
elif texturesDif and not texturesDif.startswith("PAT_"):
tabWrite("[1 uv_mapping image_map {%s \"%s\" %s} %s]\n" % \
(imageFormat(texturesDif), texturesDif,
(imgMap(t_dif) + imgGamma), mappingDif))
elif texturesDif and texturesDif.startswith("PAT_"):
tabWrite("[1 %s]\n" %texturesDif)
tabWrite("}\n")
tabWrite("}\n")
else:
if texturesDif and texturesDif.startswith("PAT_"):
tabWrite("pigment{%s}\n" %texturesDif)
else:
tabWrite("pigment {\n")
tabWrite("uv_mapping image_map {\n")
#tabWrite("%s \"%s\" %s}%s\n" % \
# (imageFormat(texturesDif), texturesDif,
# (imgGamma + imgMap(t_dif)),mappingDif))
tabWrite("%s \"%s\" \n" % (imageFormat(texturesDif), texturesDif))
tabWrite("%s\n" % (imgGamma + imgMap(t_dif)))
tabWrite("}\n")
tabWrite("%s\n" % mappingDif)
tabWrite("}\n")
# Level 3 is full specular
tabWrite("finish {%s}\n" % (safety(material_finish, Level=3)))
else:
# Level 2 is translated specular
tabWrite("finish {%s}\n" % (safety(material_finish, Level=2)))
## scale 1 rotate y*0
#imageMap = ("{image_map {%s \"%s\" %s }" % \
# (imageFormat(textures), textures,imgMap(t_dif)))
#file.write("\n\t\t\tuv_mapping pigment %s} %s finish {%s}" % \
# (imageMap, mapping, safety(material_finish)))
#file.write("\n\t\t\tpigment {uv_mapping image_map " \
# "{%s \"%s\" %s}%s} finish {%s}" % \
# (imageFormat(texturesDif), texturesDif,imgMap(t_dif),
# mappingDif, safety(material_finish)))
if texturesNorm != "" and mater.pov.replacement_text == "":
# POV-Ray "scale" is not a number of repetitions factor, but its inverse,
# a standard scale factor.
# Offset seems needed relatively to scale so probably center of the scale is
# not the same in blender and POV
mappingNor =imgMapTransforms(t_nor)
# mappingNor = (" translate <%.4g,%.4g,%.4g> scale <%.4g,%.4g,%.4g>" % \
# (-t_nor.offset.x, -t_nor.offset.y, t_nor.offset.z,
# 1.0 / t_nor.scale.x, 1.0 / t_nor.scale.y, 1.0 / t_nor.scale.z))
#imageMapNor = ("{bump_map {%s \"%s\" %s mapping}" % \
# (imageFormat(texturesNorm),texturesNorm,imgMap(t_nor)))
#We were not using the above maybe we should?
if texturesNorm and texturesNorm.startswith("PAT_"):
tabWrite("normal{function{f%s(x,y,z).grey} bump_size %.4g}\n" %(texturesNorm, t_nor.normal_factor * 10))
else:
tabWrite("normal {uv_mapping bump_map {%s \"%s\" %s bump_size %.4g }%s}\n" % \
(imageFormat(texturesNorm), texturesNorm, imgMap(t_nor),
t_nor.normal_factor * 10.0, mappingNor))
if texturesSpec != "" and mater.pov.replacement_text == "":
Maurice Raybaud
committed
tabWrite("}\n")
#End of slope/ior texture_map
if mater.diffuse_shader == 'MINNAERT' and mater.pov.replacement_text == "":
tabWrite("]\n")
Maurice Raybaud
committed
tabWrite("}\n")
if mater.diffuse_shader == 'FRESNEL' and mater.pov.replacement_text == "":
c = 1
while (c <= lampCount):
tabWrite("]\n")
# Close first layer of POV "texture" (Blender material)
Maurice Raybaud
committed
tabWrite("}\n")
if (mater.specular_color.s > 0.0):
colored_specular_found = True
colored_specular_found = False
# Write another layered texture using invisible diffuse and metallic trick
# to emulate colored specular highlights
special_texture_found = False
for t in mater.texture_slots:
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if(t and t.use and ((t.texture.type == 'IMAGE' and t.texture.image) or t.texture.type != 'IMAGE') and
(t.use_map_specular or t.use_map_raymir)):
# Specular mapped textures would conflict with colored specular
# because POV can't layer over or under pigment patterned textures
special_texture_found = True
if colored_specular_found and not special_texture_found:
if comments:
file.write(" // colored highlights with a stransparent metallic layer\n")
else:
tabWrite("\n")
tabWrite("texture {\n")
tabWrite("pigment {rgbft<%.3g, %.3g, %.3g, 0, 1>}\n" % \
(mater.specular_color[0], mater.specular_color[1], mater.specular_color[2]))
tabWrite("finish {%s}\n" % (safety(material_finish, Level=2))) # Level 2 is translated spec
texturesNorm = ""
for t in mater.texture_slots:
if t and t.texture.pov.tex_pattern_type != 'emulator':
proceduralFlag=True
image_filename = string_strip_hyphen(bpy.path.clean_name(t.texture.name))
if (t and t.texture.type == 'IMAGE' and
t.use and t.texture.image and
t.texture.pov.tex_pattern_type == 'emulator'):
proceduralFlag=False
image_filename = path_image(t.texture.image)
imgGamma = ""
if image_filename:
if t.use_map_normal:
texturesNorm = image_filename
# colvalue = t.normal_factor * 10.0 # UNUSED
#textNormName=t.texture.image.name + ".normal"
#was the above used? --MR
t_nor = t
if proceduralFlag:
tabWrite("normal{function" \
"{f%s(x,y,z).grey} bump_size %.4g}\n" % \
(texturesNorm,
t_nor.normal_factor * 10))
else:
tabWrite("normal {uv_mapping bump_map " \
"{%s \"%s\" %s bump_size %.4g }%s}\n" % \
(imageFormat(texturesNorm),
texturesNorm, imgMap(t_nor),
t_nor.normal_factor * 10,
mappingNor))
tabWrite("}\n") # THEN IT CAN CLOSE LAST LAYER OF TEXTURE
###################################################################
index[0] = idx
idx += 1
# Vert Colors
tabWrite("texture_list {\n")
# In case there's is no material slot, give at least one texture
#(an empty one so it uses pov default)
if len(vertCols)==0:
file.write(tabStr + "1")
file.write(tabStr + "%s" % (len(vertCols))) # vert count
# below "material" alias, changed to ob.active_material
# because variable referenced before assignment
if ob.active_material is not None:
if material.pov.replacement_text != "":
file.write("\n")
file.write(" texture{%s}\n" % material.pov.replacement_text)
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else:
# Loop through declared materials list
for cMN in LocalMaterialNames:
if material != "Default":
file.write("\n texture{MAT_%s}\n" % cMN)
#use string_strip_hyphen(materialNames[material]))
#or Something like that to clean up the above?
file.write(" texture{}\n")
tabWrite("}\n")
# Face indices
tabWrite("face_indices {\n")
tabWrite("%d" % (len(me_faces) + quadCount)) # faces count
tabStr = tab * tabLevel
for fi, f in enumerate(me_faces):
fv = faces_verts[fi]
material_index = f.material_index
indices = (0, 1, 2), (0, 2, 3)
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else:
indices = ((0, 1, 2),)
if vcol_layer:
col = vcol_layer[fi]
if len(fv) == 4:
cols = col.color1, col.color2, col.color3, col.color4
cols = col.color1, col.color2, col.color3
if not me_materials or me_materials[material_index] is None: # No materials
for i1, i2, i3 in indices:
if linebreaksinlists:
file.write(",\n")
# vert count
file.write(tabStr + "<%d,%d,%d>" % (fv[i1], fv[i2], fv[i3]))
file.write(", ")
file.write("<%d,%d,%d>" % (fv[i1], fv[i2], fv[i3])) # vert count
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else:
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material = me_materials[material_index]
for i1, i2, i3 in indices:
if me.vertex_colors: #and material.use_vertex_color_paint:
# Color per vertex - vertex color
col1 = cols[i1]
col2 = cols[i2]
col3 = cols[i3]
ci1 = vertCols[col1[0], col1[1], col1[2], material_index][0]
ci2 = vertCols[col2[0], col2[1], col2[2], material_index][0]
ci3 = vertCols[col3[0], col3[1], col3[2], material_index][0]
else:
# Color per material - flat material color
if material.subsurface_scattering.use:
diffuse_color = [i * j for i, j in
zip(material.subsurface_scattering.color[:],
material.diffuse_color[:])]
else:
diffuse_color = material.diffuse_color[:]
ci1 = ci2 = ci3 = vertCols[diffuse_color[0], diffuse_color[1], \
diffuse_color[2], f.material_index][0]
if linebreaksinlists:
file.write(",\n")
file.write(tabStr + "<%d,%d,%d>, %d,%d,%d" % \
(fv[i1], fv[i2], fv[i3], ci1, ci2, ci3)) # vert count
else:
file.write(", ")
file.write("<%d,%d,%d>, %d,%d,%d" % \
(fv[i1], fv[i2], fv[i3], ci1, ci2, ci3)) # vert count
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file.write("\n")
tabWrite("}\n")
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# normal_indices indices
tabWrite("normal_indices {\n")
tabWrite("%d" % (len(me_faces) + quadCount)) # faces count
tabStr = tab * tabLevel
for fi, fv in enumerate(faces_verts):
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if len(fv) == 4:
indices = (0, 1, 2), (0, 2, 3)
else:
indices = ((0, 1, 2),)
for i1, i2, i3 in indices:
if me_faces[fi].use_smooth:
if linebreaksinlists:
file.write(",\n")
file.write(tabStr + "<%d,%d,%d>" %\
(uniqueNormals[verts_normals[fv[i1]]][0],\
uniqueNormals[verts_normals[fv[i2]]][0],\
uniqueNormals[verts_normals[fv[i3]]][0])) # vert count
else:
file.write(", ")
file.write("<%d,%d,%d>" %\
(uniqueNormals[verts_normals[fv[i1]]][0],\
uniqueNormals[verts_normals[fv[i2]]][0],\
uniqueNormals[verts_normals[fv[i3]]][0])) # vert count
idx = uniqueNormals[faces_normals[fi]][0]
if linebreaksinlists:
file.write(",\n")
file.write(tabStr + "<%d,%d,%d>" % (idx, idx, idx)) # vertcount
else:
file.write(", ")
file.write("<%d,%d,%d>" % (idx, idx, idx)) # vert count
file.write("\n")
tabWrite("}\n")
if uv_layer:
tabWrite("uv_indices {\n")
tabWrite("%d" % (len(me_faces) + quadCount)) # faces count
tabStr = tab * tabLevel
for fi, fv in enumerate(faces_verts):
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if len(fv) == 4:
indices = (0, 1, 2), (0, 2, 3)
else:
indices = ((0, 1, 2),)
uv = uv_layer[fi]
if len(faces_verts[fi]) == 4:
uvs = uv.uv[0][:], uv.uv[1][:], uv.uv[2][:], uv.uv[3][:]
else:
uvs = uv.uv[0][:], uv.uv[1][:], uv.uv[2][:]
for i1, i2, i3 in indices:
if linebreaksinlists:
file.write(",\n")
file.write(tabStr + "<%d,%d,%d>" % (
uniqueUVs[uvs[i1]][0],\
uniqueUVs[uvs[i2]][0],\
uniqueUVs[uvs[i3]][0]))
else:
file.write(", ")
file.write("<%d,%d,%d>" % (
uniqueUVs[uvs[i1]][0],\
uniqueUVs[uvs[i2]][0],\
uniqueUVs[uvs[i3]][0]))
file.write("\n")
tabWrite("}\n")
if me.materials:
try:
material = me.materials[0] # dodgy
writeObjectMaterial(material, ob)
except IndexError:
print(me)
#Importance for radiosity sampling added here:
tabWrite("radiosity { \n")
tabWrite("importance %3g \n" % importance)
tabWrite("}\n")
tabWrite("}\n") # End of mesh block
bpy.data.meshes.remove(me)
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for data_name, inst in data_ref.items():
for ob_name, matrix_str in inst:
tabWrite("//----Blender Object Name:%s----\n" % ob_name)
tabWrite("object { \n")
tabWrite("%s\n" % data_name)
tabWrite("%s\n" % matrix_str)
tabWrite("}\n")
render = scene.render
matrix = global_matrix * camera.matrix_world
#############Maurice####################################
#These lines added to get sky gradient (visible with PNG output)
if world:
#For simple flat background:
if not world.use_sky_blend:
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# Non fully transparent background could premultiply alpha and avoid anti-aliasing
# display issue:
if render.alpha_mode == 'TRANSPARENT':
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tabWrite("background {rgbt<%.3g, %.3g, %.3g, 0.75>}\n" % \
(world.horizon_color[:]))
#Currently using no alpha with Sky option:
elif render.alpha_mode == 'SKY':
tabWrite("background {rgbt<%.3g, %.3g, %.3g, 0>}\n" % (world.horizon_color[:]))
# XXX Does not exists anymore
#else:
#tabWrite("background {rgbt<%.3g, %.3g, %.3g, 1>}\n" % (world.horizon_color[:]))
for t in world.texture_slots: # risk to write several sky_spheres but maybe ok.
if t and t.texture.type is not None:
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# XXX No enable checkbox for world textures yet (report it?)
#if t and t.texture.type == 'IMAGE' and t.use:
if t and t.texture.type == 'IMAGE':
if t.texture.image.filepath != image_filename:
t.texture.image.filepath = image_filename
if image_filename != "" and t.use_map_blend:
texturesBlend = image_filename
#colvalue = t.default_value
t_blend = t
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# Commented below was an idea to make the Background image oriented as camera
# taken here:
#http://news.pov.org/pov.newusers/thread/%3Cweb.4a5cddf4e9c9822ba2f93e20@news.pov.org%3E/
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# Replace 4/3 by the ratio of each image found by some custom or existing
# function
#mappingBlend = (" translate <%.4g,%.4g,%.4g> rotate z*degrees" \
# "(atan((camLocation - camLookAt).x/(camLocation - " \
# "camLookAt).y)) rotate x*degrees(atan((camLocation - " \
# "camLookAt).y/(camLocation - camLookAt).z)) rotate y*" \
# "degrees(atan((camLocation - camLookAt).z/(camLocation - " \
# "camLookAt).x)) scale <%.4g,%.4g,%.4g>b" % \
# (t_blend.offset.x / 10 , t_blend.offset.y / 10 ,
# t_blend.offset.z / 10, t_blend.scale.x ,
# t_blend.scale.y , t_blend.scale.z))
#using camera rotation valuesdirectly from blender seems much easier
if t_blend.texture_coords == 'ANGMAP':
mappingBlend = ""
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else:
# POV-Ray "scale" is not a number of repetitions factor, but its
# inverse, a standard scale factor.
# 0.5 Offset is needed relatively to scale because center of the
# UV scale is 0.5,0.5 in blender and 0,0 in POV
# Further Scale by 2 and translate by -1 are
# required for the sky_sphere not to repeat
mappingBlend = "scale 2 scale <%.4g,%.4g,%.4g> translate -1 " \
"translate <%.4g,%.4g,%.4g> rotate<0,0,0> " % \
((1.0 / t_blend.scale.x),
(1.0 / t_blend.scale.y),
(1.0 / t_blend.scale.z),
0.5-(0.5/t_blend.scale.x)- t_blend.offset.x,
0.5-(0.5/t_blend.scale.y)- t_blend.offset.y,
t_blend.offset.z)
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# The initial position and rotation of the pov camera is probably creating
# the rotation offset should look into it someday but at least background
# won't rotate with the camera now.
# Putting the map on a plane would not introduce the skysphere distortion and
# allow for better image scale matching but also some waay to chose depth and
# size of the plane relative to camera.
tabWrite("sky_sphere {\n")
tabWrite("pigment {\n")
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tabWrite("image_map{%s \"%s\" %s}\n" % \
(imageFormat(texturesBlend), texturesBlend, imgMapBG(t_blend)))
tabWrite("}\n")
tabWrite("%s\n" % (mappingBlend))
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# The following layered pigment opacifies to black over the texture for
# transmit below 1 or otherwise adds to itself
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tabWrite("pigment {rgb 0 transmit %s}\n" % (t.texture.intensity))
tabWrite("}\n")
#tabWrite("scale 2\n")
#tabWrite("translate -1\n")
#For only Background gradient
if worldTexCount == 0:
tabWrite("sky_sphere {\n")
tabWrite("pigment {\n")
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# maybe Should follow the advice of POV doc about replacing gradient
# for skysphere..5.5
tabWrite("gradient y\n")
tabWrite("color_map {\n")
# XXX Does not exists anymore
#if render.alpha_mode == 'STRAIGHT':
#tabWrite("[0.0 rgbt<%.3g, %.3g, %.3g, 1>]\n" % (world.horizon_color[:]))
#tabWrite("[1.0 rgbt<%.3g, %.3g, %.3g, 1>]\n" % (world.zenith_color[:]))
if render.alpha_mode == 'TRANSPARENT':
tabWrite("[0.0 rgbt<%.3g, %.3g, %.3g, 0.99>]\n" % (world.horizon_color[:]))
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# aa premult not solved with transmit 1
tabWrite("[1.0 rgbt<%.3g, %.3g, %.3g, 0.99>]\n" % (world.zenith_color[:]))
tabWrite("[0.0 rgbt<%.3g, %.3g, %.3g, 0>]\n" % (world.horizon_color[:]))
tabWrite("[1.0 rgbt<%.3g, %.3g, %.3g, 0>]\n" % (world.zenith_color[:]))
tabWrite("}\n")
tabWrite("}\n")
tabWrite("}\n")
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# Sky_sphere alpha (transmit) is not translating into image alpha the same
# way as 'background'
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#if world.light_settings.use_indirect_light:
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# scene.pov.radio_enable=1
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# Maybe change the above to a funtion copyInternalRenderer settings when
# user pushes a button, then:
#scene.pov.radio_enable = world.light_settings.use_indirect_light
# and other such translations but maybe this would not be allowed either?
###############################################################
tabWrite("fog {\n")
tabWrite("distance %.6f\n" % mist.depth)
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tabWrite("color rgbt<%.3g, %.3g, %.3g, %.3g>\n" % \
(world.horizon_color[:] + (1.0 - mist.intensity,)))
#tabWrite("fog_offset %.6f\n" % mist.start)
#tabWrite("fog_alt 5\n")
#tabWrite("turbulence 0.2\n")
#tabWrite("turb_depth 0.3\n")
tabWrite("fog_type 1\n")
tabWrite("}\n")
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if scene.pov.media_enable:
tabWrite("media {\n")
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tabWrite("scattering { 1, rgb <%.4g, %.4g, %.4g>}\n" % scene.pov.media_color[:])
tabWrite("samples %.d\n" % scene.pov.media_samples)
tabWrite("}\n")
tabWrite("global_settings {\n")
tabWrite("assumed_gamma 1.0\n")
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tabWrite("max_trace_level %d\n" % scene.pov.max_trace_level)
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if scene.pov.radio_enable:
tabWrite("radiosity {\n")
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tabWrite("adc_bailout %.4g\n" % scene.pov.radio_adc_bailout)
tabWrite("always_sample %d\n" % scene.pov.radio_always_sample)
tabWrite("brightness %.4g\n" % scene.pov.radio_brightness)
tabWrite("count %d\n" % scene.pov.radio_count)
tabWrite("error_bound %.4g\n" % scene.pov.radio_error_bound)
tabWrite("gray_threshold %.4g\n" % scene.pov.radio_gray_threshold)
tabWrite("low_error_factor %.4g\n" % scene.pov.radio_low_error_factor)
tabWrite("media %d\n" % scene.pov.radio_media)
tabWrite("minimum_reuse %.4g\n" % scene.pov.radio_minimum_reuse)
tabWrite("nearest_count %d\n" % scene.pov.radio_nearest_count)
tabWrite("normal %d\n" % scene.pov.radio_normal)
tabWrite("pretrace_start %.3g\n" % scene.pov.radio_pretrace_start)
tabWrite("pretrace_end %.3g\n" % scene.pov.radio_pretrace_end)
tabWrite("recursion_limit %d\n" % scene.pov.radio_recursion_limit)
tabWrite("}\n")
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onceSss = 1
onceAmbient = 1
oncePhotons = 1
if material.subsurface_scattering.use and onceSss:
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# In pov, the scale has reversed influence compared to blender. these number
# should correct that
tabWrite("mm_per_unit %.6f\n" % \
(material.subsurface_scattering.scale * 1000.0))
# 1000 rather than scale * (-100.0) + 15.0))
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# In POV-Ray, the scale factor for all subsurface shaders needs to be the same
# formerly sslt_samples were multiplied by 100 instead of 10
sslt_samples = (11 - material.subsurface_scattering.error_threshold) * 10
tabWrite("subsurface { samples %d, %d }\n" % (sslt_samples, sslt_samples / 10))
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onceSss = 0
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if world and onceAmbient:
tabWrite("ambient_light rgbt<%.3g, %.3g, %.3g,1>\n" % world.ambient_color[:])
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onceAmbient = 0
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if (oncePhotons and
(material.pov.refraction_type == "2" or
material.pov.photons_reflection == True)):
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tabWrite("photons {\n")
tabWrite("spacing %.6f\n" % scene.pov.photon_spacing)
tabWrite("max_trace_level %d\n" % scene.pov.photon_max_trace_level)
tabWrite("adc_bailout %.3g\n" % scene.pov.photon_adc_bailout)
tabWrite("gather %d, %d\n" % (scene.pov.photon_gather_min,
scene.pov.photon_gather_max))
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tabWrite("}\n")
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oncePhotons = 0
tabWrite("}\n")
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def exportCustomCode():
# Write CurrentAnimation Frame for use in Custom POV Code
file.write("#declare CURFRAMENUM = %d;\n" % bpy.context.scene.frame_current)
#Change path and uncomment to add an animated include file by hand:
file.write("//#include \"/home/user/directory/animation_include_file.inc\"\n")
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for txt in bpy.data.texts:
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if txt.pov.custom_code:
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# Why are the newlines needed?
file.write("\n")
file.write(txt.as_string())
file.write("\n")
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sel = renderable_objects()
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file.write("//----------------------------------------------\n" \
"//--Exported with POV-Ray exporter for Blender--\n" \
"//----------------------------------------------\n\n")
file.write("#version 3.7;\n")
file.write("\n//--Global settings--\n\n")
file.write("\n//--Custom Code--\n\n")
exportCustomCode()
if comments:
file.write("\n//--Patterns Definitions--\n\n")
LocalPatternNames = []
for texture in bpy.data.textures: #ok?
if texture.users > 0:
currentPatName = string_strip_hyphen(bpy.path.clean_name(texture.name))
#string_strip_hyphen(patternNames[texture.name]) #maybe instead of the above
LocalPatternNames.append(currentPatName)
#use above list to prevent writing texture instances several times and assign in mats?
file.write("\n #declare PAT_%s = \n" % currentPatName)
file.write(exportPattern(texture))
file.write("\n")
file.write("\n//--Background--\n\n")
file.write("\n//--Cameras--\n\n")
file.write("\n//--Lamps--\n\n")
exportLamps([L for L in sel if (L.type == 'LAMP' and L.pov.object_as != 'RAINBOW')])
if comments:
file.write("\n//--Rainbows--\n\n")
exportRainbows([L for L in sel if (L.type == 'LAMP' and L.pov.object_as == 'RAINBOW')])
if comments:
file.write("\n//--Special Curves--\n\n")
for c in sel:
if c.type == 'CURVE' and (c.pov.curveshape in {'lathe','sphere_sweep','loft','birail'}):
exportCurves(scene,c)
file.write("\n//--Material Definitions--\n\n")
# write a default pigment for objects with no material (comment out to show black)
file.write("#default{ pigment{ color rgb 0.8 }}\n")
# Convert all materials to strings we can access directly per vertex.
writeMaterial(None) # default material
writeMaterial(material)
file.write("\n")
exportMeta([m for m in sel if m.type == 'META'])
file.write("//--Mesh objects--\n")
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exportMeshes(scene, sel)
#What follow used to happen here:
#exportCamera()
#exportWorld(scene.world)
#exportGlobalSettings(scene)
# MR:..and the order was important for implementing pov 3.7 baking
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# CR: Baking should be a special case than. If "baking", than we could change the order.
#print("pov file closed %s" % file.closed)
#print("pov file closed %s" % file.closed)
def write_pov_ini(scene, filename_ini, filename_pov, filename_image):
feature_set = bpy.context.user_preferences.addons[__package__].preferences.branch_feature_set_povray
using_uberpov = (feature_set=='uberpov')
#scene = bpy.data.scenes[0]
x = int(render.resolution_x * render.resolution_percentage * 0.01)
y = int(render.resolution_y * render.resolution_percentage * 0.01)
file.write("Version=3.7\n")
file.write("Input_File_Name='%s'\n" % filename_pov)
file.write("Output_File_Name='%s'\n" % filename_image)
file.write("Width=%d\n" % x)
file.write("Height=%d\n" % y)
# Border render.
if render.use_border:
file.write("Start_Column=%4g\n" % render.border_min_x)
file.write("End_Column=%4g\n" % (render.border_max_x))
file.write("Start_Row=%4g\n" % (1.0 - render.border_max_y))
file.write("End_Row=%4g\n" % (1.0 - render.border_min_y))
file.write("Bounding_Method=2\n") # The new automatic BSP is faster in most scenes
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# Activated (turn this back off when better live exchange is done between the two programs
# (see next comment)
file.write("Display=1\n")
file.write("Pause_When_Done=0\n")
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# PNG, with POV-Ray 3.7, can show background color with alpha. In the long run using the
# POV-Ray interactive preview like bishop 3D could solve the preview for all formats.
file.write("Output_File_Type=N\n")
#file.write("Output_File_Type=T\n") # TGA, best progressive loading
file.write("Output_Alpha=1\n")
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if scene.pov.antialias_enable:
# method 2 (recursive) with higher max subdiv forced because no mipmapping in POV-Ray
# needs higher sampling.
# aa_mapping = {"5": 2, "8": 3, "11": 4, "16": 5}
if using_uberpov:
method = {"0": 1, "1": 2, "2": 3}
else:
method = {"0": 1, "1": 2, "2": 2}
file.write("Antialias=on\n")
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file.write("Antialias_Depth=%d\n" % scene.pov.antialias_depth)
file.write("Antialias_Threshold=%.3g\n" % scene.pov.antialias_threshold)
if using_uberpov and scene.pov.antialias_method == '2':
file.write("Sampling_Method=%s\n" % method[scene.pov.antialias_method])
file.write("Antialias_Confidence=%.3g\n" % scene.pov.antialias_confidence)
else:
file.write("Sampling_Method=%s\n" % method[scene.pov.antialias_method])
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file.write("Antialias_Gamma=%.3g\n" % scene.pov.antialias_gamma)
if scene.pov.jitter_enable:
file.write("Jitter=on\n")
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file.write("Jitter_Amount=%3g\n" % scene.pov.jitter_amount)
file.write("Jitter=off\n") # prevent animation flicker
file.write("Antialias=off\n")
#print("ini file closed %s" % file.closed)
#print("ini file closed %s" % file.closed)
bl_label = "POV-Ray 3.7"
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@staticmethod
def _locate_binary():
addon_prefs = bpy.context.user_preferences.addons[__package__].preferences
# Use the system preference if its set.
pov_binary = addon_prefs.filepath_povray
if pov_binary:
if os.path.exists(pov_binary):
return pov_binary
else:
print("User Preferences path to povray %r NOT FOUND, checking $PATH" % pov_binary)
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# Windows Only
# assume if there is a 64bit binary that the user has a 64bit capable OS
if sys.platform[:3] == "win":
import winreg
win_reg_key = winreg.OpenKey(winreg.HKEY_CURRENT_USER,
"Software\\POV-Ray\\v3.7\\Windows")
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win_home = winreg.QueryValueEx(win_reg_key, "Home")[0]
# First try 64bits UberPOV
pov_binary = os.path.join(win_home, "bin", "uberpov64.exe")
if os.path.exists(pov_binary):
return pov_binary
# Then try 64bits POV
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pov_binary = os.path.join(win_home, "bin", "pvengine64.exe")
if os.path.exists(pov_binary):
return pov_binary
# Then try 32bits UberPOV
pov_binary = os.path.join(win_home, "bin", "uberpov32.exe")
if os.path.exists(pov_binary):
return pov_binary
# Then try 32bits POV
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pov_binary = os.path.join(win_home, "bin", "pvengine.exe")
if os.path.exists(pov_binary):
return pov_binary
# search the path all os's
pov_binary_default = "povray"
os_path_ls = os.getenv("PATH").split(':') + [""]
for dir_name in os_path_ls:
pov_binary = os.path.join(dir_name, pov_binary_default)
if os.path.exists(pov_binary):
return pov_binary
return ""
def _export(self, scene, povPath, renderImagePath):
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if scene.pov.tempfiles_enable:
self._temp_file_in = tempfile.NamedTemporaryFile(suffix=".pov", delete=False).name
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# PNG with POV 3.7, can show the background color with alpha. In the long run using the
# POV-Ray interactive preview like bishop 3D could solve the preview for all formats.
self._temp_file_out = tempfile.NamedTemporaryFile(suffix=".png", delete=False).name
#self._temp_file_out = tempfile.NamedTemporaryFile(suffix=".tga", delete=False).name
self._temp_file_ini = tempfile.NamedTemporaryFile(suffix=".ini", delete=False).name
else:
self._temp_file_in = povPath + ".pov"
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# PNG with POV 3.7, can show the background color with alpha. In the long run using the
# POV-Ray interactive preview like bishop 3D could solve the preview for all formats.
self._temp_file_out = renderImagePath + ".png"
#self._temp_file_out = renderImagePath + ".tga"
self._temp_file_ini = povPath + ".ini"
'''
self._temp_file_in = "/test.pov"
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# PNG with POV 3.7, can show the background color with alpha. In the long run using the
# POV-Ray interactive preview like bishop 3D could solve the preview for all formats.
self._temp_file_out = "/test.png"
#self._temp_file_out = "/test.tga"
self._temp_file_ini = "/test.ini"
'''
self.update_stats("", "POV-Ray 3.7: " + txt)
# os.makedirs(user_dir, exist_ok=True) # handled with previews
os.makedirs(preview_dir, exist_ok=True)
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def _render(self, scene):
os.remove(self._temp_file_out) # so as not to load the old file
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pov_binary = PovrayRender._locate_binary()
if not pov_binary:
print("POV-Ray 3.7: could not execute povray, possibly POV-Ray isn't installed")
return False
write_pov_ini(scene, self._temp_file_ini, self._temp_file_in, self._temp_file_out)
print ("***-STARTING-***")
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extra_args = []
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if scene.pov.command_line_switches != "":
for newArg in scene.pov.command_line_switches.split(" "):
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extra_args.append(newArg)
self._is_windows = False
self._is_windows = True
if"/EXIT" not in extra_args and not scene.pov.pov_editor:
extra_args.append("/EXIT")
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else:
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# added -d option to prevent render window popup which leads to segfault on linux
extra_args.append("-d")
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# Start Rendering!
try:
self._process = subprocess.Popen([pov_binary, self._temp_file_ini] + extra_args,
stdout=subprocess.PIPE, stderr=subprocess.STDOUT)
except OSError:
# TODO, report api
print("POV-Ray 3.7: could not execute '%s'" % pov_binary)
import traceback
traceback.print_exc()
print ("***-DONE-***")
return False
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else:
print("Engine ready!...")
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print("Command line arguments passed: " + str(extra_args))
return True
# Now that we have a valid process
def _cleanup(self):
for f in (self._temp_file_in, self._temp_file_ini, self._temp_file_out):
for i in range(5):
try:
os.unlink(f)
break
except OSError:
# Wait a bit before retrying file might be still in use by Blender,
# and Windows does not know how to delete a file in use!
time.sleep(self.DELAY)
for i in unpacked_images:
for c in range(5):
try:
os.unlink(i)
break
except OSError:
# Wait a bit before retrying file might be still in use by Blender,
# and Windows does not know how to delete a file in use!
time.sleep(self.DELAY)
## if r.image_settings.file_format == 'OPENEXR':
## render.image_settings.color_mode = 'RGBA'
## r.image_settings.file_format = 'TARGA'
## r.image_settings.color_mode = 'RGBA'
blendSceneName = bpy.data.filepath.split(os.path.sep)[-1].split(".")[0]
povSceneName = ""
povPath = ""
renderImagePath = ""
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committed
# has to be called to update the frame on exporting animations
scene.frame_set(scene.frame_current)
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if not scene.pov.tempfiles_enable:
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povPath = bpy.path.abspath(scene.pov.scene_path).replace('\\', '/')
if bpy.data.is_saved:
povPath = bpy.path.abspath("//")
else:
povPath = tempfile.gettempdir()
elif povPath.endswith("/"):
if povPath == "/":
povPath = bpy.path.abspath("//")
else:
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povPath = bpy.path.abspath(scene.pov.scene_path)
try:
os.makedirs(povPath)
except:
import traceback
traceback.print_exc()
print("POV-Ray 3.7: Cannot create scenes directory: %r" % povPath)
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self.update_stats("", "POV-Ray 3.7: Cannot create scenes directory %r" % \
povPath)
time.sleep(2.0)
return
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renderImagePath = bpy.path.abspath(scene.pov.renderimage_path).replace('\\','/')
if bpy.data.is_saved:
renderImagePath = bpy.path.abspath("//")
else:
renderImagePath = tempfile.gettempdir()
#print("Path: " + renderImagePath)
elif path.endswith("/"):
if renderImagePath == "/":
renderImagePath = bpy.path.abspath("//")
else:
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renderImagePath = bpy.path.abspath(scene.pov.renderimage_path)
if not os.path.exists(path):
print("POV-Ray 3.7: Cannot find render image directory")
self.update_stats("", "POV-Ray 3.7: Cannot find render image directory")
time.sleep(2.0)
return
'''
# check name
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if scene.pov.scene_name == "":
if blendSceneName != "":
povSceneName = blendSceneName
else:
povSceneName = "untitled"
else:
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povSceneName = scene.pov.scene_name
if os.path.isfile(povSceneName):
povSceneName = os.path.basename(povSceneName)
povSceneName = povSceneName.split('/')[-1].split('\\')[-1]
if not povSceneName:
print("POV-Ray 3.7: Invalid scene name")
self.update_stats("", "POV-Ray 3.7: Invalid scene name")
time.sleep(2.0)
return
povSceneName = os.path.splitext(povSceneName)[0]
print("Scene name: " + povSceneName)
print("Export path: " + povPath)
povPath = os.path.join(povPath, povSceneName)
povPath = os.path.realpath(povPath)
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# for now this has to be the same like the pov output. Bug in POV-Ray RC3.
# renderImagePath = renderImagePath + "\\" + povSceneName
renderImagePath = povPath # Bugfix for POV-Ray RC3 bug
# renderImagePath = os.path.realpath(renderImagePath) # Bugfix for POV-Ray RC3 bug
#print("Export path: %s" % povPath)
#print("Render Image path: %s" % renderImagePath)
# start export
self.update_stats("", "POV-Ray 3.7: Exporting data from Blender")
self._export(scene, povPath, renderImagePath)
self.update_stats("", "POV-Ray 3.7: Parsing File")
if not self._render(scene):
self.update_stats("", "POV-Ray 3.7: Not found")
return
r = scene.render
# compute resolution
x = int(r.resolution_x * r.resolution_percentage * 0.01)
y = int(r.resolution_y * r.resolution_percentage * 0.01)
# This makes some tests on the render, returning True if all goes good, and False if
# it was finished one way or the other.
# It also pauses the script (time.sleep())
def _test_wait():
time.sleep(self.DELAY)
# User interrupts the rendering
print("***POV INTERRUPTED***")
return False
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poll_result = self._process.poll()
# POV process is finisehd, one way or the other
if poll_result < 0:
print("***POV PROCESS FAILED : %s ***" % poll_result)
self.update_stats("", "POV-Ray 3.7: Failed")
return False
return True
# Wait for the file to be created
# XXX This is no more valid, as 3.7 always creates output file once render is finished!
parsing = re.compile(br"= \[Parsing\.\.\.\] =")
rendering = re.compile(br"= \[Rendering\.\.\.\] =")
percent = re.compile(r"\(([0-9]{1,3})%\)")
# print("***POV WAITING FOR FILE***")
data = b""
last_line = ""
while _test_wait():
# POV in Windows does not output its stdout/stderr, it displays them in its GUI
if self._is_windows:
self.update_stats("", "POV-Ray 3.7: Rendering File")
else:
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t_data = self._process.stdout.read(10000)
data += t_data
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# XXX This is working for UNIX, not sure whether it might need adjustments for
# other OSs
# First replace is for windows
t_data = str(t_data).replace('\\r\\n', '\\n').replace('\\r', '\r')
lines = t_data.split('\\n')
last_line += lines[0]
lines[0] = last_line
print('\n'.join(lines), end="")
last_line = lines[-1]
if rendering.search(data):
_pov_rendering = True
match = percent.findall(str(data))
if match:
self.update_stats("", "POV-Ray 3.7: Rendering File (%s%%)" % match[-1])
else:
self.update_stats("", "POV-Ray 3.7: Rendering File")
elif parsing.search(data):
self.update_stats("", "POV-Ray 3.7: Parsing File")
if os.path.exists(self._temp_file_out):
# print("***POV FILE OK***")
#self.update_stats("", "POV-Ray 3.7: Rendering")
# prev_size = -1
xmin = int(r.border_min_x * x)
ymin = int(r.border_min_y * y)
xmax = int(r.border_max_x * x)
ymax = int(r.border_max_y * y)
# print("***POV UPDATING IMAGE***")
result = self.begin_result(0, 0, x, y)
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# XXX, tests for border render.
#result = self.begin_result(xmin, ymin, xmax - xmin, ymax - ymin)
#result = self.begin_result(0, 0, xmax - xmin, ymax - ymin)
lay = result.layers[0]
# This assumes the file has been fully written We wait a bit, just in case!
time.sleep(self.DELAY)
try:
lay.load_from_file(self._temp_file_out)
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# XXX, tests for border render.
#lay.load_from_file(self._temp_file_out, xmin, ymin)
except RuntimeError:
print("***POV ERROR WHILE READING OUTPUT FILE***")
# Not needed right now, might only be useful if we find a way to use temp raw output of
# pov 3.7 (in which case it might go under _test_wait()).
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'''
def update_image():
# possible the image wont load early on.
try:
lay.load_from_file(self._temp_file_out)
# XXX, tests for border render.
#lay.load_from_file(self._temp_file_out, xmin, ymin)
#lay.load_from_file(self._temp_file_out, xmin, ymin)
except RuntimeError:
pass
# Update while POV-Ray renders
while True:
# print("***POV RENDER LOOP***")
# test if POV-Ray exists
if self._process.poll() is not None:
print("***POV PROCESS FINISHED***")
update_image()
break
# user exit
if self.test_break():
try:
self._process.terminate()
print("***POV PROCESS INTERRUPTED***")
except OSError:
pass
break
# Would be nice to redirect the output
# stdout_value, stderr_value = self._process.communicate() # locks
# check if the file updated
new_size = os.path.getsize(self._temp_file_out)
if new_size != prev_size:
update_image()
prev_size = new_size
time.sleep(self.DELAY)
'''
self.end_result(result)
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committed
else:
print("***POV FILE NOT FOUND***")
print("***POV FINISHED***")
self.update_stats("", "")
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committed
if scene.pov.tempfiles_enable or scene.pov.deletefiles_enable:
##################################################################################
#################################Operators########################################
##################################################################################
class RenderPovTexturePreview(Operator):
bl_idname = "tex.preview_update"
bl_label = "Update preview"
def execute(self, context):
tex=bpy.context.object.active_material.active_texture #context.texture
texPrevName=string_strip_hyphen(bpy.path.clean_name(tex.name))+"_prev"
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## Make sure Preview directory exists and is empty
if not os.path.isdir(preview_dir):
os.mkdir(preview_dir)
iniPrevFile=os.path.join(preview_dir, "Preview.ini")
inputPrevFile=os.path.join(preview_dir, "Preview.pov")
outputPrevFile=os.path.join(preview_dir, texPrevName)
##################### ini ##########################################
fileIni=open("%s"%iniPrevFile,"w")
fileIni.write('Version=3.7\n')
fileIni.write('Input_File_Name="%s"\n'%inputPrevFile)
fileIni.write('Output_File_Name="%s.png"\n'%outputPrevFile)
fileIni.write('Library_Path="%s"\n' % preview_dir)
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fileIni.write('Width=256\n')
fileIni.write('Height=256\n')
fileIni.write('Pause_When_Done=0\n')
fileIni.write('Output_File_Type=N\n')
fileIni.write('Output_Alpha=1\n')
fileIni.write('Antialias=on\n')
fileIni.write('Sampling_Method=2\n')
fileIni.write('Antialias_Depth=3\n')
fileIni.write('-d\n')
fileIni.close()
##################### pov ##########################################
filePov=open("%s"%inputPrevFile,"w")
PATname = "PAT_"+string_strip_hyphen(bpy.path.clean_name(tex.name))
filePov.write("#declare %s = \n"%PATname)
filePov.write(exportPattern(tex))
filePov.write("#declare Plane =\n")
filePov.write("mesh {\n")
filePov.write(" triangle {<-2.021,-1.744,2.021>,<-2.021,-1.744,-2.021>,<2.021,-1.744,2.021>}\n")
filePov.write(" triangle {<-2.021,-1.744,-2.021>,<2.021,-1.744,-2.021>,<2.021,-1.744,2.021>}\n")
filePov.write(" texture{%s}\n"%PATname)
filePov.write("}\n")
filePov.write("object {Plane}\n")
filePov.write("light_source {\n")
filePov.write(" <0,4.38,-1.92e-07>\n")
filePov.write(" color rgb<4, 4, 4>\n")
filePov.write(" parallel\n")
filePov.write(" point_at <0, 0, -1>\n")
filePov.write("}\n")
filePov.write("camera {\n")
filePov.write(" location <0, 0, 0>\n")
filePov.write(" look_at <0, 0, -1>\n")
filePov.write(" right <-1.0, 0, 0>\n")
filePov.write(" up <0, 1, 0>\n")
filePov.write(" angle 96.805211\n")
filePov.write(" rotate <-90.000003, -0.000000, 0.000000>\n")
filePov.write(" translate <0.000000, 0.000000, 0.000000>\n")
filePov.write("}\n")
filePov.close()
##################### end write ##########################################
pov_binary = PovrayRender._locate_binary()
if sys.platform[:3] == "win":
p1=subprocess.Popen(["%s"%pov_binary,"/EXIT","%s"%iniPrevFile],
stdout=subprocess.PIPE,stderr=subprocess.STDOUT)
p1=subprocess.Popen(["%s"%pov_binary,"-d","%s"%iniPrevFile],
stdout=subprocess.PIPE,stderr=subprocess.STDOUT)
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p1.wait()
tex.use_nodes = True
tree = tex.node_tree
links = tree.links
for n in tree.nodes:
tree.nodes.remove(n)
im = tree.nodes.new("TextureNodeImage")
pathPrev="%s.png"%outputPrevFile
im.image = bpy.data.images.load(pathPrev)
name=pathPrev
name=name.split("/")
name=name[len(name)-1]
im.name = name
im.location = 200,200
previewer = tree.nodes.new('TextureNodeOutput')
previewer.label = "Preview"
previewer.location = 400,400
links.new(im.outputs[0],previewer.inputs[0])
#tex.type="IMAGE" # makes clip extend possible
#tex.extension="CLIP"
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return {'FINISHED'}
#################################POV-Ray specific###############################
# XXX This should really be in a separate file imho (primitives.py eg?)
from bpy.props import (
StringProperty,
BoolProperty,
IntProperty,
FloatProperty,
FloatVectorProperty,
EnumProperty,
PointerProperty,
CollectionProperty,
)
def pov_define_mesh(mesh, verts, edges, faces, name, hide_geometry=True):
if mesh is None:
mesh = bpy.data.meshes.new(name)
mesh.from_pydata(verts, edges, faces)
mesh.update()
mesh.validate(False) # Set it to True to see debug messages (helps ensure you generate valid geometry).
if hide_geometry:
mesh.vertices.foreach_set("hide", [True] * len(mesh.vertices))
mesh.edges.foreach_set("hide", [True] * len(mesh.edges))
mesh.polygons.foreach_set("hide", [True] * len(mesh.polygons))
return mesh
class POVRAY_OT_lathe_add(bpy.types.Operator):
bl_idname = "pov.addlathe"
bl_label = "Lathe"
bl_options = {'REGISTER','UNDO'}
bl_description = "adds lathe"
def execute(self, context):
layers=[False]*20
layers[0]=True
bpy.ops.curve.primitive_bezier_curve_add(location=(0, 0, 0),
rotation=(0, 0, 0), layers=layers)
ob=context.scene.objects.active
ob.name = ob.data.name = "PovLathe"
ob.pov.object_as='LATHE'
bpy.ops.object.mode_set(mode='EDIT')
self.report({'WARNING'}, "This native POV-Ray primitive "
"won't have any vertex to show in edit mode")
bpy.ops.transform.rotate(value=-pi/2, axis=(0, 0, 1))
bpy.ops.object.mode_set(mode='OBJECT')
ob.pov.curveshape = "lathe"
bpy.ops.object.modifier_add(type='SCREW')
bpy.context.object.modifiers["Screw"].axis = 'Y'
bpy.context.object.modifiers["Screw"].show_render = False
return {'FINISHED'}
def pov_superellipsoid_define(context, op, ob):
if op:
mesh = None
u = op.se_u
v = op.se_v
n1 = op.se_n1
n2 = op.se_n2
edit = op.se_edit
se_param1 = n2 # op.se_param1
se_param2 = n1 # op.se_param2
else:
assert(ob)
mesh = ob.data
u = ob.pov.se_u
v = ob.pov.se_v
n1 = ob.pov.se_n1
n2 = ob.pov.se_n2
edit = ob.pov.se_edit
se_param1 = ob.pov.se_param1
se_param2 = ob.pov.se_param2
verts = []
r=1
stepSegment=360/v*pi/180
stepRing=pi/u
angSegment=0
angRing=-pi/2
step=0
for ring in range(0,u-1):
angRing += stepRing
for segment in range(0,v):
step += 1
angSegment += stepSegment
x = r*(abs(cos(angRing))**n1)*(abs(cos(angSegment))**n2)
if (cos(angRing) < 0 and cos(angSegment) > 0) or \
(cos(angRing) > 0 and cos(angSegment) < 0):
x = -x
y = r*(abs(cos(angRing))**n1)*(abs(sin(angSegment))**n2)
if (cos(angRing) < 0 and sin(angSegment) > 0) or \
(cos(angRing) > 0 and sin(angSegment) < 0):
y = -y
z = r*(abs(sin(angRing))**n1)
if sin(angRing) < 0:
z = -z
x = round(x,4)
y = round(y,4)
z = round(z,4)
verts.append((x,y,z))
if edit == 'TRIANGLES':
verts.append((0,0,1))
verts.append((0,0,-1))
faces = []
for i in range(0,u-2):
m=i*v
for p in range(0,v):
if p < v-1:
face=(m+p,1+m+p,v+1+m+p,v+m+p)
if p == v-1:
face=(m+p,m,v+m,v+m+p)
faces.append(face)
if edit == 'TRIANGLES':
indexUp=len(verts)-2
indexDown=len(verts)-1
indexStartDown=len(verts)-2-v
for i in range(0,v):
if i < v-1:
face=(indexDown,i,i+1)
faces.append(face)
if i == v-1:
face=(indexDown,i,0)
faces.append(face)
for i in range(0,v):
if i < v-1:
face=(indexUp,i+indexStartDown,i+indexStartDown+1)
faces.append(face)
if i == v-1:
face=(indexUp,i+indexStartDown,indexStartDown)
faces.append(face)
if edit == 'NGONS':
face=[]
for i in range(0,v):
face.append(i)
faces.append(face)
face=[]
indexUp=len(verts)-1
for i in range(0,v):
face.append(indexUp-i)
faces.append(face)
mesh = pov_define_mesh(mesh, verts, [], faces, "SuperEllipsoid")
if not ob:
ob_base = object_utils.object_data_add(context, mesh, operator=None)
ob = ob_base.object
#engine = context.scene.render.engine what for?
ob = context.object
ob.name = ob.data.name = "PovSuperellipsoid"
ob.pov.object_as = 'SUPERELLIPSOID'
ob.pov.se_param1 = n2
ob.pov.se_param2 = n1
ob.pov.se_u = u
ob.pov.se_v = v
ob.pov.se_n1 = n1
ob.pov.se_n2 = n2
ob.pov.se_edit = edit
bpy.ops.object.mode_set(mode="EDIT")
bpy.ops.mesh.hide(unselected=False)
bpy.ops.object.mode_set(mode="OBJECT")
class POVRAY_OT_superellipsoid_add(bpy.types.Operator):
bl_idname = "pov.addsuperellipsoid"
bl_label = "Add SuperEllipsoid"
bl_description = "Create a SuperEllipsoid"
bl_options = {'REGISTER', 'UNDO'}
COMPAT_ENGINES = {'POVRAY_RENDER'}
# XXX Keep it in sync with __init__'s RenderPovSettingsConePrimitive
# If someone knows how to define operators' props from a func, I'd be delighted to learn it!
se_param1 = FloatProperty(
name="Parameter 1",
description="",
min=0.00, max=10.0, default=0.04)
se_param2 = FloatProperty(
name="Parameter 2",
description="",
min=0.00, max=10.0, default=0.04)
se_u = IntProperty(name = "U-segments",
description = "radial segmentation",
default = 20, min = 4, max = 265)
se_v = IntProperty(name = "V-segments",
description = "lateral segmentation",
default = 20, min = 4, max = 265)
se_n1 = FloatProperty(name = "Ring manipulator",
description = "Manipulates the shape of the Ring",
default = 1.0, min = 0.01, max = 100.0)
se_n2 = FloatProperty(name = "Cross manipulator",
description = "Manipulates the shape of the cross-section",
default = 1.0, min = 0.01, max = 100.0)
se_edit = EnumProperty(items=[("NOTHING", "Nothing", ""),
("NGONS", "N-Gons", ""),
("TRIANGLES", "Triangles", "")],
name="Fill up and down",
description="",
default='TRIANGLES')
@classmethod
def poll(cls, context):
engine = context.scene.render.engine
return (engine in cls.COMPAT_ENGINES)
def execute(self,context):
pov_superellipsoid_define(context, self, None)
self.report({'WARNING'}, "This native POV-Ray primitive won't have any vertex to show in edit mode")
return {'FINISHED'}
class POVRAY_OT_superellipsoid_update(bpy.types.Operator):
bl_idname = "pov.superellipsoid_update"
bl_label = "Update"
bl_description = "Update Superellipsoid"
bl_options = {'REGISTER', 'UNDO'}
COMPAT_ENGINES = {'POVRAY_RENDER'}
@classmethod
def poll(cls, context):
engine = context.scene.render.engine
ob = context.object
return (ob and ob.data and ob.type == 'MESH' and engine in cls.COMPAT_ENGINES)
def execute(self, context):
bpy.ops.object.mode_set(mode="EDIT")
bpy.ops.mesh.reveal()
bpy.ops.mesh.select_all(action='SELECT')
bpy.ops.mesh.delete(type='VERT')
bpy.ops.object.mode_set(mode="OBJECT")
pov_superellipsoid_define(context, None, context.object)
return {'FINISHED'}
def createFaces(vertIdx1, vertIdx2, closed=False, flipped=False):
faces = []
if not vertIdx1 or not vertIdx2:
return None
if len(vertIdx1) < 2 and len(vertIdx2) < 2:
return None
fan = False
if (len(vertIdx1) != len(vertIdx2)):
if (len(vertIdx1) == 1 and len(vertIdx2) > 1):
fan = True
else:
return None
total = len(vertIdx2)
if closed:
if flipped:
face = [
vertIdx1[0],
vertIdx2[0],
vertIdx2[total - 1]]
if not fan:
face.append(vertIdx1[total - 1])
faces.append(face)
else:
face = [vertIdx2[0], vertIdx1[0]]
if not fan:
face.append(vertIdx1[total - 1])
face.append(vertIdx2[total - 1])
faces.append(face)
for num in range(total - 1):
if flipped:
if fan:
face = [vertIdx2[num], vertIdx1[0], vertIdx2[num + 1]]
else:
face = [vertIdx2[num], vertIdx1[num],
vertIdx1[num + 1], vertIdx2[num + 1]]
faces.append(face)
else:
if fan:
face = [vertIdx1[0], vertIdx2[num], vertIdx2[num + 1]]
else:
face = [vertIdx1[num], vertIdx2[num],
vertIdx2[num + 1], vertIdx1[num + 1]]
faces.append(face)
return faces
def power(a,b):
if a < 0:
return -((-a)**b)
return a**b
def supertoroid(R,r,u,v,n1,n2):
a = 2*pi/u
b = 2*pi/v
verts = []
faces = []
for i in range(u):
s = power(sin(i*a),n1)
c = power(cos(i*a),n1)
for j in range(v):
c2 = R+r*power(cos(j*b),n2)
s2 = r*power(sin(j*b),n2)
verts.append((c*c2,s*c2,s2))# type as a (mathutils.Vector(c*c2,s*c2,s2))?
if i > 0:
f = createFaces(range((i-1)*v,i*v),range(i*v,(i+1)*v),closed = True)
faces.extend(f)
f = createFaces(range((u-1)*v,u*v),range(v),closed=True)
faces.extend(f)
return verts, faces
def pov_supertorus_define(context, op, ob):
if op:
mesh = None
st_R = op.st_R
st_r = op.st_r
st_u = op.st_u
st_v = op.st_v
st_n1 = op.st_n1
st_n2 = op.st_n2
st_ie = op.st_ie
st_edit = op.st_edit
else:
assert(ob)
mesh = ob.data
st_R = ob.pov.st_major_radius
st_r = ob.pov.st_minor_radius
st_u = ob.pov.st_u
st_v = ob.pov.st_v
st_n1 = ob.pov.st_ring
st_n2 = ob.pov.st_cross
st_ie = ob.pov.st_ie
st_edit = ob.pov.st_edit
if st_ie:
rad1 = (st_R+st_r)/2
rad2 = (st_R-st_r)/2
if rad2 > rad1:
[rad1,rad2] = [rad2,rad1]
else:
rad1 = st_R
rad2 = st_r
if rad2 > rad1:
rad1 = rad2
verts,faces = supertoroid(rad1,
rad2,
st_u,
st_v,
st_n1,
st_n2)
mesh = pov_define_mesh(mesh, verts, [], faces, "PovSuperTorus", True)
if not ob:
ob_base = object_utils.object_data_add(context, mesh, operator=None)
ob = ob_base.object
ob.pov.object_as = 'SUPERTORUS'
ob.pov.st_major_radius = st_R
ob.pov.st_minor_radius = st_r
ob.pov.st_u = st_u
ob.pov.st_v = st_v
ob.pov.st_ring = st_n1
ob.pov.st_cross = st_n2
ob.pov.st_ie = st_ie
ob.pov.st_edit = st_edit
class POVRAY_OT_supertorus_add(bpy.types.Operator):
bl_idname = "pov.addsupertorus"
bl_label = "Add Supertorus"
bl_description = "Create a SuperTorus"
bl_options = {'REGISTER', 'UNDO'}
COMPAT_ENGINES = {'POVRAY_RENDER'}
st_R = FloatProperty(name = "big radius",
description = "The radius inside the tube",
default = 1.0, min = 0.01, max = 100.0)
st_r = FloatProperty(name = "small radius",
description = "The radius of the tube",
default = 0.3, min = 0.01, max = 100.0)
st_u = IntProperty(name = "U-segments",
description = "radial segmentation",
default = 16, min = 3, max = 265)
st_v = IntProperty(name = "V-segments",
description = "lateral segmentation",
default = 8, min = 3, max = 265)
st_n1 = FloatProperty(name = "Ring manipulator",
description = "Manipulates the shape of the Ring",
default = 1.0, min = 0.01, max = 100.0)
st_n2 = FloatProperty(name = "Cross manipulator",
description = "Manipulates the shape of the cross-section",
default = 1.0, min = 0.01, max = 100.0)
st_ie = BoolProperty(name = "Use Int.+Ext. radii",
description = "Use internal and external radii",
default = False)
st_edit = BoolProperty(name="",
description="",
default=False,
options={'HIDDEN'})
@classmethod
def poll(cls, context):
engine = context.scene.render.engine
return (engine in cls.COMPAT_ENGINES)
def execute(self, context):
pov_supertorus_define(context, self, None)
self.report({'WARNING'}, "This native POV-Ray primitive won't have any vertex to show in edit mode")
return {'FINISHED'}
class POVRAY_OT_supertorus_update(bpy.types.Operator):
bl_idname = "pov.supertorus_update"
bl_label = "Update"
bl_description = "Update SuperTorus"
bl_options = {'REGISTER', 'UNDO'}
COMPAT_ENGINES = {'POVRAY_RENDER'}
@classmethod
def poll(cls, context):
engine = context.scene.render.engine
ob = context.object
return (ob and ob.data and ob.type == 'MESH' and engine in cls.COMPAT_ENGINES)
def execute(self, context):
bpy.ops.object.mode_set(mode="EDIT")
bpy.ops.mesh.reveal()
bpy.ops.mesh.select_all(action='SELECT')
bpy.ops.mesh.delete(type='VERT')
bpy.ops.object.mode_set(mode="OBJECT")
pov_supertorus_define(context, None, context.object)
return {'FINISHED'}
#########################################################################################################
class POVRAY_OT_loft_add(bpy.types.Operator):
bl_idname = "pov.addloft"
bl_label = "Add Loft Data"
bl_description = "Create a Curve data for Meshmaker"
bl_options = {'REGISTER', 'UNDO'}
COMPAT_ENGINES = {'POVRAY_RENDER'}
loft_n = IntProperty(name = "Segments",
description = "Vertical segments",
default = 16, min = 3, max = 720)
loft_rings_bottom = IntProperty(name = "Bottom",
description = "Bottom rings",
default = 5, min = 2, max = 100)
loft_rings_side = IntProperty(name = "Side",
description = "Side rings",
default = 10, min = 2, max = 100)
loft_thick = FloatProperty(name = "Thickness",
description = "Manipulates the shape of the Ring",
default = 0.3, min = 0.01, max = 1.0)
loft_r = FloatProperty(name = "Radius",
description = "Radius",
default = 1, min = 0.01, max = 10)
loft_height = FloatProperty(name = "Height",
description = "Manipulates the shape of the Ring",
default = 2, min = 0.01, max = 10.0)
def execute(self,context):
props = self.properties
loftData = bpy.data.curves.new('Loft', type='CURVE')
loftData.dimensions = '3D'
loftData.resolution_u = 2
loftData.show_normal_face = False
n=props.loft_n
thick = props.loft_thick
side = props.loft_rings_side
bottom = props.loft_rings_bottom
h = props.loft_height
r = props.loft_r
distB = r/bottom
r0 = 0.00001
z = -h/2
print("New")
for i in range(bottom+1):
coords = []
angle = 0
for p in range(n):
x = r0*cos(angle)
y = r0*sin(angle)
coords.append((x,y,z))
angle+=pi*2/n
r0+=distB
nurbs = loftData.splines.new('NURBS')
nurbs.points.add(len(coords)-1)
for i, coord in enumerate(coords):
x,y,z = coord
nurbs.points[i].co = (x, y, z, 1)
nurbs.use_cyclic_u = True
for i in range(side):
z+=h/side
coords = []
angle = 0
for p in range(n):
x = r*cos(angle)
y = r*sin(angle)
coords.append((x,y,z))
angle+=pi*2/n
nurbs = loftData.splines.new('NURBS')
nurbs.points.add(len(coords)-1)
for i, coord in enumerate(coords):
x,y,z = coord
nurbs.points[i].co = (x, y, z, 1)
nurbs.use_cyclic_u = True
r-=thick
for i in range(side):
coords = []
angle = 0
for p in range(n):
x = r*cos(angle)
y = r*sin(angle)
coords.append((x,y,z))
angle+=pi*2/n
nurbs = loftData.splines.new('NURBS')
nurbs.points.add(len(coords)-1)
for i, coord in enumerate(coords):
x,y,z = coord
nurbs.points[i].co = (x, y, z, 1)
nurbs.use_cyclic_u = True
z-=h/side
z = (-h/2) + thick
distB = (r-0.00001)/bottom
for i in range(bottom+1):
coords = []
angle = 0
for p in range(n):
x = r*cos(angle)
y = r*sin(angle)
coords.append((x,y,z))
angle+=pi*2/n
r-=distB
nurbs = loftData.splines.new('NURBS')
nurbs.points.add(len(coords)-1)
for i, coord in enumerate(coords):
x,y,z = coord
nurbs.points[i].co = (x, y, z, 1)
nurbs.use_cyclic_u = True
ob = bpy.data.objects.new('Loft_shape', loftData)
scn = bpy.context.scene
scn.objects.link(ob)
scn.objects.active = ob
ob.select = True
ob.pov.curveshape = "loft"
return {'FINISHED'}
class POVRAY_OT_plane_add(bpy.types.Operator):
bl_idname = "pov.addplane"
bl_label = "Plane"
bl_description = "Add Plane"
bl_options = {'REGISTER', 'UNDO'}
def execute(self,context):
layers = 20*[False]
layers[0] = True
bpy.ops.mesh.primitive_plane_add(radius = 100000,layers=layers)
ob = context.object
ob.name = ob.data.name = 'PovInfinitePlane'
bpy.ops.object.mode_set(mode="EDIT")
self.report({'WARNING'}, "This native POV-Ray primitive "
"won't have any vertex to show in edit mode")
bpy.ops.mesh.hide(unselected=False)
bpy.ops.object.mode_set(mode="OBJECT")
bpy.ops.object.shade_smooth()
ob.pov.object_as = "PLANE"
return {'FINISHED'}
class POVRAY_OT_box_add(bpy.types.Operator):
bl_idname = "pov.addbox"
bl_label = "Box"
bl_description = "Add Box"
bl_options = {'REGISTER', 'UNDO'}
def execute(self,context):
layers = 20*[False]
layers[0] = True
bpy.ops.mesh.primitive_cube_add(layers=layers)
ob = context.object
ob.name = ob.data.name = 'PovBox'
bpy.ops.object.mode_set(mode="EDIT")
self.report({'WARNING'}, "This native POV-Ray primitive "
"won't have any vertex to show in edit mode")
bpy.ops.mesh.hide(unselected=False)
bpy.ops.object.mode_set(mode="OBJECT")
ob.pov.object_as = "BOX"
return {'FINISHED'}
class POVRAY_OT_cylinder_add(bpy.types.Operator):
bl_idname = "pov.addcylinder"
bl_label = "Cylinder"
bl_description = "Add Cylinder"
bl_options = {'REGISTER', 'UNDO'}
def execute(self,context):
layers = 20*[False]
layers[0] = True
bpy.ops.mesh.primitive_cylinder_add(layers = layers)
ob = context.object
ob.name = ob.data.name = 'PovCylinder'
bpy.ops.object.mode_set(mode="EDIT")
self.report({'WARNING'}, "This native POV-Ray primitive "
"won't have any vertex to show in edit mode")
bpy.ops.mesh.hide(unselected=False)
bpy.ops.object.mode_set(mode="OBJECT")
ob.pov.object_as = "CYLINDER"
return {'FINISHED'}
################################SPHERE##########################################
def pov_sphere_define(context, op, ob, loc):
if op:
R = op.R
else:
assert(ob)
R = ob.pov.sphere_radius
#keep object rotation and location for the add object operator
obrot = ob.rotation_euler
#obloc = ob.location
obscale = ob.scale
bpy.ops.object.mode_set(mode="EDIT")
bpy.ops.mesh.reveal()
bpy.ops.mesh.select_all(action='SELECT')
bpy.ops.mesh.delete(type='VERT')
bpy.ops.mesh.primitive_ico_sphere_add(subdivisions=4, size=ob.pov.sphere_radius, location=loc, rotation=obrot)
#bpy.ops.transform.rotate(axis=obrot,constraint_orientation='GLOBAL')
bpy.ops.transform.resize(value=obscale)
#bpy.ops.transform.rotate(axis=obrot, proportional_size=1)
bpy.ops.mesh.hide(unselected=False)
bpy.ops.object.mode_set(mode="OBJECT")
#bpy.ops.transform.rotate(axis=obrot,constraint_orientation='GLOBAL')
if not ob:
bpy.ops.mesh.primitive_ico_sphere_add(subdivisions=4, size=R, location=loc)
ob = context.object
ob.name = ob.data.name = "PovSphere"
ob.pov.object_as = "SPHERE"
ob.pov.sphere_radius = R
bpy.ops.object.mode_set(mode="EDIT")
bpy.ops.mesh.hide(unselected=False)
bpy.ops.object.mode_set(mode="OBJECT")
class POVRAY_OT_sphere_add(bpy.types.Operator):
bl_idname = "pov.addsphere"
bl_label = "Sphere"
bl_description = "Add Sphere Shape"
bl_options = {'REGISTER', 'UNDO'}
# XXX Keep it in sync with __init__'s torus Primitive
R = FloatProperty(name="Sphere radius",min=0.00, max=10.0, default=0.5)
imported_loc = FloatVectorProperty(
name="Imported Pov location",
precision=6,
default=(0.0, 0.0, 0.0))
def execute(self,context):
props = self.properties
R = props.R
ob = context.object
if ob:
if ob.pov.imported_loc:
LOC = ob.pov.imported_loc
else:
LOC = bpy.context.scene.cursor_location
pov_sphere_define(context, self, None, LOC)
self.report({'WARNING'}, "This native POV-Ray primitive "
"won't have any vertex to show in edit mode")
return {'FINISHED'}
# def execute(self,context):
# layers = 20*[False]
# layers[0] = True
# bpy.ops.mesh.primitive_ico_sphere_add(subdivisions=4, radius=ob.pov.sphere_radius, layers=layers)
# ob = context.object
# bpy.ops.object.mode_set(mode="EDIT")
# self.report({'WARNING'}, "This native POV-Ray primitive "
# "won't have any vertex to show in edit mode")
# bpy.ops.mesh.hide(unselected=False)
# bpy.ops.object.mode_set(mode="OBJECT")
# bpy.ops.object.shade_smooth()
# ob.pov.object_as = "SPHERE"
# ob.name = ob.data.name = 'PovSphere'
# return {'FINISHED'}
class POVRAY_OT_sphere_update(bpy.types.Operator):
bl_idname = "pov.sphere_update"
bl_label = "Update"
bl_description = "Update Sphere"
bl_options = {'REGISTER', 'UNDO'}
COMPAT_ENGINES = {'POVRAY_RENDER'}
@classmethod
def poll(cls, context):
engine = context.scene.render.engine
ob = context.object
return (ob and ob.data and ob.type == 'MESH' and engine in cls.COMPAT_ENGINES)
def execute(self, context):
pov_sphere_define(context, None, context.object,context.object.location)
return {'FINISHED'}
####################################CONE#######################################
def pov_cone_define(context, op, ob):
verts = []
faces = []
if op:
mesh = None
base = op.base
cap = op.cap
seg = op.seg
height = op.height
else:
assert(ob)
mesh = ob.data
base = ob.pov.cone_base_radius
cap = ob.pov.cone_cap_radius
seg = ob.pov.cone_segments
height = ob.pov.cone_height
zc = height / 2
zb = -zc
angle = 2 * pi / seg
t = 0
for i in range(seg):
xb = base * cos(t)
yb = base * sin(t)
xc = cap * cos(t)
yc = cap * sin(t)
verts.append((xb, yb, zb))
verts.append((xc, yc, zc))
t += angle
for i in range(seg):
f = i * 2
if i == seg - 1:
faces.append([0, 1, f + 1, f])
else:
faces.append([f + 2, f + 3, f + 1, f])
if base != 0:
base_face = []
for i in range(seg - 1, -1, -1):
p = i * 2
base_face.append(p)
faces.append(base_face)
if cap != 0:
cap_face = []
for i in range(seg):
p = i * 2 + 1
cap_face.append(p)
faces.append(cap_face)
mesh = pov_define_mesh(mesh, verts, [], faces, "PovCone", True)
if not ob:
ob_base = object_utils.object_data_add(context, mesh, operator=None)
ob = ob_base.object
ob.pov.object_as = "CONE"
ob.pov.cone_base_radius = base
ob.pov.cone_cap_radius = cap
ob.pov.cone_height = height
ob.pov.cone_base_z = zb
ob.pov.cone_cap_z = zc
class POVRAY_OT_cone_add(bpy.types.Operator):
bl_idname = "pov.cone_add"
bl_label = "Cone"
bl_description = "Add Cone"
bl_options = {'REGISTER', 'UNDO'}
COMPAT_ENGINES = {'POVRAY_RENDER'}
# XXX Keep it in sync with __init__'s RenderPovSettingsConePrimitive
# If someone knows how to define operators' props from a func, I'd be delighted to learn it!
base = FloatProperty(
name = "Base radius", description = "The first radius of the cone",
default = 1.0, min = 0.01, max = 100.0)
cap = FloatProperty(
name = "Cap radius", description = "The second radius of the cone",
default = 0.3, min = 0.0, max = 100.0)
seg = IntProperty(
name = "Segments", description = "Radial segmentation of the proxy mesh",
default = 16, min = 3, max = 265)
height = FloatProperty(
name = "Height", description = "Height of the cone",
default = 2.0, min = 0.01, max = 100.0)
@classmethod
def poll(cls, context):
engine = context.scene.render.engine
return (engine in cls.COMPAT_ENGINES)
def execute(self, context):
pov_cone_define(context, self, None)
self.report({'WARNING'}, "This native POV-Ray primitive won't have any vertex to show in edit mode")
return {'FINISHED'}
class POVRAY_OT_cone_update(bpy.types.Operator):
bl_idname = "pov.cone_update"
bl_label = "Update"
bl_description = "Update Cone"
bl_options = {'REGISTER', 'UNDO'}
COMPAT_ENGINES = {'POVRAY_RENDER'}
@classmethod
def poll(cls, context):
engine = context.scene.render.engine
ob = context.object
return (ob and ob.data and ob.type == 'MESH' and engine in cls.COMPAT_ENGINES)
def execute(self, context):
bpy.ops.object.mode_set(mode="EDIT")
bpy.ops.mesh.reveal()
bpy.ops.mesh.select_all(action='SELECT')
bpy.ops.mesh.delete(type='VERT')
bpy.ops.object.mode_set(mode="OBJECT")
pov_cone_define(context, None, context.object)
return {'FINISHED'}
#########################################################################################################
class POVRAY_OT_isosurface_box_add(bpy.types.Operator):
bl_idname = "pov.addisosurfacebox"
bl_label = "Isosurface Box"
bl_description = "Add Isosurface contained by Box"
bl_options = {'REGISTER', 'UNDO'}
def execute(self,context):
layers = 20*[False]
layers[0] = True
bpy.ops.mesh.primitive_cube_add(layers = layers)
ob = context.object
bpy.ops.object.mode_set(mode="EDIT")
self.report({'WARNING'}, "This native POV-Ray primitive "
"won't have any vertex to show in edit mode")
bpy.ops.mesh.hide(unselected=False)
bpy.ops.object.mode_set(mode="OBJECT")
ob.pov.object_as = "ISOSURFACE"
ob.pov.contained_by = 'box'
ob.name = 'Isosurface'
return {'FINISHED'}
class POVRAY_OT_isosurface_sphere_add(bpy.types.Operator):
bl_idname = "pov.addisosurfacesphere"
bl_label = "Isosurface Sphere"
bl_description = "Add Isosurface contained by Sphere"
bl_options = {'REGISTER', 'UNDO'}
def execute(self,context):
layers = 20*[False]
layers[0] = True
bpy.ops.mesh.primitive_ico_sphere_add(subdivisions=4,layers=layers)
ob = context.object
bpy.ops.object.mode_set(mode="EDIT")
self.report({'WARNING'}, "This native POV-Ray primitive "
"won't have any vertex to show in edit mode")
bpy.ops.mesh.hide(unselected=False)
bpy.ops.object.mode_set(mode="OBJECT")
bpy.ops.object.shade_smooth()
ob.pov.object_as = "ISOSURFACE"
ob.pov.contained_by = 'sphere'
ob.name = 'Isosurface'
return {'FINISHED'}
class POVRAY_OT_sphere_sweep_add(bpy.types.Operator):
bl_idname = "pov.addspheresweep"
bl_label = "Sphere Sweep"
bl_description = "Create Sphere Sweep along curve"
bl_options = {'REGISTER', 'UNDO'}
def execute(self,context):
layers = 20*[False]
layers[0] = True
bpy.ops.curve.primitive_nurbs_curve_add(layers = layers)
ob = context.object
ob.name = ob.data.name = "PovSphereSweep"
ob.pov.curveshape = "sphere_sweep"
ob.data.bevel_depth = 0.02
ob.data.bevel_resolution = 4
ob.data.fill_mode = 'FULL'
#ob.data.splines[0].order_u = 4
return {'FINISHED'}
class POVRAY_OT_blob_add(bpy.types.Operator):
bl_idname = "pov.addblobsphere"
bl_label = "Blob Sphere"
bl_description = "Add Blob Sphere"
bl_options = {'REGISTER', 'UNDO'}
def execute(self,context):
layers = 20*[False]
layers[0] = True
bpy.ops.object.metaball_add(type = 'BALL',layers = layers)
ob = context.object
ob.name = "Blob"
return {'FINISHED'}
class POVRAY_OT_rainbow_add(bpy.types.Operator):
bl_idname = "pov.addrainbow"
bl_label = "Rainbow"
bl_description = "Add Rainbow"
bl_options = {'REGISTER', 'UNDO'}
def execute(self,context):
cam = context.scene.camera
bpy.ops.object.lamp_add(type='SPOT', radius=1)
ob = context.object
ob.data.show_cone = False
ob.data.spot_blend = 0.5
ob.data.shadow_buffer_clip_end = 0
ob.data.shadow_buffer_clip_start = 4*cam.location.length
ob.data.distance = cam.location.length
ob.data.energy = 0
ob.name = ob.data.name = "PovRainbow"
ob.pov.object_as = "RAINBOW"
#obj = context.object
bpy.ops.object.constraint_add(type='DAMPED_TRACK')
ob.constraints["Damped Track"].target = cam
ob.constraints["Damped Track"].track_axis = 'TRACK_NEGATIVE_Z'
ob.location = -cam.location
#refocus on the actual rainbow
bpy.context.scene.objects.active = ob
ob.select=True
return {'FINISHED'}
class POVRAY_OT_height_field_add(bpy.types.Operator, ImportHelper):
bl_idname = "pov.addheightfield"
bl_label = "Height Field"
bl_description = "Add Height Field "
bl_options = {'REGISTER', 'UNDO'}
# XXX Keep it in sync with __init__'s hf Primitive
# filename_ext = ".png"
# filter_glob = StringProperty(
# default="*.exr;*.gif;*.hdr;*.iff;*.jpeg;*.jpg;*.pgm;*.png;*.pot;*.ppm;*.sys;*.tga;*.tiff;*.EXR;*.GIF;*.HDR;*.IFF;*.JPEG;*.JPG;*.PGM;*.PNG;*.POT;*.PPM;*.SYS;*.TGA;*.TIFF",
# options={'HIDDEN'},
# )
quality = IntProperty(name = "Quality",
description = "",
default = 100, min = 1, max = 100)
hf_filename = StringProperty(maxlen = 1024)
hf_gamma = FloatProperty(
name="Gamma",
description="Gamma",
min=0.0001, max=20.0, default=1.0)
hf_premultiplied = BoolProperty(
name="Premultiplied",
description="Premultiplied",
default=True)
hf_smooth = BoolProperty(
name="Smooth",
description="Smooth",
default=False)
hf_water = FloatProperty(
name="Water Level",
description="Wather Level",
min=0.00, max=1.00, default=0.0)
hf_hierarchy = BoolProperty(
name="Hierarchy",
description="Height field hierarchy",
default=True)
def execute(self,context):
props = self.properties
impath = bpy.path.abspath(self.filepath)
img = bpy.data.images.load(impath)
im_name = img.name
im_name, file_extension = os.path.splitext(im_name)
hf_tex = bpy.data.textures.new('%s_hf_image'%im_name, type = 'IMAGE')
hf_tex.image = img
mat = bpy.data.materials.new('Tex_%s_hf'%im_name)
hf_slot = mat.texture_slots.create(-1)
hf_slot.texture = hf_tex
layers = 20*[False]
layers[0] = True
quality = props.quality
res = 100/quality
w,h = hf_tex.image.size[:]
w = int(w/res)
h = int(h/res)
bpy.ops.mesh.primitive_grid_add(x_subdivisions=w, y_subdivisions=h,radius = 0.5,layers=layers)
ob = context.object
ob.name = ob.data.name = '%s'%im_name
ob.data.materials.append(mat)
bpy.ops.object.mode_set(mode="EDIT")
bpy.ops.mesh.noise(factor=1)
bpy.ops.object.mode_set(mode="OBJECT")
#needs a loop to select by index?
#bpy.ops.object.material_slot_remove()
#material just left there for now
mat.texture_slots.clear(-1)
bpy.ops.object.mode_set(mode="EDIT")
bpy.ops.mesh.hide(unselected=False)
bpy.ops.object.mode_set(mode="OBJECT")
ob.pov.object_as = 'HEIGHT_FIELD'
ob.pov.hf_filename = impath
return {'FINISHED'}
############################TORUS############################################
def pov_torus_define(context, op, ob):
if op:
mas = op.mas
mis = op.mis
mar = op.mar
mir = op.mir
else:
assert(ob)
mas = ob.pov.torus_major_segments
mis = ob.pov.torus_minor_segments
mar = ob.pov.torus_major_radius
mir = ob.pov.torus_minor_radius
#keep object rotation and location for the add object operator
obrot = ob.rotation_euler
obloc = ob.location
bpy.ops.object.mode_set(mode="EDIT")
bpy.ops.mesh.reveal()
bpy.ops.mesh.select_all(action='SELECT')
bpy.ops.mesh.delete(type='VERT')
bpy.ops.mesh.primitive_torus_add(rotation = obrot, location = obloc, major_segments=mas, minor_segments=mis,major_radius=mar, minor_radius=mir)
bpy.ops.mesh.hide(unselected=False)
bpy.ops.object.mode_set(mode="OBJECT")
if not ob:
bpy.ops.mesh.primitive_torus_add(major_segments=mas, minor_segments=mis,major_radius=mar, minor_radius=mir)
ob = context.object
ob.name = ob.data.name = "PovTorus"
ob.pov.object_as = "TORUS"
ob.pov.torus_major_segments = mas
ob.pov.torus_minor_segments = mis
ob.pov.torus_major_radius = mar
ob.pov.torus_minor_radius = mir
bpy.ops.object.mode_set(mode="EDIT")
bpy.ops.mesh.hide(unselected=False)
bpy.ops.object.mode_set(mode="OBJECT")
class POVRAY_OT_torus_add(bpy.types.Operator):
bl_idname = "pov.addtorus"
bl_label = "Torus"
bl_description = "Add Torus"
bl_options = {'REGISTER', 'UNDO'}
# XXX Keep it in sync with __init__'s torus Primitive
mas = IntProperty(name = "Major Segments",
description = "",
default = 48, min = 3, max = 720)
mis = IntProperty(name = "Minor Segments",
description = "",
default = 12, min = 3, max = 720)
mar = FloatProperty(name = "Major Radius",
description = "",
default = 1.0)
mir = FloatProperty(name = "Minor Radius",
description = "",
default = 0.25)
def execute(self,context):
props = self.properties
mar = props.mar
mir = props.mir
mas = props.mas
mis = props.mis
pov_torus_define(context, self, None)
self.report({'WARNING'}, "This native POV-Ray primitive "
"won't have any vertex to show in edit mode")
return {'FINISHED'}
class POVRAY_OT_torus_update(bpy.types.Operator):
bl_idname = "pov.torus_update"
bl_label = "Update"
bl_description = "Update Torus"
bl_options = {'REGISTER', 'UNDO'}
COMPAT_ENGINES = {'POVRAY_RENDER'}
@classmethod
def poll(cls, context):
engine = context.scene.render.engine
ob = context.object
return (ob and ob.data and ob.type == 'MESH' and engine in cls.COMPAT_ENGINES)
def execute(self, context):
pov_torus_define(context, None, context.object)
return {'FINISHED'}
###################################################################################
class POVRAY_OT_prism_add(bpy.types.Operator):
bl_idname = "pov.addprism"
bl_label = "Prism"
bl_description = "Create Prism"
bl_options = {'REGISTER', 'UNDO'}
prism_n = IntProperty(name = "Sides",
description = "Number of sides",
default = 5, min = 3, max = 720)
prism_r = FloatProperty(name = "Radius",
description = "Radius",
default = 1.0)
def execute(self,context):
props = self.properties
loftData = bpy.data.curves.new('Prism', type='CURVE')
loftData.dimensions = '2D'
loftData.resolution_u = 2
loftData.show_normal_face = False
loftData.extrude = 2
n=props.prism_n
r=props.prism_r
coords = []
z = 0
angle = 0
for p in range(n):
x = r*cos(angle)
y = r*sin(angle)
coords.append((x,y,z))
angle+=pi*2/n
poly = loftData.splines.new('POLY')
poly.points.add(len(coords)-1)
for i, coord in enumerate(coords):
x,y,z = coord
poly.points[i].co = (x, y, z, 1)
poly.use_cyclic_u = True
ob = bpy.data.objects.new('Prism_shape', loftData)
scn = bpy.context.scene
scn.objects.link(ob)
scn.objects.active = ob
ob.select = True
ob.pov.curveshape = "prism"
ob.name = ob.data.name = "Prism"
return {'FINISHED'}
##############################PARAMETRIC######################################
def pov_parametric_define(context, op, ob):
if op:
u_min = op.u_min
u_max = op.u_max
v_min = op.v_min
v_max = op.v_max
x_eq = op.x_eq
y_eq = op.y_eq
z_eq = op.z_eq
else:
assert(ob)
u_min = ob.pov.u_min
u_max = ob.pov.u_max
v_min = ob.pov.v_min
v_max = ob.pov.v_max
x_eq = ob.pov.x_eq
y_eq = ob.pov.y_eq
z_eq = ob.pov.z_eq
#keep object rotation and location for the updated object
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obloc = ob.location
obrot = ob.rotation_euler # In radians
#Parametric addon has no loc rot, some extra work is needed
#in case cursor has moved
curloc = bpy.context.scene.cursor_location
bpy.ops.object.mode_set(mode="EDIT")
bpy.ops.mesh.reveal()
bpy.ops.mesh.select_all(action='SELECT')
bpy.ops.mesh.delete(type='VERT')
bpy.ops.mesh.primitive_xyz_function_surface(x_eq=x_eq, y_eq=y_eq, z_eq=z_eq, range_u_min=u_min, range_u_max=u_max, range_v_min=v_min, range_v_max=v_max)
bpy.ops.mesh.select_all(action='SELECT')
#extra work:
bpy.ops.transform.translate(value=(obloc-curloc), proportional_size=1)
bpy.ops.transform.rotate(axis=obrot, proportional_size=1)
bpy.ops.mesh.hide(unselected=False)
bpy.ops.object.mode_set(mode="OBJECT")
if not ob:
bpy.ops.mesh.primitive_xyz_function_surface(x_eq=x_eq, y_eq=y_eq, z_eq=z_eq, range_u_min=u_min, range_u_max=u_max, range_v_min=v_min, range_v_max=v_max)
ob = context.object
ob.name = ob.data.name = "PovParametric"
ob.pov.object_as = "PARAMETRIC"
ob.pov.u_min = u_min
ob.pov.u_max = u_max
ob.pov.v_min = v_min
ob.pov.v_max = v_max
ob.pov.x_eq = x_eq
ob.pov.y_eq = y_eq
ob.pov.z_eq = z_eq
bpy.ops.object.mode_set(mode="EDIT")
bpy.ops.mesh.hide(unselected=False)
bpy.ops.object.mode_set(mode="OBJECT")
class POVRAY_OT_parametric_add(bpy.types.Operator):
bl_idname = "pov.addparametric"
bl_label = "Parametric"
bl_description = "Add Paramertic"
bl_options = {'REGISTER', 'UNDO'}
# XXX Keep it in sync with __init__'s Parametric primitive
u_min = FloatProperty(name = "U Min",
description = "",
default = 0.0)
v_min = FloatProperty(name = "V Min",
description = "",
default = 0.0)
u_max = FloatProperty(name = "U Max",
description = "",
default = 6.28)
v_max = FloatProperty(name = "V Max",
description = "",
default = 12.57)
x_eq = StringProperty(
maxlen=1024, default = "cos(v)*(1+cos(u))*sin(v/8)")
y_eq = StringProperty(
maxlen=1024, default = "sin(u)*sin(v/8)+cos(v/8)*1.5")
z_eq = StringProperty(
maxlen=1024, default = "sin(v)*(1+cos(u))*sin(v/8)")
def execute(self,context):
props = self.properties
u_min = props.u_min
v_min = props.v_min
u_max = props.u_max
v_max = props.v_max
x_eq = props.x_eq
y_eq = props.y_eq
z_eq = props.z_eq
pov_parametric_define(context, self, None)
self.report({'WARNING'}, "This native POV-Ray primitive "
"won't have any vertex to show in edit mode")
return {'FINISHED'}
class POVRAY_OT_parametric_update(bpy.types.Operator):
bl_idname = "pov.parametric_update"
bl_label = "Update"
bl_description = "Update parametric object"
bl_options = {'REGISTER', 'UNDO'}
COMPAT_ENGINES = {'POVRAY_RENDER'}
@classmethod
def poll(cls, context):
engine = context.scene.render.engine
ob = context.object
return (ob and ob.data and ob.type == 'MESH' and engine in cls.COMPAT_ENGINES)
def execute(self, context):
pov_parametric_define(context, None, context.object)
return {'FINISHED'}
#######################################################################
class POVRAY_OT_shape_polygon_to_circle_add(bpy.types.Operator):
bl_idname = "pov.addpolygontocircle"
bl_label = "Polygon To Circle Blending"
bl_description = "Add Polygon To Circle Blending Surface"
bl_options = {'REGISTER', 'UNDO'}
COMPAT_ENGINES = {'POVRAY_RENDER'}
# XXX Keep it in sync with __init__'s polytocircle properties
polytocircle_resolution = IntProperty(name = "Resolution",
description = "",
default = 3, min = 0, max = 256)
polytocircle_ngon = IntProperty(name = "NGon",
description = "",
min = 3, max = 64,default = 5)
polytocircle_ngonR = FloatProperty(name = "NGon Radius",
description = "",
default = 0.3)
polytocircle_circleR = FloatProperty(name = "Circle Radius",
description = "",
default = 1.0)
def execute(self,context):
props = self.properties
ngon = props.polytocircle_ngon
ngonR = props.polytocircle_ngonR
circleR = props.polytocircle_circleR
resolution = props.polytocircle_resolution
layers = 20*[False]
layers[0] = True
bpy.ops.mesh.primitive_circle_add(vertices=ngon, radius=ngonR, fill_type='NGON',enter_editmode=True, layers=layers)
bpy.ops.transform.translate(value=(0, 0, 1))
bpy.ops.mesh.subdivide(number_cuts=resolution)
numCircleVerts = ngon + (ngon*resolution)
bpy.ops.mesh.select_all(action='DESELECT')
bpy.ops.mesh.primitive_circle_add(vertices=numCircleVerts, radius=circleR, fill_type='NGON',enter_editmode=True, layers=layers)
bpy.ops.transform.translate(value=(0, 0, -1))
bpy.ops.mesh.select_all(action='SELECT')
bpy.ops.mesh.bridge_edge_loops()
if ngon < 5:
bpy.ops.mesh.select_all(action='DESELECT')
bpy.ops.mesh.primitive_circle_add(vertices=ngon, radius=ngonR, fill_type='TRIFAN',enter_editmode=True, layers=layers)
bpy.ops.transform.translate(value=(0, 0, 1))
bpy.ops.mesh.select_all(action='SELECT')
bpy.ops.mesh.remove_doubles()
bpy.ops.object.mode_set(mode='OBJECT')
ob = context.object
ob.name = "Polygon_To_Circle"
ob.pov.object_as = 'POLYCIRCLE'
ob.pov.ngon = ngon
ob.pov.ngonR = ngonR
ob.pov.circleR = circleR
bpy.ops.object.mode_set(mode="EDIT")
bpy.ops.mesh.hide(unselected=False)
bpy.ops.object.mode_set(mode="OBJECT")
return {'FINISHED'}
#############################IMPORT
class ImportAvogadroPOV(bpy.types.Operator, ImportHelper):
"""Load Povray File as output by Avogadro"""
bl_idname = "import_scene.avogadro"
bl_label = "Import POV Avogadro"
bl_options = {'PRESET', 'UNDO'}
COMPAT_ENGINES = {'POVRAY_RENDER'}
filename_ext = ".pov"
filter_glob = StringProperty(
default="*.pov",
options={'HIDDEN'},
)
def execute(self, context):
coords=[]
colors = []
matNames = []
xall = yall = zall = []
layers = 20*[False]
layers[0] = True
ob = None
camloc = (0,0,0)
filepov = bpy.path.abspath(self.filepath)
for line in open(filepov):
string = line.replace("<"," ")
chars = [">","{","}",","]
for symbol in chars:
string = string.replace(symbol," ")
split = string.split()
if split and split[0] == "location":
x = float(split[1])
y = float(split[2])
z = float(split[3])
camloc = ((x,y,z))
if split and len(split) == 7:
try:
x1 = float(split[0])
coords.append(x1)
except:
pass
if coords != []:
x1 = float(split[0])
y1 = float(split[1])
z1 = float(split[2])
x2 = float(split[3])
y2 = float(split[4])
z2 = float(split[5])
xall.append(x1)
yall.append(y1)
zall.append(z1)
xall.append(x2)
yall.append(y2)
zall.append(z2)
radius = float(split[6])
curveData = bpy.data.curves.new('myCurve', type='CURVE')
curveData.dimensions = '3D'
curveData.resolution_u = 2
curveData.fill_mode = "FULL"
curveData.bevel_depth = radius
curveData.bevel_resolution = 5
polyline = curveData.splines.new('POLY')
polyline.points.add(1)
polyline.points[0].co = (x1, y1, z1, 1)
polyline.points[1].co = (x2, y2, z2, 1)
ob = bpy.data.objects.new('myCurve', curveData)
scn = bpy.context.scene
scn.objects.link(ob)
scn.objects.active = ob
ob.select = True
bpy.ops.object.convert(target='MESH',keep_original=False)
#XXX TODO use a PovCylinder instead of mesh
#but add end points and radius to addPovcylinder op first
ob.select=False
coords = []
if split and len(split) == 4:
try:
x = float(split[0])
coords.append(x)
except:
pass
if coords != []:
x = float(split[0])
y = float(split[1])
z = float(split[2])
xall.append(x)
yall.append(y)
zall.append(z)
radius = float(split[3])
ob.pov.imported_loc=(x, y, z)
bpy.ops.pov.addsphere(R=radius, imported_loc=(x, y, z))
bpy.ops.object.shade_smooth()
ob = bpy.context.object
coords = []
if split and len(split) == 6:
if split[0] == "pigment":
r,g,b,t = float(split[2]),float(split[3]),float(split[4]),float(split[5])
color = (r,g,b,t)
if colors == [] or (colors != [] and color not in colors):
colors.append(color)
name = ob.name+"_mat"
matNames.append(name)
mat = bpy.data.materials.new(name)
mat.diffuse_color = (r,g,b)
mat.alpha = 1-t
ob.data.materials.append(mat)
print (colors)
else:
for i in range(len(colors)):
if color == colors[i]:
ob.data.materials.append(bpy.data.materials[matNames[i]])
x0 = min(xall)
x1 = max(xall)
y0 = min(yall)
y1 = max(yall)
z0 = min(zall)
z1 = max(zall)
x = (x0+x1)/2
y = (y0+y1)/2
z = (z0+z1)/2
bpy.ops.object.empty_add(layers=layers)
ob = bpy.context.object
ob.location = ((x,y,z))
for obj in bpy.context.scene.objects:
if obj.type == "CAMERA":
track = obj.constraints.new(type = "TRACK_TO")
track.target = ob
track.track_axis ="TRACK_NEGATIVE_Z"
track.up_axis = "UP_Y"
obj.location = camloc
for obj in bpy.context.scene.objects:
if obj.type == "LAMP":
obj.location = camloc
obj.pov.light_type = "shadowless"
break