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CosmicBearsCode.py
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CosmicBearsCode.py
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import bpy
from math import radians
import random
import math
# Global Variables
finaloutput = ""
numberpics = 10
imgstartnum = 51
kactive = True
#Senario Uno: When NumberPics = 2 and ImgStarNum = 18, then Images #18-19 will be outputs
xyBG = 99 #includes cushion space from 101.9
xymidBG = 85
xycloseBG = 75
goldenRatio = 0.618033988749
global objxcords
global objycords
global objsize
objxcords = []
objycords = []
objsize = []
#Probabilities Vars & Debuging Methods
BGOPscaler = 1.07169
BGEScaler = 1.4146
BEPScaler = 1.0412
BGOPden = 10000
BGEden = 8000
BEPden = 9000
'''7 Bear Effects'''
BEP = [math.trunc(164*3.5*BEPScaler),math.trunc(130*3*BEPScaler),math.trunc(98*2.25*BEPScaler),math.trunc(65*2*BEPScaler),math.trunc(32*1.350*BEPScaler),math.trunc(16*1.125*BEPScaler)]
'''6 Background Effects'''
BGE = [math.trunc(267*3.5*BGEScaler), math.trunc(213*3*BGEScaler), math.trunc(160*2.5*BGEScaler), math.trunc(107*2*BGEScaler), math.trunc(53*1.5*BGEScaler), math.trunc(27*1*BGEScaler)]
'''10 Background Objects'''
BGOP = [math.trunc(454*7*BGOPscaler), math.trunc(409*6.5*BGOPscaler), math.trunc(363*6*BGOPscaler), math.trunc(318*4.5*BGOPscaler), math.trunc(272*3*BGOPscaler), math.trunc(227*3*BGOPscaler), math.trunc(188*BGOPscaler), math.trunc(83*BGOPscaler), math.trunc(45*BGOPscaler), math.trunc(15*BGOPscaler)]
'''7 Bear Types'''
def backObjectsProbs():
probsum = 1
for x in range(len(BGOP)):
probsum *= 1-((BGOP[x])/BGOPden)
return str((1-probsum)*100) + "%"
def backEffectsProbs():
probsum = 1
for x in range(len(BEP)):
probsum *= 1-((BEP[x])/BEPden)
return str((1-probsum)*100) + "%"
def bearEffectsProbs():
probsum = 1
for x in range(len(BGE)):
probsum *= 1-((BGE[x])/BGEden)
return str((1-probsum)*100) + "%"
def backTypesProbs():
return str(100) + "%"
# Common Functions
def rand(max, min): # Output is a decimal with "rounded" number of decimals EX: ~~~.~~~
return random.randint(min, max)
def randD(max, min, rounded): # Output is a decimal with "rounded" number of decimals EX: ~~~.~~~
return round(random.uniform(min, max), rounded)
def mulRand(count, max, min, round):# Output is in array EX: [0] = ~~~, [1] = ~~~ ...
output = []
for x in range(count):
output.append(randD(max, min, round))
return output
def hsvrgb(bright): # Output is int RGB(0.0-1.0)
if(bright == True):
h = ((randD(1,0,5)+goldenRatio)%1)
s = randD(.99,.879,6)
v = randD(.95,.875,6)
else:
h = (randD(1,0,5)+goldenRatio)%1
s = randD(1,.85,6)
v = randD(.205,.111,6)
i = round(h*6)
f = h*6 - i
p = v * (1-s)
q = v * (1-(f*s))
t = v * (1-((1-f)*s))
r, g, b = [
(v, t, p),
(q, v, p),
(p, v, t),
(p, q, v),
(t, p, v),
(v, p, q),
][int(i%6)]
return (r), (g), (b), 1
def cordD(xymax, size, kscale):#size is "s" in a s-length cube
cleared = False
while(cleared==False):#Loops until obj is away from other objs and bear
kx = randD(xymax, -xymax,4)# Generates possiable x point
ky = randD(xymax, -xymax,4)# Generates possiable y point
index = len(objxcords)
numcleared = 0
if(currentbet==5):
bearxsize = 27*5
bearysize = 24*2
else:
bearxsize = 27*2
bearysize = 24*2
#Below Checks if Obj is in bear
if((round(bearxsize/2,3)<(kx-round(kscale*size/2,3))) or ((-round(bearxsize/2,3)>(kx+round(kscale*size/2,3)))) or ((round(bearysize/2,3)<(ky-round(kscale*size/2,3))) or ((-round(bearysize/2,3))>(ky+round(kscale*size/2,3))))):
if(index>0):
for count in range(index):# Loops through all current cords
if(((objxcords[count]+round(objsize[count]/2,3)<(kx-(round(size/2,3)))) or (objycords[count]+round(objsize[count]/2,3)<(ky-(round(size/2,3))))) or ((objxcords[count]-round(objsize[count]/2,3)>(kx+(round(size/2,3)))) or (objycords[count]-round(objsize[count]/2,3)>(ky+(round(size/2,3)))))):
numcleared += 1
else:
print(kx)
print(ky)
print("This point didn't work. Touched another Object")
else:
objxcords.append(kx)
objycords.append(ky)
objsize.append(size*kscale)
cleared = True
else:
print(kx)
print(ky)
print("This point didn't work. Touched Bear")
if((numcleared == index) and (index!=0)):
cleared = True
objxcords.append(kx)
objycords.append(ky)
objsize.append(size*kscale)
return (kx,ky)
# Decider Methods
def bgoDecider(): # Output is an array of objects' index in probs, or a -1 representing no objects.
presentobj = []
for x in range(len(BGOP)):
if(rand(BGOPden,1) <= BGOP[x]):
presentobj.append(x)
if(len(presentobj)>0):
return presentobj
return -1
def bgeDecider(): # Output is the background effect's index in probs, or a -1 representing no background effects.
presentobj = []
for x in range(len(BGE)):
if(rand(BGEden,1) <= BGE[x]):
presentobj.append(x)
if(len(presentobj)>0):
return presentobj[len(presentobj)-1]
return -1
def beeDecider(): # Output is the bear effect's index in probs, or a -1 representing no bear effects.
presentobj = []
for x in range(len(BEP)):
if(rand(BEPden,1) <= BEP[x]):
presentobj.append(x)
if(len(presentobj)>0):
return presentobj[len(presentobj)-1]
return -1
def betDecider(): # Output is the bear type's index in probs, or a -1 representing error.
num = rand(10000,1)
if (num <= 5): # Chaos Bear
output = 7
elif (6<=num and num<=104): # King Bear
output = 6
elif (105<=num and num<=304): # Hydra Bear
output = 5
elif (305<=num and num<=602): # Black Bear Change Alpha to 0
output = 4
elif (603<=num and num<=1000): # Polar Bear
output = 3
elif (1001<=num and num<=2500): # Bruin Bear
output = 2
elif (2501<=num and num<=10000): # Random Bear
output = 1
else:
print("Error Overflow: No Bear Type ")
return output
#Changer Args
#------------------------------------
D = bpy.data
for x in range(numberpics):
namelowres = 'cb' + str(imgstartnum + x) + 'lowres.jpg'
addresslowres = 'C:/Users/Isean/OneDrive/Documents/Bears/FinalBearsNDA/' + namelowres
namehighres = 'cb' + str(imgstartnum + x) + '.jpg'
addresshighres = 'C:/Users/Isean/OneDrive/Documents/Bears/FinalBears/' + namehighres
#------------------------------
print("====================================================")
print("Bear Number " + str(x + imgstartnum))
#Color Refereneces
kBearSkin = bpy.data.materials['BearColor']
kRightEye = bpy.data.materials['RightEye']
kLeftEye = bpy.data.materials['LeftEye']
kEyeShadowR = bpy.data.materials['Eyeshadow.001']
kEyeShadowL = bpy.data.materials['LeftEye.008']
#MainObjects
mainBear = bpy.data.objects["TheBearOne"]
bearLight = bpy.data.objects["BearLight"]
hydraHead = bpy.data.objects["CenterHydraHead"]
hydraLight = bpy.data.objects["CenterHydraLight"]
chaosHead = bpy.data.objects["ChaosRightEye"]
#Backgrounds/Lights
bgs = bpy.data.objects["StarryNight"]
bgsl = bpy.data.objects["Starslight"]
bge = bpy.data.objects["StarryNight.002"]
bgal = bpy.data.objects["Starslight.003"]
bga = bpy.data.objects["StarryNight.003"]
bgc = bpy.data.objects["StarryNight.004"]
bgcl = bpy.data.objects["Starslight.002"]
#Objects
t1 = bpy.data.objects["TestingIcosphere5meters"]
ss1 = bpy.data.objects["ShootingStar1"]
ss2 = bpy.data.objects["ShootingStar2"]
ss3 = bpy.data.objects["ShootingStar3"]
ss4 = bpy.data.objects["ShootingStar4"]
ss5 = bpy.data.objects["ShootingStar5"]
p1 = bpy.data.objects["Planet1"]
p2 = bpy.data.objects["Planet2"]
p3 = bpy.data.objects["Planet3"]
b1 = bpy.data.objects["Black Hole.002"]
b2 = bpy.data.objects["Black Hole.003"]
b3 = bpy.data.objects["Black Hole.004"]
cs = bpy.data.objects["CloseStar"]
ufo = bpy.data.objects["UFO"]
sl = bpy.data.objects["ShuttleLight"]
sh = bpy.data.objects["SpaceShuttle"]
smbh = bpy.data.objects["BlackHoleSuperMassive"]
r1 = bpy.data.objects["Rings1"]
r2 = bpy.data.objects["Rings2"]
ses = bpy.data.objects["SolarEclispseShadow"]
seshydra = bpy.data.objects["SolarEclispseShadow.002"]
schaos = bpy.data.objects["ChaosShadow"]
cr1 = bpy.data.objects["ChaosDisk2"]
cr2 = bpy.data.objects["ChaosDisk1"]
g1a = bpy.data.objects["GammaRay1_Inner"]
g1b = bpy.data.objects["GammaRay1_Mid"]
g1c = bpy.data.objects["GammaRay1_Out"]
g2a = bpy.data.objects["GammaRay1_Inner.001"]
g2b = bpy.data.objects["GammaRay1_Mid.001"]
g2c = bpy.data.objects["GammaRay1_Out.001"]
g3a = bpy.data.objects["GammaRay1_Inner.002"]
g3b = bpy.data.objects["GammaRay1_Mid.002"]
g3c = bpy.data.objects["GammaRay1_Out.002"]
#Earth Collection
er = bpy.data.objects["EarthRock"]
eatm = bpy.data.objects["EarthAtmosphere"]
erl = bpy.data.objects["EarthLight"]
moon = bpy.data.objects["Moon"]
moonl = bpy.data.objects["MoonLight"]
#Crown Collection
c1 = bpy.data.objects["CircleCrown"]
c2 = bpy.data.objects["CrownPart"]
c3 = bpy.data.objects["CrownRedGems"]
c4 = bpy.data.objects["CrownBlueGem"]
#Gas Clouds
gc = bpy.data.objects["GasCloud"]
gcl = bpy.data.objects["GasCloudLight3"]
gcl1 = bpy.data.objects["GasCloudLight1"]
gcl2 = bpy.data.objects["GasCloudLight2"]
# START RENDERING HERE -------------------------------------------------------------------------------
#Reset Actions
print("Reset In Progress...")
kBearSkin.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (1,1,1,1);
kRightEye.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (1,1,1,1);
kLeftEye.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (1,1,1,1);
kEyeShadowR.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (1,1,1,1);
kEyeShadowL.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (1,1,1,1);
bgs.location.x = 0
bgs.location.y = 0
bgsl.location.x = 0
bgsl.location.y = 0
bgc.location.x = 0
bgc.location.y = 0
bgcl.location.x = 0
bgcl.location.y = 0
mainBear.location.x = 0
mainBear.location.y = 0
bearLight.location.x = 0
bearLight.location.y = 0
hydraHead.location.y = 200
hydraLight.location.y = 200
bge.location.x = 0
bge.location.y = 0
bgal.location.x = 0
bgal.location.y = 0
bga.location.x = 0
bga.location.y = 0
ss1.location.x = -200
ss1.location.y = 200
ss2.location.x = -175
ss2.location.y = 200
ss3.location.x = -150
ss3.location.y = 200
ss4.location.x = -125
ss4.location.y = 200
ss5.location.x = -100
ss5.location.y = 200
ss1.rotation_euler[2] = 0
ss2.rotation_euler[2] = 0
ss3.rotation_euler[2] = 0
ss4.rotation_euler[2] = 0
ss5.rotation_euler[2] = 0
p1.location.x = -200
p1.location.y = 175
p2.location.x = -150
p2.location.y = 175
p3.location.x = -100
p3.location.y = 175
b1.location.x = -200
b1.location.y = 150
b2.location.x = -150
b2.location.y = 150
b3.location.x = -100
b3.location.y = 150
cs.location.x = -250
cs.location.y = 200
earthlocx = -250
earthlocy = 150
er.location.x = earthlocx
er.location.y = earthlocy
eatm.location.x = earthlocx
eatm.location.y = earthlocy
erl.location.x = earthlocx
erl.location.y = earthlocy
ufo.location.x = -245
ufo.location.y = 100
sl.location.x = -200
sl.location.y = 100
sh.location.x = -200
sh.location.y = 100
smbh.location.x = -350
smbh.location.y = 200
r1.location.x = -450
r1.location.y = 200
r2.location.x = -450
r2.location.y = 100
angle = randD(360,0,4)
tempx = (er.location.x) + 25*math.cos(angle)
tempy = (er.location.y) + 25*math.sin(angle)
moon.location.x = tempx
moon.location.y = tempy
moonl.location.x = tempx
moonl.location.y = tempy
crownlocx = -350
crownlocy = 100
c1.location.x = crownlocx
c1.location.y = crownlocy
c2.location.x = crownlocx
c2.location.y = crownlocy
c3.location.x = crownlocx
c3.location.y = crownlocy
c4.location.x = crownlocx
c4.location.y = crownlocy
ses.location.x = -450
ses.location.y = 0
gaslocx = -400
gaslocy = -100
gc.location.x = gaslocx
gc.location.y = gaslocy
gcl.location.x = gaslocx
gcl.location.y = gaslocy
gcl1.location.x = gaslocx - 75
gcl1.location.y = gaslocy + 35
gcl2.location.x = gaslocx + 75
gcl2.location.y = gaslocy - 35
cr1.location.x = 300
cr2.location.x = 300
chaosHead.location.x = 300
bpy.data.materials["Starssurface.002"].node_tree.nodes["Principled BSDF"].inputs[18].default_value = 0
bpy.data.materials["Starssurface.002"].node_tree.nodes["ColorRamp"].color_ramp.elements[0].color = (1,0,.013702,1)
bpy.data.materials["Starssurface.002"].node_tree.nodes["ColorRamp"].color_ramp.elements[1].color = (0.409468, 0.350815, 0.008739, 1)
bpy.data.materials["Starssurface.002"].node_tree.nodes["ColorRamp"].color_ramp.elements[2].color = (0.021858, 0.175326, 1 ,1)
bpy.data.node_groups["Geometry Nodes.001"].nodes["Point Distribute.001"].inputs[2].default_value = .005
bpy.data.node_groups["Geometry Nodes.005"].nodes["Point Distribute.001"].inputs[2].default_value = .005
bpy.data.node_groups["Geometry Nodes.002"].nodes["Point Distribute.005"].inputs[2].default_value = .001
bpy.data.materials["Starssurface.005"].node_tree.nodes["Principled BSDF"].inputs[18].default_value = 0
bpy.data.materials["COINMAINcolor.003"].node_tree.nodes["Principled BSDF"].inputs[18].default_value = 0
bpy.data.materials["Material.017"].node_tree.nodes["ColorRamp"].color_ramp.elements[0].color = (1,0,0,1)
bpy.data.materials["Material.017"].node_tree.nodes["ColorRamp"].color_ramp.elements[1].color = (0.142272,0.978658,0.409468,1)
bpy.data.materials["Material.017"].node_tree.nodes["ColorRamp"].color_ramp.elements[2].color = (0, 0, 1, 1)
bpy.data.materials["Starssurface.005"].node_tree.nodes["ColorRamp.001"].color_ramp.elements[0].color = (1,1,1,1)
bpy.data.materials["Starssurface.005"].node_tree.nodes["ColorRamp.001"].color_ramp.elements[1].color = (1,0,0,1)
bpy.data.materials["Starssurface.005"].node_tree.nodes["ColorRamp.001"].color_ramp.elements[2].color = (0,0,0,1)
bpy.data.materials["LeftEye.010"].node_tree.nodes["Principled BSDF"].inputs[17].default_value = (1,0.641674,0,1)
bpy.data.materials["LeftEye.006"].node_tree.nodes["Principled BSDF"].inputs[17].default_value = (1,0.641674,0,1)
r1.location.z = 36.1005
r2.location.z = 36.1005
r1.scale[0] = 28.017
r1.scale[1] = 28.017
r1.scale[2] = 28.017
r2.scale[0] = 20
r2.scale[1] = 20
r2.scale[2] = 20
bpy.data.materials["BearColor"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = 0
bpy.data.materials["Eyeshadow.001"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = 0
bpy.data.materials["LeftEye.008"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = 0
bpy.data.materials["RightEye"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = 0
bpy.data.materials["LeftEye"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = 0
bpy.data.materials["LeftEye.001"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = 0
bpy.data.materials["Skincolor"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = 0
bpy.data.materials["Skincolor"].blend_method = 'OPAQUE'
bpy.data.materials["Eyeshadow"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = 0
bpy.data.materials["LeftEye.002"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = 0
bpy.data.materials["Material"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = 0
bpy.data.materials["LeftEye.006"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value =0
bpy.data.materials["LeftEye.010"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = 0
bpy.data.materials["BearColor"].node_tree.nodes["Principled BSDF"].inputs[18].default_value = 0
bpy.data.materials["Skincolor"].node_tree.nodes["Principled BSDF"].inputs[18].default_value = 0
seshydra.location.x = -320
seshydra.location.y = 0
schaos.location.x = -200
schaos.location.y = -100
t1.location.x = -250
t1.location.y = 50
g1a.location.x = -240
g1b.location.x = -240
g1c.location.x = -240
g1a.location.y = 40
g1b.location.y = 40
g1c.location.y = 40
g1a.rotation_euler[0] = 0
g1a.rotation_euler[1] = 0
g1a.rotation_euler[2] = 0
g1b.rotation_euler[0] = 0
g1b.rotation_euler[1] = 0
g1b.rotation_euler[2] = 0
g1c.rotation_euler[0] = 0
g1c.rotation_euler[1] = 0
g1c.rotation_euler[2] = 0
g2a.location.x = -240
g2b.location.x = -240
g2c.location.x = -240
g2a.location.y = 40 - 10
g2b.location.y = 40 - 10
g2c.location.y = 40 - 10
g3a.location.x = -240
g3b.location.x = -240
g3c.location.x = -240
g3a.location.y = 40 - 20
g3b.location.y = 40 - 20
g3c.location.y = 40 - 20
g2a.rotation_euler[0] = 0
g2a.rotation_euler[1] = 0
g2a.rotation_euler[2] = 0
g2b.rotation_euler[0] = 0
g2b.rotation_euler[1] = 0
g2b.rotation_euler[2] = 0
g2c.rotation_euler[0] = 0
g2c.rotation_euler[1] = 0
g2c.rotation_euler[2] = 0
g3a.rotation_euler[0] = 0
g3a.rotation_euler[1] = 0
g3a.rotation_euler[2] = 0
g3b.rotation_euler[0] = 0
g3b.rotation_euler[1] = 0
g3b.rotation_euler[2] = 0
g3c.rotation_euler[0] = 0
g3c.rotation_euler[1] = 0
g3c.rotation_euler[2] = 0
print("Reset Complete!\n")
#Stores the randomized
currentbet = betDecider() # Bear Type, only 1
currentbee = beeDecider() # Bear Effect, only 1
currentbge = bgeDecider() # Background Effect, only 1
currentbgo = bgoDecider() # Background Objects
#Changes the Bear Type
if(currentbet==1): # Random Bear
kkeyecolor = hsvrgb(False)
kkeyeshadow = hsvrgb(True)
kkskincolor = hsvrgb(True)
while(abs(kkeyeshadow[0]-kkskincolor[0])<=.02 and abs(kkeyeshadow[1]-kkskincolor[1])<=.02 and abs(kkeyeshadow[2]-kkskincolor[2])<=.02):
kkeyeshadow = hsvrgb(True)
kBearSkin.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkskincolor);
kRightEye.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyecolor);
kLeftEye.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyecolor);
kEyeShadowR.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyeshadow);
kEyeShadowL.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyeshadow);
bpy.data.node_groups["Geometry Nodes.001"].nodes["Point Distribute.001"].inputs[4].default_value = rand(9999,-10000)
print("Bear Type: Random")
finaloutput += "BT:Random//"
elif(currentbet==2): # Bruin Bear
kkeyecolor = hsvrgb(False)
kkeyeshadow = hsvrgb(True)
kkskincolor = (0.254152, 0.084376, 0.009721, 1)
while(abs(kkeyeshadow[0]-kkskincolor[0])<=.02 and abs(kkeyeshadow[1]-kkskincolor[1])<=.02 and abs(kkeyeshadow[2]-kkskincolor[2])<=.02):
kkeyeshadow = hsvrgb(True)
kBearSkin.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkskincolor);
kRightEye.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyecolor);
kLeftEye.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyecolor);
kEyeShadowR.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyeshadow);
kEyeShadowL.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyeshadow);
bpy.data.node_groups["Geometry Nodes.001"].nodes["Point Distribute.001"].inputs[4].default_value = rand(9999,-10000)
print("Bear Type: Bruin Bear")
finaloutput += "BT:Bruin Bear//"
elif(currentbet==3): # Polar Bear
kkeyecolor = hsvrgb(False)
kkeyeshadow = hsvrgb(True)
kkskincolor = (1,1,1,1)
while(abs(kkeyeshadow[0]-kkskincolor[0])<=.02 and abs(kkeyeshadow[1]-kkskincolor[1])<=.02 and abs(kkeyeshadow[2]-kkskincolor[2])<=.02):
kkeyeshadow = hsvrgb(True)
kBearSkin.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkskincolor);
kRightEye.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyecolor);
kLeftEye.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyecolor);
kEyeShadowR.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyeshadow);
kEyeShadowL.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyeshadow);
bpy.data.node_groups["Geometry Nodes.001"].nodes["Point Distribute.001"].inputs[4].default_value = rand(9999,-10000)
print("Bear Type: Polar Bear")
finaloutput += "BT:Polar Bear//"
elif(currentbet==4): # Black Bear
kkeyecolor = hsvrgb(False)
kkeyeshadow = hsvrgb(True)
kkskincolor = (0.009721, 0.009134, 0.012286, 1)
while(abs(kkeyeshadow[0]-kkskincolor[0])<=.02 and abs(kkeyeshadow[1]-kkskincolor[1])<=.02 and abs(kkeyeshadow[2]-kkskincolor[2])<=.02):
kkeyeshadow = hsvrgb(True)
kBearSkin.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (0.009721, 0.009134, 0.012286, 1);
kRightEye.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyecolor);
kLeftEye.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyecolor);
kEyeShadowR.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyeshadow);
kEyeShadowL.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyeshadow);
bpy.data.node_groups["Geometry Nodes.001"].nodes["Point Distribute.001"].inputs[4].default_value = rand(9999,-10000)
print("Bear Type: Black Bear")
finaloutput += "BT:Black Bear//"
elif(currentbet==5): # Hydra Bear
kkeyecolor = hsvrgb(False)
kkeyeshadow = hsvrgb(True)
kkskincolor = hsvrgb(True)
while(abs(kkeyeshadow[0]-kkskincolor[0])<=.02 and abs(kkeyeshadow[1]-kkskincolor[1])<=.02 and abs(kkeyeshadow[2]-kkskincolor[2])<=.02):
kkeyeshadow = hsvrgb(True)
kBearSkin.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (hsvrgb(True));
kRightEye.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyecolor);
kLeftEye.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyecolor);
kEyeShadowR.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyeshadow);
kEyeShadowL.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyeshadow);
mainBear.location.y = 200
hydraHead.location.y = 0
hydraLight.location.y = 0
bpy.data.node_groups["Geometry Nodes.001"].nodes["Point Distribute.001"].inputs[4].default_value = rand(9999,-10000)#1 num 10k is used on publically avaliable version
print("Bear Type: Hydra Bear")
finaloutput += "BT:Hydra Bear//"
elif(currentbet==6): # King Bear
kkeyecolor = (0.799103,0.708376,0,1)
kkeyeshadow = (1,1,1,1)
kBearSkin.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (0.005602, 0.015207, 1, 1);
kRightEye.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyecolor);
kLeftEye.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyecolor);
kEyeShadowR.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyeshadow);
kEyeShadowL.node_tree.nodes["Principled BSDF"].inputs[0].default_value = (kkeyeshadow);
c1.location.x = 0
c1.location.y = 0
c2.location.x = 0
c2.location.y = 0
c3.location.x = 0
c3.location.y = 0
c4.location.x = 0
c4.location.y = 0
bpy.data.materials["Starssurface.002"].node_tree.nodes["ColorRamp"].color_ramp.elements[0].color = (0.799103,0.708376,0,1)
bpy.data.materials["Starssurface.002"].node_tree.nodes["ColorRamp"].color_ramp.elements[1].color = (1,1,1,1)
bpy.data.materials["Starssurface.002"].node_tree.nodes["ColorRamp"].color_ramp.elements[2].color = (0.005602, 0.015207, 1, 1)
bpy.data.node_groups["Geometry Nodes.002"].nodes["Point Distribute.005"].inputs[4].default_value = rand(10000,-10000)
bpy.data.node_groups["Geometry Nodes.001"].nodes["Point Distribute.001"].inputs[4].default_value = rand(10000,-10000)
print("King Bear!!!")
finaloutput += "BT:King Bear//"
elif(currentbet==7): # Chaos Bear
mainBear.location.y = 400
bearLight.location.y = 400
bgs.location.y = 400
bgsl.location.y = 400
bge.location.y = 500
bgal.location.y = 600
bga.location.y = 600
cr1.location.x = 0
cr2.location.x = 0
chaosHead.location.x = 0
chaosHead.location.y = 0
bpy.data.node_groups["Geometry Nodes.005"].nodes["Point Distribute.001"].inputs[4].default_value = rand(10000,-10000)
print("Chaos Bear!!!")
finaloutput += "BT:Chaos Bear//"
else:
print("Overload: Bear Type Index Overload")
#Changes the Bear Effects
if(currentbee==(-1)): # No Bear Effects
print("No Bear Effects")
elif(currentbee==0): # Different Colored Eyes
coloruno = hsvrgb(False)
colordos = hsvrgb(False)
while(abs(coloruno[0]-colordos[0])<.06):
coloruno = hsvrgb(False)
if(currentbet==6):
randnum = rand(1,0)
while(abs(bpy.data.materials["RightEye"].node_tree.nodes["Principled BSDF"].inputs[0].default_value[0]-coloruno[0])<.15):
coloruno = hsvrgb(False)
if(randnum==1):
bpy.data.materials["RightEye"].node_tree.nodes["Principled BSDF"].inputs[0].default_value = coloruno
else:
bpy.data.materials["LeftEye"].node_tree.nodes["Principled BSDF"].inputs[0].default_value = coloruno
elif(currentbet==7):
randnum = rand(1,0)
while((coloruno[0]+coloruno[1])>1.3):
coloruno = hsvrgb(True)
if(randnum==1):
bpy.data.materials["LeftEye.010"].node_tree.nodes["Principled BSDF"].inputs[17].default_value = coloruno
else:
bpy.data.materials["LeftEye.006"].node_tree.nodes["Principled BSDF"].inputs[17].default_value = coloruno
else:
bpy.data.materials["RightEye"].node_tree.nodes["Principled BSDF"].inputs[0].default_value = coloruno
bpy.data.materials["LeftEye"].node_tree.nodes["Principled BSDF"].inputs[0].default_value = colordos
print("Different Colored Eyes")
finaloutput += "BE:Different Colored Eyes//"
elif(currentbee==1): # Rings
randnum = rand(2,1)
if(randnum==2):
r1.location.x = 0
r1.location.y = 0
r2.location.x = 0
r2.location.y = 0
else:
r1.location.x = 0
r1.location.y = 0
r1.rotation_euler[0] = math.radians(rand(360,0))
r1.rotation_euler[1] = math.radians(rand(360,0))
r1.rotation_euler[2] = math.radians(rand(360,0))
r2.rotation_euler[0] = math.radians(rand(360,0))
r2.rotation_euler[1] = math.radians(rand(360,0))
r2.rotation_euler[2] = math.radians(rand(360,0))
r1.location.z = 27.5599
r2.location.z = 27.5599
if(currentbet!=7):
r1.scale[0] = 28.017 + 10
r1.scale[1] = 28.017 + 10
r1.scale[2] = 28.017 + 10
r2.scale[0] = 20 + 10
r2.scale[1] = 20 + 10
r2.scale[2] = 20 + 10
if(currentbet==5):
r1.scale[0] = 28.017 + 30
r1.scale[1] = 28.017 + 30
r1.scale[2] = 28.017 + 30
r2.scale[0] = 20 + 40
r2.scale[1] = 20 + 40
r2.scale[2] = 20 + 40
bpy.data.materials["DiskMat.001"].node_tree.nodes["RGB"].outputs[0].default_value = hsvrgb(True)
bpy.data.materials["DiskMat.007"].node_tree.nodes["RGB"].outputs[0].default_value = hsvrgb(True)
print("Rings")
finaloutput += "BE:Rings//"
elif(currentbee==2): # Glowing Bear
bpy.data.materials["BearColor"].node_tree.nodes["Principled BSDF"].inputs[18].default_value = 9
bpy.data.materials["BearColor"].node_tree.nodes["Principled BSDF"].inputs[17].default_value = bpy.data.materials["BearColor"].node_tree.nodes["Principled BSDF"].inputs[0].default_value
if(currentbet==2):
bpy.data.materials["BearColor"].node_tree.nodes["Principled BSDF"].inputs[18].default_value = 34
print("Glowing Bear")
finaloutput += "BE:Glowing Bear//"
elif(currentbet==4):
bpy.data.materials["BearColor"].node_tree.nodes["Principled BSDF"].inputs[18].default_value = 0
elif(currentbet==7):
bpy.data.materials["Skincolor"].node_tree.nodes["Principled BSDF"].inputs[18].default_value = 24.2
print("Glowing Bear")
finaloutput += "BE:Glowing Bear//"
else:
print("Glowing Bear")
finaloutput += "BE:Glowing Bear//"
elif(currentbee==3): # Panda Coloring
bpy.data.materials["RightEye"].node_tree.nodes["Principled BSDF"].inputs[0].default_value = bpy.data.materials["BearColor"].node_tree.nodes["Principled BSDF"].inputs[0].default_value
bpy.data.materials["LeftEye"].node_tree.nodes["Principled BSDF"].inputs[0].default_value = bpy.data.materials["BearColor"].node_tree.nodes["Principled BSDF"].inputs[0].default_value
bpy.data.materials["LeftEye.006"].node_tree.nodes["Principled BSDF"].inputs[17].default_value = (1,1,1,1)
bpy.data.materials["LeftEye.010"].node_tree.nodes["Principled BSDF"].inputs[17].default_value = (1,1,1,1)
print("Panda Coloring")
finaloutput += "BE:Panda Coloring//"
elif(currentbee==4): # Translucent Bear
bpy.data.materials["BearColor"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = .85
bpy.data.materials["Eyeshadow.001"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = .877
bpy.data.materials["LeftEye.008"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = .877
bpy.data.materials["RightEye"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = .5
bpy.data.materials["LeftEye"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = .5
bpy.data.materials["Skincolor"].blend_method = 'HASHED'
bpy.data.materials["LeftEye.001"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = 0.583
bpy.data.materials["Skincolor"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = 0
bpy.data.materials["Eyeshadow"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = 0.583
bpy.data.materials["LeftEye.002"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = 0.583
bpy.data.materials["Material"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = 0.417
bpy.data.materials["LeftEye.006"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = .957
bpy.data.materials["LeftEye.010"].node_tree.nodes["Mix Shader.001"].inputs[0].default_value = .957
print("Translucent Bear")
finaloutput += "BE:Translucent Bear//"
elif(currentbee==5): # Solar Eclispse Bear
negative = False
ycord = randD(35,-35,3)
xcord = (math.pow(randD(35,0,4),2))-(math.pow(ycord,2))
xcord = round(xcord,3)
if(xcord<0):
negative = True
xcord = math.sqrt(abs(xcord))
if(negative):
xcord = -xcord
if(currentbet==5):
seshydra.location.x = xcord
seshydra.location.y = ycord
elif(currentbet==7):
ycord = randD(15,-15,3)
xcord = (math.pow(randD(15,0,4),2))-(math.pow(ycord,2))
xcord = round(xcord,3)
if(xcord<0):
negative = True
xcord = math.sqrt(abs(xcord))
if(negative):
xcord = -xcord
schaos.location.x = xcord
schaos.location.y = ycord
else:
ses.location.x = xcord
ses.location.y = ycord
print("Solar Eclispse Bear")
finaloutput += "BE:Solar Eclispse Bear//"
else:
print("Overload: Bear Type Index Overload")
#Changes the Background Effects
if(currentbge==(-1)):
print("No Background Effects")
elif(currentbge==0):
bpy.data.materials["Starssurface.002"].node_tree.nodes["Principled BSDF"].inputs[18].default_value = 27.32
bpy.data.materials["COINMAINcolor.003"].node_tree.nodes["Principled BSDF"].inputs[18].default_value = 44.8
bpy.data.materials["Starssurface.005"].node_tree.nodes["Principled BSDF"].inputs[18].default_value = 47.8
print("Glowing Stars")
finaloutput += "BGE:Glowing Stars//"
elif(currentbge==1):
bpy.data.materials["Starssurface.002"].node_tree.nodes["ColorRamp"].color_ramp.elements[0].color = hsvrgb(True)
bpy.data.materials["Starssurface.002"].node_tree.nodes["ColorRamp"].color_ramp.elements[1].color = hsvrgb(True)
bpy.data.materials["Starssurface.002"].node_tree.nodes["ColorRamp"].color_ramp.elements[2].color = hsvrgb(True)
if(currentbet==7):
bpy.data.materials["Starssurface.005"].node_tree.nodes["ColorRamp.001"].color_ramp.elements[0].color = hsvrgb(True)
bpy.data.materials["Starssurface.005"].node_tree.nodes["ColorRamp.001"].color_ramp.elements[1].color = hsvrgb(True)
bpy.data.materials["Starssurface.005"].node_tree.nodes["ColorRamp.001"].color_ramp.elements[2].color = hsvrgb(True)
#Change the Color Gradient for King Bears, and if diff gradient then add Eth coins.
elif(currentbet==6):
bgs.location.y = 300
bgsl.location.y = 300
bpy.data.node_groups["Geometry Nodes.005"].nodes["Point Distribute.001"].inputs[4].default_value = rand(10000,-10000)
print("Different Stars")
finaloutput += "BGE:Different Stars//"
elif(currentbge==2):
randomnum = randD(.01,.000001,7)
while(abs(.005-randomnum)<=.002):
randomnum = randD(.01,.000001,7)
bpy.data.node_groups["Geometry Nodes.001"].nodes["Point Distribute.001"].inputs[2].default_value = randomnum
bpy.data.node_groups["Geometry Nodes.005"].nodes["Point Distribute.001"].inputs[2].default_value = randomnum
print("Less/More Stars")
finaloutput += "BGE:Less/More Stars//"
elif(currentbge==3):
bgs.location.x = 300
bgsl.location.x = 300
bge.location.x = 300
bgal.location.x = 300
bga.location.x = 300
bgc.location.x = 300
bgcl.location.x = 300
bpy.data.node_groups["GeoNodesCone.001"].nodes["Point Distribute.001"].inputs[4].default_value = rand(10000,-10000 )
if(currentbet==6):
bpy.data.materials["Material.017"].node_tree.nodes["ColorRamp"].color_ramp.elements[0].color = (0.799103,0.708376,0,1)
bpy.data.materials["Material.017"].node_tree.nodes["ColorRamp"].color_ramp.elements[1].color = (1,1,1,1)
bpy.data.materials["Material.017"].node_tree.nodes["ColorRamp"].color_ramp.elements[2].color = (0.005602, 0.015207, 1, 1)
elif(currentbet==7):
bpy.data.materials["Material.017"].node_tree.nodes["ColorRamp"].color_ramp.elements[0].color = (1,0,0,1)
bpy.data.materials["Material.017"].node_tree.nodes["ColorRamp"].color_ramp.elements[1].color = (1,1,1,1)
bpy.data.materials["Material.017"].node_tree.nodes["ColorRamp"].color_ramp.elements[2].color = (0, 0, 0, 1)
print("Light Speed Travel")
finaloutput += "BGE:Light Speed Travel//"
elif(currentbge==4):
bgs.location.x = 300
bgsl.location.x = 300
bge.location.x = 300
bga.location.x = 0
bga.location.y = 0
bpy.data.node_groups["Geometry Nodes.004"].nodes["Point Distribute.002"].inputs[4].default_value = rand(10000,-10000)
bpy.data.node_groups["Geometry Nodes.004"].nodes["Point Distribute.001"].inputs[4].default_value = rand(10000,-10000)
if(currentbet==6):
bpy.data.materials["Starssurface.002"].node_tree.nodes["ColorRamp"].color_ramp.elements[0].color = (0.799103,0.708376,0,1)
bpy.data.materials["Starssurface.002"].node_tree.nodes["ColorRamp"].color_ramp.elements[1].color = (1,1,1,1)
bpy.data.materials["Starssurface.002"].node_tree.nodes["ColorRamp"].color_ramp.elements[2].color = (0.005602, 0.015207, 1, 1)
elif(currentbet==7):
bpy.data.materials["Starssurface.002"].node_tree.nodes["ColorRamp"].color_ramp.elements[0].color = (1,0,0,1)
bpy.data.materials["Starssurface.002"].node_tree.nodes["ColorRamp"].color_ramp.elements[1].color = (1,1,1,1)
bpy.data.materials["Starssurface.002"].node_tree.nodes["ColorRamp"].color_ramp.elements[2].color = (0, 0, 0, 1)
print("Meteor Field")
finaloutput += "BGE:Meteor Field//"
elif(currentbge==5):
bpy.data.node_groups["Geometry Nodes.001"].nodes["Point Distribute.001"].inputs[2].default_value = 0
bpy.data.node_groups["Geometry Nodes.005"].nodes["Point Distribute.001"].inputs[2].default_value = 0
print("Star-Less Night")
finaloutput += "BGE:Star-Less Night//"
else:
print("Overload: Bear Type Index Overload")
#Changes the Background Objects
if(currentbgo==(-1)):
print("No Bear Objects")
else:
for z in range(len(currentbgo)):#Wont display mulobj
if(currentbgo[z]==0):
numstars = rand(5,1)
kknumstar = numstars
mulscaler = []
mulcords = []
mulcolor = []
mulzrot = []
for x in range(numstars):
tempscale = randD(1.5,1,3)
tempinput = cordD(xymidBG,4,tempscale)
mulcords.append((tempinput[0],tempinput[1]))
mulscaler.append(tempscale)
mulcolor.append(hsvrgb(True))
mulzrot.append(math.radians(randD(360,0,2)))
if(numstars>=1):
ss1.location.x = mulcords[0][0]
ss1.location.y = mulcords[0][1]
ss1.scale[0] = mulscaler[0]
ss1.scale[1] = mulscaler[0]
ss1.scale[2] = mulscaler[0]
ss1.rotation_euler[2] = mulzrot[0]
bpy.data.materials["Material.009"].node_tree.nodes["ColorRamp"].color_ramp.elements[0].color = (mulcolor[0])
if(numstars>=2):
ss2.location.x = mulcords[1][0]
ss2.location.y = mulcords[1][1]
ss2.scale[0] = mulscaler[1]
ss2.scale[1] = mulscaler[1]
ss2.scale[2] = mulscaler[1]
ss2.rotation_euler[2] = mulzrot[1]
bpy.data.materials["Material.004"].node_tree.nodes["ColorRamp"].color_ramp.elements[0].color = (mulcolor[1])
if(numstars>=3):
ss3.location.x = mulcords[2][0]
ss3.location.y = mulcords[2][1]
ss3.scale[0] = mulscaler[2]
ss3.scale[1] = mulscaler[2]
ss3.scale[2] = mulscaler[2]
ss3.rotation_euler[2] = mulzrot[2]
bpy.data.materials["Material.006"].node_tree.nodes["ColorRamp"].color_ramp.elements[0].color = (mulcolor[2])
if(numstars>=4):
ss4.location.x = mulcords[3][0]
ss4.location.y = mulcords[3][1]
ss4.scale[0] = mulscaler[3]
ss4.scale[1] = mulscaler[3]
ss4.scale[2] = mulscaler[3]
ss4.rotation_euler[2] = mulzrot[3]
bpy.data.materials["Material.005"].node_tree.nodes["ColorRamp"].color_ramp.elements[0].color = (mulcolor[3])
if(numstars>=5):
ss5.location.x = mulcords[4][0]
ss5.location.y = mulcords[4][1]
ss5.scale[0] = mulscaler[4]
ss5.scale[1] = mulscaler[4]
ss5.scale[2] = mulscaler[4]
ss5.rotation_euler[2] = mulzrot[4]
bpy.data.materials["Material.008"].node_tree.nodes["ColorRamp"].color_ramp.elements[0].color = (mulcolor[4])
print("Shooting Stars-----------------------")
finaloutput += "BGO:Shooting Stars//"
elif(currentbgo[z]==1):
numplan = rand(3,1)
mulscaler = []
mulcords = []
mulcolor = []
mulxrot = []
mulyrot = []
mulseed = []
for x in range(numplan):
tempscale = randD(1.9,.6,3)
tempinput = cordD(xyBG-5,12,tempscale)
mulcords.append((tempinput[0],tempinput[1]))
mulscaler.append(tempscale)
mulcolor.append(hsvrgb(True))
mulxrot.append(math.radians(randD(90,0,2)))
mulyrot.append(math.radians(randD(90,0,2)))
mulseed.append(math.radians(randD(10000,0,3)))
if(numplan>=1):
p1.location.x = mulcords[0][0]
p1.location.y = mulcords[0][1]
p1.scale[0] = mulscaler[0]
p1.scale[1] = mulscaler[0]
p1.scale[2] = mulscaler[0]
bpy.data.materials["Material.010"].node_tree.nodes["Principled BSDF"].inputs[0].default_value = mulcolor[0]
p1.rotation_euler[0] = mulxrot[0]
p1.rotation_euler[1] = mulyrot[0]
bpy.data.materials["Material.007"].node_tree.nodes["Noise Texture.001"].inputs[1].default_value = mulseed[0]
if(numplan>=2):
p2.location.x = mulcords[1][0]
p2.location.y = mulcords[1][1]
p2.scale[0] = mulscaler[1]
p2.scale[1] = mulscaler[1]
p2.scale[2] = mulscaler[1]
bpy.data.materials["Material.011"].node_tree.nodes["Principled BSDF"].inputs[0].default_value = mulcolor[1]
p2.rotation_euler[0] = mulxrot[1]
p2.rotation_euler[1] = mulyrot[1]
bpy.data.materials["Material.011"].node_tree.nodes["Noise Texture"].inputs[1].default_value = mulseed[1]
if(numplan>=3):
p3.location.x = mulcords[2][0]
p3.location.y = mulcords[2][1]
p3.scale[0] = mulscaler[2]
p3.scale[1] = mulscaler[2]
p3.scale[2] = mulscaler[2]
bpy.data.materials["Material.007"].node_tree.nodes["Principled BSDF"].inputs[0].default_value = mulcolor[2]
p3.rotation_euler[0] = mulxrot[2]
p3.rotation_euler[1] = mulyrot[2]
bpy.data.materials["Material.010"].node_tree.nodes["Noise Texture.001"].inputs[1].default_value = mulseed[2]
print("Planets-----------------------")
finaloutput += "BGO:Planets//"
elif(currentbgo[z]==2):
if(currentbge!=5):
tempscale = randD(2.5,1.9,3)
tempcord = cordD(xyBG,19,tempscale)
cs.location.x = tempcord[0]
cs.location.y = tempcord[1]
cs.scale[0] = tempscale
cs.scale[1] = tempscale
cs.scale[2] = tempscale
bpy.data.materials["Starssurface.001"].node_tree.nodes["ColorRamp"].color_ramp.elements[0].color = hsvrgb(True)
print("Up-Close Star-----------------------")
finaloutput += "BGO:Up-Close Star//"
elif(currentbgo[z]==3):
gc.location.x = 0
gcl.location.x = 0
gcl1.location.x = -75
gcl2.location.x = 75
gc.location.y = 0
gcl.location.y = 0
gcl1.location.y = +35
gcl2.location.y = -35
bpy.data.materials["CloudyMaterial"].node_tree.nodes["Noise Texture"].inputs[1].default_value = randD(10000,0,4)
bpy.data.materials["CloudyMaterial"].node_tree.nodes["Principled Volume"].inputs[0].default_value = hsvrgb(True)
print("Gaseous Clouds-----------------------")
finaloutput += "BGO:Gaseous Clouds//"
elif(currentbgo[z]==4):
numholes = rand(3,1)
mulscaler = []
mulcords = []
mulcolor = []
mulyrot = []
mulzrot = []
for x in range(numholes):
tempscaler = randD(2.5,.9,3)
tempcolor = hsvrgb(True)
mulscaler.append(tempscaler)
mulcords.append(cordD(xymidBG,15,tempscaler))
mulcolor.append(tempcolor)
mulyrot.append(math.radians(randD(360,0,2)))
mulzrot.append(math.radians(randD(360,0,2)))
if(numholes>=1):
bpy.data.materials["DiskMat.002"].node_tree.nodes["RGB"].outputs[0].default_value = mulcolor[0]
bpy.data.materials["BlackHole_New.002"].node_tree.nodes["Glass BSDF"].inputs[0].default_value = mulcolor[0]
b1.location.x = mulcords[0][0]
b1.location.y = mulcords[0][1]
b1.scale[0] = mulscaler[0]
b1.scale[1] = mulscaler[0]
b1.scale[2] = mulscaler[0]
b1.rotation_euler[1] = mulyrot[0]
b1.rotation_euler[2] = mulzrot[0]
if(numholes>=2):
bpy.data.materials["BlackHole_New.003"].node_tree.nodes["Glass BSDF"].inputs[0].default_value = mulcolor[1]
bpy.data.materials["DiskMat.003"].node_tree.nodes["RGB"].outputs[0].default_value = mulcolor[1]
b2.location.x = mulcords[1][0]
b2.location.y = mulcords[1][1]
b2.scale[0] = mulscaler[1]
b2.scale[1] = mulscaler[1]
b2.scale[2] = mulscaler[1]
b2.rotation_euler[1] = mulyrot[1]
b2.rotation_euler[2] = mulzrot[1]
if(numholes>=3):
bpy.data.materials["BlackHole_New.004"].node_tree.nodes["Glass BSDF"].inputs[0].default_value = mulcolor[2]
bpy.data.materials["DiskMat.004"].node_tree.nodes["RGB"].outputs[0].default_value = mulcolor[2]
b3.location.x = mulcords[2][0]
b3.location.y = mulcords[2][1]
b3.scale[0] = mulscaler[2]
b3.scale[1] = mulscaler[2]
b3.scale[2] = mulscaler[2]