File:Terraplan7.png

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Terrestric fictional exoplanet, that is also habitable, Earth-like

Summary edit

DescriptionTerraplan7.png	English: Terrestric fictional exoplanet, that is also habitable, Earth-like
Date	15 September 2022
Source	Own work
Author	Merikanto

POV-Ray 3.7 source code

Source of basic code is Michale Horvatsh HPlanet

Github https://github.com/mjhorvath/POVRay-Object-Collection/tree/main/HabitablePlanet

https://isometricland.net/blog/pov-ray-projects/

https://www.gnu.org/licenses/old-licenses/lgpl-2.1.html

This work is licensed under the Creative Commons GNU Lesser General Public License License. To view a copy of this license, visit http://creativecommons.org/licenses/LGPL/2.1/ or send a letter to Creative Commons, 171 Second Street, Suite 300, San Francisco, California, 94105, USA.

// Title: Habitable planet texture include v0.50 // Author: Michael Horvath // Homepage: http://www.geocities.com/Area51/Quadrant/3864/povray.htm // Created: 2008-02-07 // Last Updated: 2008-11-07 // This file is licensed under the terms of the CC-LGPL. // +KFI0 +KFF15 +KC // +k0.5

// ----------------------------------------

//background {color rgb <0.6,0.7,1.0>}

global_settings { assumed_gamma 1.0 }

/*

camera
{
//	orthographic
	location	-z * 36000
	look_at 0 
	angle 33
//	direction	+z * 1024
	direction	+z
	right		x * 4 * image_width/image_height
	up		y * 4
}

/

/*
sky_sphere
{
	pigment
	{
		gradient y
		color_map
		{
			[0.0 rgb <0.6,0.7,1.0>]
			[0.7 rgb <0.0,0.1,0.8>]
		}
	}
}

/

/*
light_source
{
	-z * 149000000
	color rgb 2
	parallel
//	shadowless
	rotate x * 30
	rotate y * 30
}

*/


  

   
// pov-ray planet: rigded multifractal, isosurfece attempt, atmosphere

include "colors.inc"
include "consts.inc"
include "functions.inc"


 
global_settings
{

    #if (version < 3.7) assumed_gamma 1 #end
    max_trace_level 20

default { finish { ambient 0.000002 diffuse 0.000001 reflection 0.0 } }

// Units

declare m = 0.1; // A value of 1 makes the sun's distance ouside POV's  numerical domain.
declare km = 1000*m;
declare mm = 0.001*m;

//    -------------
// -- | Parameters | ------
//    -------------
// Earth parameters

declare TP_EARTH_RADIUS = 6378.137*km;

// Sun parameters

declare TP_SUN_HEADING = 10;
declare TP_SUN_ELEVATION = 30;

declare TP_BRIGHTNESS = 1;
declare TP_SUN_COLOR = White;
declare TP_SUN_APPARENT_APERTURE = 0.5; // Commonly admitted value

// Atmosphere parameters

declare TP_ATMO_BOTTOM = -1*m;

declare TP_RAYLEIGH_FACTOR = 1;
declare TP_RAYLEIGH_DENSITY_MAX = 1;
declare TP_RAYLEIGH_AMOUNT = 1;

declare TP_ATMO_INTERVALS = 3; // Necessary for good integration
declare TP_ATMO_SAMPLES = 3;
declare TP_ATMO_METHOD = 3; // Adaptive

// Default camera parameters

declare TP_DEFCAM_HEIGHT = 2*m; // Let's be tall
declare TP_DEFCAM_HEADING = 0;
declare TP_DEFCAM_ELEVATION = 5; // Let's look up a little
declare TP_DEFCAM_ANGLE = 40;

// hplanet

declare HPlanet_Height_Ratio = 0.005;
declare HPlanet_Water_Ratio = 1/6;
declare HPlanet_Ice_Ratio = 2/3;
declare HPlanet_Planet_Radius =TP_EARTH_RADIUS ;
declare HPlanet_Tilt_Angle = 25;

//#declare HPlanet_Rotate_Angle = clock * 360;

declare HPlanet_Rotate_Angle = clock * 360+180+90;

declare HPlanet_View_Angle = 25;
declare HPlanet_Seed_Value = seed(12345123444);

declare HPlanet_Show_Mode = 3;

include "colors.inc"
include "functions.inc"
include "rand.inc"
include "HPlanet_include.inc"

/*

// Earth

declare _tp_earth = sphere

    0, TP_EARTH_RADIUS
   // pigment {White} // Could be any predefined texture, but normally, the  terrain hides the sphere

               pigment {
           
      //     color rgb <0.9294, 0.7882,0.6863>*0.1
        //   color rgb   <0.9686, 0.8784,0.6627>
       
          
          function {
             
             f_hetero_mf(x,y,z, 0.9, 1.7,12, 0.5, 0.9, 3 )
           //  f_hetero_mf(x/1000,y/1000,z/1000, 0.9, 1.7, 12, 0.5,0.9, 3 )
       //   f_noise3d(x/200,y/200,z/200)
        //      f_ridge(x/500, y/500, z/500, 1, 8, 1, 3,1,1)  
        
       //    f_ridged_mf(x/1000, y/1000, z/1000, 0.5, 4, 13, 3, 5, 1)*-1
          }
          
           scale TP_EARTH_RADIUS
      //  agate
        //  granite
        //  scale 3
          octaves 14
        pigment_map 
        {  
                [0.0 color rgb <0.0,0.6,0.2>/5   ]
           // [0.5 color rgb <0.9,0.8,0.7>   ] 
                 [0.5 colour rgb <216, 137, 105>/128 ]
          
            [0.51 color rgb <0.0,0.0,0.3>   ]      
        [1.0 color rgb <0.0,0.0,0.20>   ]  
  
      
     
          
      
        }
          
     //    Desert0
  //        scale 4
     
          } // ... pigment
          
          
          
          normal {
          
           function {
                    f_hetero_mf(x,y,z, 0.9, 1.7,12, 0.5, 0.9, 3 ) *0.5
         
         //     f_ridged_mf(x/1000, y/1000, z/1000, 0.5, 4, 13, 3, 5, 1)*-1
           }                                         
           
                      scale TP_EARTH_RADIUS    
                      
                    bump_size 2  
      //  agate
        //  granite
        //  scale 3
          octaves 14
           
           
          }
          
             
             
         
         
         
             
             
       
       
            finish {
               reflection 0.1
               diffuse 0.2
            //   specular 0.05  
             //  phong 0.05
         }    
               
             
             
      rotate y*180
    
  //  translate -TP_EARTH_RADIUS*y

/declare fn_Pigm=function {

   pigment {
 //    granite  
 function {
   //  f_hetero_mf(x,y,z, 0.9, 1.7,12, 0.5, 0.9, 3 ) *0.5
       f_ridged_mf(x/1000, y/1000, z/1000, 0.5, 4, 13, 3, 5, 1)*-1
     }
     color_map {
       [0 color rgb 0]
       [1 color rgb 1]
     }
   }
 }

declare _tp_earth = object {

   isosurface {
       
       function {
           f_sphere(x, y, z, 1) -
           fn_Pigm(x, y, z).gray*0.0001
           }
       
       }    
   
   pigment {
   //    color rgb <0,0.35,0>      
         
               function {
        //   f_sphere(x, y, z, 1) -
           fn_Pigm(x, y, z).gray
           }  
                 pigment_map 
        {  
                [0.0 color rgb <0.0,0.6,0.2>/5   ]
           // [0.5 color rgb <0.9,0.8,0.7>   ] 
                 [0.5 colour rgb <216, 137, 105>/128 ]
          
            [0.51 color rgb <0.0,0.0,0.3>   ]      
        [1.0 color rgb <0.0,0.0,0.20>   ]  
  
      
     
          
      
        }
   
       }
   
    
   finish {  
   diffuse 0.9
//   ambient 1
 //  emission 1
   } 
   
   scale  TP_EARTH_RADIUS

}
// Sun

declare TP_SUN_DISTANCE = 10*TP_EARTH_RADIUS; // Far enough. Actual  distance in the scene is not very critical, as the light ays are parallel
declare TP_SUN_RADIUS =

TP_SUN_DISTANCE*tan(radians(TP_SUN_APPARENT_APERTURE/2));

declare _tp_basic_sun = light_source

  <0, 0, 0>
  color rgb TP_SUN_COLOR*TP_BRIGHTNESS
  looks_like {sphere{0, TP_SUN_RADIUS pigment{Yellow} finish {diffuse 0

ambient 1}}}

  translate TP_SUN_DISTANCE*z
  parallel point_at -z
  rotate -TP_SUN_ELEVATION*x
  rotate TP_SUN_HEADING*y

}
// Atmosphere: density

declare TP_BASE_RAYLEIGH_POWER = 6.7;  // Constant
declare _tp_rayleigh_power = TP_BASE_RAYLEIGH_POWER*TP_RAYLEIGH_FACTOR;

//#declare TP_ATMO_THICKNESS = 50*km;

declare TP_ATMO_THICKNESS = 50*km;declare _tp_rayleigh_density = density

    function
    {

//TP_RAYLEIGH_DENSITY_MAX*exp(-_tp_rayleigh_power*(sqrt(x*x+(y+TP_EARTH_RADIUS)*(y+TP_EARTH_RADIUS)+z*z)
//- TP_EARTH_RADIUS - TP_ATMO_BOTTOM)/TP_ATMO_THICKNESS)

TP_RAYLEIGH_DENSITY_MAX*exp(-_tp_rayleigh_power*(sqrt(x*x+(y)*(y)+z*z)

- TP_EARTH_RADIUS - TP_ATMO_BOTTOM)/TP_ATMO_THICKNESS)

}
// Atmosphere: scattering color

declare TP_LAMBDA_RED = 650;   // nanometres
declare TP_LAMBDA_GREEN = 555; // nanometres
declare TP_LAMBDA_BLUE = 460;  // nanometres
declare TP_RAYLEIGH_SCATTERING_COLOR = rgb

<pow(TP_LAMBDA_BLUE/TP_LAMBDA_RED, 4), pow(TP_LAMBDA_BLUE/TP_LAMBDA_GREEN,  
4), 1>;
// Atmosphere: media

declare _tp_rayleigh_media = media

    method TP_ATMO_METHOD
    intervals TP_ATMO_INTERVALS
    samples TP_ATMO_SAMPLES
    scattering
    {

	RAYLEIGH_SCATTERING
	color TP_RAYLEIGH_AMOUNT*TP_RAYLEIGH_SCATTERING_COLOR/TP_ATMO_THICKNESS
	extinction 1 // The only physically accurate value

    }
    density {_tp_rayleigh_density}

}
// Atmosphere: shell

declare _tp_rayleigh_atmosphere = difference

    sphere {0, TP_EARTH_RADIUS + TP_ATMO_BOTTOM + TP_ATMO_THICKNESS

//translate -TP_EARTH_RADIUS*y
}

    sphere {0, TP_EARTH_RADIUS + TP_ATMO_BOTTOM

//     translate  
//-TP_EARTH_RADIUS*y
}

    hollow
    pigment {rgbt 1}
    interior {media{_tp_rayleigh_media}}

}
// Default camera

declare _tp_default_camera = camera

    location 0
    angle TP_DEFCAM_ANGLE
    right     x*image_width/image_height
    look_at   z
    rotate -TP_DEFCAM_ELEVATION*x
    rotate TP_DEFCAM_HEADING*y
    translate TP_DEFCAM_HEIGHT*y // Could use trace() to make sure we are  above the surface. But no terrain yet ...

 #declare Clouds3x = pigment {
   //marble
   dents
   turbulence 6  
   octaves 32
   lambda 4
  // omega 0.75  
  scale 10   
   
   color_map {
          [0.0 color White*1.5 filter 0]
     [0.05 color White filter 1 ]
      [0.95 color White filter 1 ]
     [1.0 color White*1.4 filter 0]
     
   }
 }

 #declare CloudArea = texture {
   pigment {
     gradient y  
    //   onion
//     sine_wave
  
    turbulence 3  
    octaves 15   
    scale 1    
    
    //lambda 2
   // omega 2
    
    scale 5
     //scale 0.2
      
   //  scale <10,10,10>
     
     pigment_map {  
        
        [0.00 Clouds3x scale 0.1]
       
    //         [0.00 Clouds3 scale 1]
      [0.2 Clouds3x]
       [0.50 Clouds3x scale 0.01]
       [0.8 Clouds3x scale 1]
       [1.00 Clouds3x scale 0.5]

     }
   }

  finish { 
  ambient 0.000002
   
  diffuse 0.9
 // phong 0.1
 // specular 0.05
 reflection 0.1
  
  }
 
 
 }

declare CloudsLayer1 = sphere

  {
   0, 1.001
 
   texture {
      CloudArea
   }
 
  }    
  
  /*

declare Planet_Surf1=function(x,y,z)

    pigment {   
                   HPlanet_Final_pigment
                   }

*/

//--------------------------------------------------------------

declare Planet1= object {

			sphere
			{
				0, 1
				pigment {HPlanet_Final_pigment}
		//	pigment {color rgb Red}
				rotate y * HPlanet_Rotate_Angle
				rotate x * HPlanet_Tilt_Angle
				rotate y * HPlanet_View_Angle
			}

          /*
           normal {
            
          function {
                  Planet_Surf1(x,y,z)
                } 
           
           }
           */

			scale HPlanet_Planet_Radius   
			finish { 
			diffuse 0.4
		//	ambient 1
			}
		}

 

 

   

  

   

   
// object {Planet1}

 

 
//sun


object {_tp_basic_sun}              
//  planet
union {

object {
Planet1
}

//object {_tp_earth
//rotate x*45
//}
object {_tp_rayleigh_atmosphere}

                             
object {CloudsLayer1 scale 1.00001*TP_EARTH_RADIUS  }

     
rotate y*-90
}       

  

  
//camera {_tp_default_camera}

   
camera {
location <1,1,0>*1200000
look_at <0,0,0>
// look_at <0,-TP_EARTH_RADIUS,0>
}

HPlanet.inc plugin from github

// Title: Habitable planet texture include v0.50 // Author: Michael Horvath // Homepage: http://www.geocities.com/Area51/Quadrant/3864/povray.htm // Created: 2008-02-07 // Last Updated: 2008-11-07 // This file is licensed under the terms of the CC-LGPL. // +KFI0 +KFF15 +KC // +k0.5

local HPlanet_Crackle_pigment = pigment

{
	crackle form <1,0,0>
	color_map
	{
		[0 rgbt 0]
		[1 rgbt 1]
	}
	scale 2
	sine_wave
}

local HPlanet_Black_pigment = pigment {color rgbt 0}local HPlanet_Granite_pigment = pigment

{
	granite
//	poly_wave 2
	color_map
	{
		[0 rgbt 0]
		[1 rgbt 1]
	}
	scale 10
	scale .5
	warp
	{
		turbulence	.75
		lambda		3
	}
	scale .5
}

local HPlanet_Altitude_function = function

{
	pigment
	{
		HPlanet_Crackle_pigment
		#local HPlanet_WarpCount = 0;
		#local HPlanet_WarpTotal = 512;
		#while (HPlanet_WarpCount < HPlanet_WarpTotal)
			warp
			{
				black_hole VRand_On_Sphere(HPlanet_Seed_Value), Rand_Beta(1,6,HPlanet_Seed_Value)
				falloff		3/6
				strength	3/6
				inverse
			}
			#local HPlanet_WarpCount = HPlanet_WarpCount + 1;
		#end
		warp
		{
			turbulence	1/8		//.125
			lambda		3		//3
//			octaves		20
//			omega		SetOmega
		}
		pigment_map
		{
			[0 HPlanet_Black_pigment]
			[1 HPlanet_Granite_pigment]
		}
	}
}

local HPlanet_Altitude_function_b = function

{
	pigment
	{
		function {HPlanet_Altitude_function(x,y,z).transmit}
		color_map
		{
			[0 rgbt 0]
			[1 rgbt 1]
		}
		#local HPlanet_WarpCount = 0;
		#local HPlanet_WarpTotal = 1024;
		#while (HPlanet_WarpCount < HPlanet_WarpTotal)
			warp
			{
				black_hole VRand_On_Sphere(HPlanet_Seed_Value), Rand_Beta(1,12,HPlanet_Seed_Value)
				falloff		6/6
				strength	6/6
				inverse
			}
			#local HPlanet_WarpCount = HPlanet_WarpCount + 1;
		#end
	}
}

declare HPlanet_Latitude_function = function

{
	pigment
	{
		function {f_ph(x,y,z) / pi}
		color_map
		{
			[0/2 rgbt 1]
			[1/2 rgbt 0]
			[2/2 rgbt 1]
		}
	}
}

declare HPlanet_Altitiude_color_map = color_map

{
	[0								rgb <000,000,050,>/255]		//blue
	[HPlanet_Water_Ratio * 97.5/100					rgb <000,000,050,>/255]		//blue
	[HPlanet_Water_Ratio * 1/1					rgb <034,180,180,>/255]		//teal
	[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 0/6		rgb <067,084,029,>/255]		//light green
	[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 2/6		rgb <040,066,018,>/255]		//dark green
	[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 3/6		rgb <084,076,037,>/255]		//dark tan
	[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 4/6		rgb <132,114,076,>/255]		//light tan
	[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 4/6		rgb <255,255,255,>/255]		//white
	[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 6/6		rgb <255,255,255,>/255]		//white
}

declare HPlanet_Altitiude_color_map_no_land = color_map

{
	[0								rgb <000,000,050,>/255]		//blue
	[HPlanet_Water_Ratio * 97.5/100					rgb <000,000,050,>/255]		//blue
	[HPlanet_Water_Ratio * 1/1					rgb <034,180,180,>/255]		//teal
	[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 0/3		rgb <067,084,029,>/255]		//light green
	[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 3/3		rgb <067,084,029,>/255]		//light green
}

declare HPlanet_Altitiude_color_map_no_water = color_map

{
	[0								rgb <067,084,029,>/255]		//light green
	[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 0/2		rgb <067,084,029,>/255]		//light green
	[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 1/3		rgb <040,066,018,>/255]		//dark green
	[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 1/2		rgb <084,076,037,>/255]		//dark tan
	[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 2/3		rgb <132,114,076,>/255]		//light tan
	[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 3/3		rgb <132,114,076,>/255]		//light tan
}

declare HPlanet_Altitiude_color_map_ice_only = color_map

{
	[0								rgb <132,114,076,>/255]		//light tan
	[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 2/3		rgb <132,114,076,>/255]		//light tan
	[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 2/3		rgb <255,255,255,>/255]		//white
	[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 3/3		rgb <255,255,255,>/255]		//white
}

declare HPlanet_Vegetation_color_map = color_map

{
	//rgb <253,234,157,>/255	//blond
	[  00/12		rgb <060,056,029,>/255]		//olive
	[  03/12		rgb <060,056,029,>/255]		//olive
	[  04/12		rgb <040,066,018,>/255]		//dark green
	[ 5.5/12		rgb <067,084,029,>/255]		//green
	[  06/12		rgb <071,059,037,>/255]		//brown
	[6.75/12		rgb <180,148,103,>/255]		//blond
	[8.25/12		rgb <180,148,103,>/255]		//blond
	[  09/12		rgb <071,059,037,>/255]		//brown
	[ 9.5/12		rgb <067,084,029,>/255]		//green
	[  12/12		rgb <040,066,018,>/255]		//dark green
}

declare HPlanet_Latitude_pigment = pigment

{
	function {HPlanet_Latitude_function(x, y, z).transmit}
	color_map {HPlanet_Altitiude_color_map}
}

declare HPlanet_Vegetation_pigment = pigment

{
	function {HPlanet_Altitude_function_b(x, y, z).transmit + 1 - HPlanet_Latitude_function(x, y, z).transmit}
	color_map {HPlanet_Vegetation_color_map}
	warp
	{
		turbulence	1/16		//.125
		lambda		3		//3
//		octaves		20
//		omega		SetOmega
	}
}

declare HPlanet_Water_pigment = pigment

{
	function {HPlanet_Altitude_function_b(x, y, z).transmit}
	color_map {HPlanet_Altitiude_color_map_no_land}
}
// version 1

declare HPlanet_Land_pigment = pigment

{
	function {HPlanet_Altitude_function(x, y, z).transmit}
	color_map {HPlanet_Altitiude_color_map_no_water}
	warp
	{
		turbulence	1/8		//.125
		lambda		3		//3
//		octaves		20
//		omega		SetOmega
	}
}
// version 2

declare HPlanet_Land_pigment = pigment

{
	function {min(HPlanet_Altitude_function(x, y, z).transmit + HPlanet_Latitude_function(x, y, z).transmit * HPlanet_Ice_Ratio, 1)}
	color_map {HPlanet_Altitiude_color_map_no_water}
	warp
	{
		turbulence	1/8		//.125
		lambda		3		//3
//		octaves		20
//		omega		SetOmega
	}
}

declare HPlanet_Average_pigment = pigment

{
	average
	pigment_map
	{
		[1 HPlanet_Land_pigment]
		[2 HPlanet_Vegetation_pigment]
	}
}
// version 1

declare HPlanet_Ice_pigment = pigment {color rgb 1}

// version 2

declare HPlanet_Ice_pigment = pigment

{
	function {min(HPlanet_Altitude_function(x, y, z).transmit + HPlanet_Latitude_function(x, y, z).transmit * HPlanet_Ice_Ratio, 1)}
	pigment_map
	{
		[0							HPlanet_Average_pigment]
		[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 2/3	HPlanet_Average_pigment]
		[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 2/3	color rgb 1]
		[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 3/3	color rgb 1]
	}
	warp
	{
		turbulence	1/8		//.125
		lambda		3		//3
//		octaves		20
//		omega		SetOmega
	}	
}
// version 1

declare HPlanet_Combined_pigment = pigment

{
	function {HPlanet_Altitude_function_b(x, y, z).transmit}
	pigment_map
	{
		[0			HPlanet_Water_pigment]
		[HPlanet_Water_Ratio	HPlanet_Water_pigment]
		[HPlanet_Water_Ratio	HPlanet_Land_pigment]
		[1			HPlanet_Land_pigment]
	}
}
// version 2

declare HPlanet_Combined_pigment = pigment

{
	function {HPlanet_Altitude_function_b(x, y, z).transmit}
	pigment_map
	{
		[0			HPlanet_Water_pigment]
		[HPlanet_Water_Ratio	HPlanet_Water_pigment]
		[HPlanet_Water_Ratio	HPlanet_Average_pigment]
		[1			HPlanet_Average_pigment]
	}
}
// version 1

declare HPlanet_Final_pigment = pigment

{
	function {min(HPlanet_Altitude_function(x, y, z).transmit + HPlanet_Latitude_function(x, y, z).transmit * HPlanet_Ice_Ratio, 1)}
	pigment_map
	{
		[0							HPlanet_Combined_pigment]
		[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 2/3	HPlanet_Combined_pigment]
//		[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 3/3	HPlanet_Combined_pigment]
		[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 2/3	HPlanet_Ice_pigment]
		[HPlanet_Water_Ratio + (1 - HPlanet_Water_Ratio) * 3/3	HPlanet_Ice_pigment]
	}
}
// version 2
//#declare HPlanet_Final_pigment = HPlanet_Combined_pigment;

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	Date/Time	Thumbnail	Dimensions	User	Comment
current	13:56, 15 September 2022		3,600 × 2,700 (3.83 MB)	Merikanto (talk \| contribs)	Uploaded own work with UploadWizard

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PNG file comment	Render Date: 2022-09-15 13:51:03Z Platform: x86_64-pc-win Compiler: msvc 10
File change date and time	13:51, 15 September 2022
Software used	POV-Ray 3.7.0

File:Terraplan7.png

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copyright license

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inception

15 September 2022

media type

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