File:Fictional planet system Monni 1 1 1 1.png

Size of this preview: 800 × 267 pixels. Other resolutions: 320 × 107 pixels | 640 × 213 pixels | 1,024 × 341 pixels | 2,400 × 800 pixels.

Original file ‎(2,400 × 800 pixels, file size: 197 KB, MIME type: image/png)

Captions

English

Monni planet system

Summary

Description	English: Fictional planetary system to education purposes. Solar twin star Monni has 11 planets. Most massive giant planet has two big moons. One planet orbits just outside to HZ, but can harbor life, if is not ocean covered.
Date	14 February 2024
Source	Own work
Author	Merikanto

////////////////////////// // // planet system rendering test v 2.1 with POV-Ray 3.8 for linux // // 14.01.2024 v2b rel 0000.0007 // ////////////////////////////

include "functions.inc"
include "rand.inc"

camera { location <0,0,10>*5 look_at 0 up -3/10

   right -10/10

}

light_source { <-10000,0,10000>*10000 color rgb <1,1,1>*2 }

declare samples1=2;

macro star2(xloc1, yloc1, zloc1,size1,color1, color2)

union {

 sphere {
 0, 1
 pigment { color rgb color2 }
 finish {ambient color2*2}
    scale 0.25
   }

sphere {
 0, 1
 pigment { color rgbf 1 }
 hollow
 interior {
   media {
     emission 10
     method 3
     intervals 2
     samples samples1
    // emission_type 2
    // emission_extinction 2
     density {

// spherical

//function {exp(-sqrt(x*x+y*y+z*z))}

           function { 1/(3000)*pow( sqrt(x*x+y*y+z*z),-4 ) *f_granite(atan(x/y),atan(y/x),atan(z/x))
            *pow( sqrt(x*x+y*y+z*z),-4 )
           }    
               
 //  function {pow(1*f_spherical(x,y,z),4)*0.33 }

// scallop_wave

//    function {pow( (2*(sqrt(x*x+y*y+z*z))) ,-1) } 
     //    function {pow(f_spherical(x,y,z),2)*f_wrinkles(x*1000,y*1000,z*1000) }  
         //      function {f_wrinkles(x*10,y*10,z*10) }

       color_map {
         [ 0.0 rgb 0.0 ] 
      //      [ 0.2 rgb color1*0.05   ]
       //  [ 0.6 rgb  color1*0.5 ]
         [ 1.0 rgb  color2*2 ]
       }
     }
   }

 // absorbing stuff#declare samples1=30;

} scale size1

	translate x*xloc1

translate y*yloc1 translate z*zloc1 } // juunion

end

macro print_string(str1, col1,size1, x1, y1)

 text {
   ttf "timrom.ttf" str1 0.1, 0
   pigment { color rgbt col1 } 
   finish {ambient 1}
   scale size1
   translate x*x1
   translate y*y1
   translate z*0.2 
   
 }

end

macro print_caption(str1, x1, y1, skale1, color1)

 text {
   ttf "timrom.ttf" str1 0.1, 0
   pigment { color rgbt color1 } 
       finish {ambient 1}
   scale 2*skale1
   translate x*x1
   translate y*y1
   translate z*0.3 
   
 }

end

macro star01 (xloc1, yloc1, zloc1, size1, name1, color1, color2)

object { sphere {0,1} texture { pigment { wrinkles scale 1/10 turbulence 0.5 color_map { [0 color rgb color1] [1 color rgb color2] } }

finish { diffuse 0.6 ambient 1} }

scale size1

translate x*xloc1 translate y*yloc1 translate z*zloc1

}

end

macro planet01 (xloc1, yloc1,zloc1, size1, name1, color1, color2)

object { sphere {0,1} texture { pigment { wrinkles scale y/3 color_map { [0 color rgb color1] [1 color rgb color2] } }

finish { diffuse 0.6 ambient 1}

}

scale size1 translate x*xloc1 translate y*yloc1 translate z*zloc1 }

end

declare pig_clouds_1= pigment {

 wrinkles 
//omega 0.5

//lambda 0.5 scale 1/5

 turbulence 1

scale 3

warp { turbulence 0.5}

scale 1/3

scale 10

warp { turbulence 0.5}

scale 1/10 }

declare clouds_1= object {

#declare randi1= SRand(0) ;
#declare randi2= SRand(1) ;
#declare randi3= SRand(2) ;
#declare randi4= SRand(3) ;

sphere {0,1.005} texture {

pigment {
 //pig_clouds_1
   wrinkles 
  // granite
   warp { turbulence 0.5 }
   turbulence randi1 
   turbulence 0.5
   scale 1/2
   rotate x*randi1*180
       rotate y*randi1*360
   color_map {
       [0 color rgbt <1,1,1,1>]
      [0.3 color rgbt <1,1,1,1>]   
  [1 color rgbt  <1,1,1,0>*1]

}
}

//   normal { pigment_pattern { pig_clouds_1 } 0.1 }
 finish { ambient 0 diffuse 0.42 brilliance 0.4}

} }

declare clouds_2= object {

#declare randi1= SRand(0) ;
#declare randi2= SRand(1) ;
#declare randi3= SRand(2) ;
#declare randi4= SRand(3) ;

sphere {0,1.002} texture {

pigment {
 //pig_clouds_1
   wrinkles 
  // granite

scale 0.1

  warp { turbulence 1 }

scale 10

scale z/6
   turbulence randi1 
 //  turbulence 0.5
   scale 1/2
   rotate x*randi1*180
       rotate y*randi1*360
   color_map {
       [0 color rgbt <1,1,1,1>]
  //    [0.3 color rgbt <1,1,1,1>]   
  [1 color rgbt  <1,1,1,0>*1]

}
}

//   normal { pigment_pattern { pig_clouds_1 } 0.1 }
 finish {

   ambient 0 diffuse 0.42 brilliance 0.4 phong 0.05 phong_size 1 specular 0.01 
 metallic
   }

} }

declare atmos_1 = object

{ sphere {0,1 }

 pigment{ rgbt 1 }
   hollow
interior{ //-----------
media{
 emission <-0.4,0.7,1>*0
 scattering{ 3, 
 
 <0.24, 0.47, 1>*15 // rayleigh atm!
 
 
             extinction  5 }
 density{ 
 spherical

// poly_wave 6.7

 poly_wave 6
   color_map {
    [0.0 rgb 0.0]//

    [1.0 rgb 1]//
    }
   } 
 } 
}

//scale 2.7*0.9 scale 1.75 }

declare rings_1=object {

#declare randi1= SRand(0) ;
#declare randi2= SRand(1) ;
#declare randi3= SRand(2) ;
#declare randi4= SRand(3) ;
 torus { 2, 0.5 scale y/100 
 

  texture {
  pigment { 
   
   //onion
   //function {f_onion(x,y,z)}
   function {f_granite(f_onion(x,y,z),randi1,randi2) }
  poly_wave 2
  color_map {
  
   [0 color rgbt <1,1,1,1> ] 
  [1 color rgbt <1,1,1,0.5>*1 ] }
  
  }
  }
   finish {diffuse 0.3 phong 0.1 specular 0.01 }
  
  }

} // rings

macro planet_base_1 (xloc1, yloc1,zloc1, size1, type1, inclination1)

#declare randi1= SRand(0) ;
#declare randi2= SRand(1) ;
#declare randi3= SRand(2) ;
#declare randi4= SRand(3) ;

object { sphere {0,1}

#if(type1="asteroids0")

texture {

pigment { color rgbt 1

}

#end

#if(type1="empty")

texture {

pigment { color rgbt 1

}

#end

#if (type1="basic") #declare type1="base"; #end #if (type1="basic2") #declare type1="base2"; #end

#if(type1="base")

texture {

pigment {

wrinkles scale 1/3

turbulence randi2/5 rotate z*inclination1

color_map { [0 color rgb <0.741176, 0.486275, 0.423529>] [1 color rgb <0.305882, 0.121569, 0.0862745>]

} }

finish { diffuse 0.6 ambient 0 phong 0.1}

}

#end

#if(type1="base2")

texture {

pigment {

wrinkles //agate //bozo //granite

turbulence 1 scale 1/2

scale y/3

warp {turbulence 0.5 }

turbulence randi2/5 rotate z*inclination1

color_map { // [0 color rgb <0.741176, 0.486275, 0.423529>*0.8] // [0.5 color rgb <0.741176, 0.486275, 0.423529>] [0.0 color rgb <1,0.5,0>] [1 color rgb <1,1,1>]

} }

finish { diffuse 0.6 ambient 0 phong 0.1}

}

texture { pigment {color rgbt <0.5,0.5,0.5,0.5>} finish { phong 0.1 specular 0.05 } }

#end

#if (type1="stone") #declare type1="rock"; #end

#if (type1="stone2") #declare type1="rock2"; #end

#if(type1="rock")

texture {

pigment {

       function {

//( f_hetero_mf(x,y,z, 0.9, 1.7,13, 0.5, 0.9, 3 )*4/10* (f_ridged_mf(x*3,y*3,z*3,0.5,2,64,-0.7,0.8, 2)) *0.25)

0.8*(f_wrinkles(x*5,y*5,z*5)*0.5+f_granite(x,y,z)*0.5) +0.2*f_granite(x*10,y*10,z*10)

       scale 4

warp { turbulence 0.3} // scale 1/3 octaves 60

turbulence randi2/5 rotate z*inclination1

color_map { [0 color rgb <0.807843, 0.588235, 0.415686>*1.0-randi2/10]

[1 color rgb <0.521569, 0.431373, 0.337255>*0.5+randi3/10]

} }

finish { diffuse 0.6 ambient 0 phong 0.05 specular 0.1 }

}

#end

#if(type1="rock2")

texture {

pigment { //granite wrinkles color_map { [0 color rgb <0.796078, 0.584314, 0.458824> ] [1 color rgb <0.25098, 0.258824, 0.301961>] }

}

finish { diffuse 0.6 ambient 0 phong 0.05 specular 0.1 }

normal { granite bump_size 0.1 scale 0.2}

}

#end

#if (type1="ocean") #declare type1="water"; #end #if(type1="water")

texture {

pigment {

wrinkles scale y/3 turbulence randi2/5 rotate z*inclination1

color_map { [0 color rgb <0.239216, 0.380392, 0.568627>] [1 color rgb <0.960784, 0.992157, 0.992157>] } }

finish { diffuse 0.6 ambient 0}

}

#end

#if(type1="ice")

texture {

pigment {

wrinkles //scale y/3 // turbulence randi2/5 rotate z*inclination1

color_map { [0 color rgb 1] [1 color rgb 0.9] } }

finish { diffuse 0.6 ambient 0}

}

#end

#if (type1="minineptune") #declare type1="gasdwarf"; #end

#if (type1="minineptune2") #declare type1="gasdwarf2"; #end

#if(type1="gasdwarf")

texture {

pigment {

function { f_granite (y,randi1*f_wrinkles(x,y,z), randi2)}

rotate z*inclination1

color_map { [0 color rgb <0.670588, 0.866667, 0.894118>] [1 color rgb <0.254902, 0.72549, 0.792157>] } }

finish { diffuse 0.6 ambient 0}

}

#end

#if(type1="gasdwarf2")

texture {

pigment {

//function { f_granite (y,randi1*f_wrinkles(x,y,z), randi2)} function { f_wrinkles (0,y+randi1,0) }

scale 10 warp { turbulence 0.5} scale 1/10

rotate z*inclination1

color_map { [0 color rgb <0.15,1,1>*1] [1 color rgb <0.15,0.15,1>*1] } }

finish { diffuse 0.6 ambient 0 phong 0.01 }

}

#end

#if(type1="neptune")

texture {

pigment {

//granite function { f_granite (y,randi1, randi2)} scale 10 warp { turbulence 0.5} scale 1/10

scale y/3 // turbulence randi2/5 rotate z*inclination1

color_map { [0 color rgb <0.827451, 0.960784, 0.968627>] [1 color rgb <0.662745, 0.819608, 0.87451>] } }

finish { diffuse 0.6 ambient 0}

}

#end

#if(type1="saturn")

texture {

pigment {

//wrinkles function { f_granite (y,randi1, randi2)}

scale 10 warp { turbulence 0.5} scale 1/10

// turbulence randi2/5 rotate z*inclination1

// scale y/5

color_map { [0 color rgb <0.941176, 0.827451, 0.529412>] [1 color rgb <0.701961, 0.592157, 0.407843>] } }

finish { diffuse 0.6 ambient 0}

}

#end

#if (type1="gasgiant") #declare type1="gas"; #end

#if (type1="giant") #declare type1="gas"; #end

#if (type1="jupiter") #declare type1="gas"; #end

#if (type1="jovian") #declare type1="gas"; #end

#if(type1="gas")

texture {

pigment {

function { f_agate (y,randi1, randi2)} //wrinkles scale 10 warp { turbulence 0.5} scale 1/10

// turbulence randi2/5 rotate z*inclination1

// scale y/5

color_map { [0 color rgb <0.764706, 0.615686, 0.466667>] [1 color rgb <0.960784, 0.960784, 0.992157>] } }

finish { diffuse 0.6 ambient 0}

}

#end

// objekt modifiers

scale size1 translate x*xloc1 translate y*yloc1 translate z*zloc1 }

end

macro planet_system_1(starx1,starsize1,planetoffset1,radiuscoeff1,dmax1 ,numplanets1, systemname1, names1, distances1, radiuses1, types1, atmoses1, coudeses1, ringeses1)

union {

#declare beginx1=distances1[0]; #declare endx1=distances1[numplanets1-1];

#declare dfx1=log(endx1)-log(beginx1); #declare dkx1=dmax1/dfx1;

#declare nupa1=numplanets1-1; #if (numplanets1=1) #declare nupa1=1; #end

#for (nn,0,nupa1 )

#declare planetx1=distances1[nn]; //#declare planetx1=0nn*0.1;

#declare planetr1=radiuses1[nn]*radiuscoeff1; //#declare planetr1=log(radiuses1[nn])*radiuscoeff1;

#declare dpx1=log(planetx1)-log(beginx1);

#declare sitex1=starx1+starsize1+planetoffset1+dpx1*dkx1;

//#declare sitex2=starx1+starsize1+planetoffset1+nn*dkx1*0.08; //#declare sitex1=sitex2;

#declare type1=types1[nn];

#declare randi1= SRand(0) ; #declare randi2= SRand(1) ; #declare randi3= SRand(2) ; #declare randi4= SRand(3) ;

#declare inclination1=randi1*30; //#declare inclination1=90; #declare inclination2=45;

#if(types1[nn]="asteroids")

object {

intersection { torus {sitex1-starx1, 1 } sphere {x*(sitex1-starx1),6} }

translate x*starx1

rotate x*90

texture { pigment { bozo scale 1/3 //granite

color_map { [0 color rgbt <1,1,1,0> ] [0.25 color rgbt <1,1,1,0> ] [0.25 color rgbt <1,1,1,1>*1 ] [1 color rgbt <1,1,1,1>*1 ] }

}

finish {ambient 1} }

}

#end

object {

planet_base_1 (sitex1, 0,0, planetr1, type1, inclination1)

//rotate x*90

rotate x*inclination2

}

#declare isatm1=atmoses1[nn];

#if (isatm1=1) object { atmos_1 scale planetr1 translate x*sitex1} #end

#if (cloudeses1[nn]=1) object { clouds_2 scale planetr1 rotate z*inclination1 translate x*sitex1} #end

#if (ringeses1[nn]=1) object { rings_1 rotate z*inclination1 rotate x*inclination2 scale 1 scale planetr1 translate x*sitex1}

#end

}

end

macro print_names_1(starx1,starsize1,planetoffset1,numplanets1, names1, col1, size1)

#declare beginx1=distances1[0]; #declare endx1=distances1[numplanets1-1];

#declare dfx1=log(endx1)-log(beginx1); #declare dkx1=dmax1/dfx1;

#for (nn,0,(numplanets1-1) )

#declare planetx1=distances1[nn]; //#declare planetx1=0nn*0.1;

//#declare planetr1=radiuses1[nn]*radiuscoeff1; //#declare planetr1=log(radiuses1[nn])*radiuscoeff1;

#declare dpx1=log(planetx1)-log(beginx1);

#declare sitex1=starx1+starsize1+planetoffset1+dpx1*dkx1;

print_string(names1[nn], col1,size1, sitex1-1, -11)

#end

end

macro tell_sitex_1(num1, numplanets1, distances1, starx1,starsize1,planetoffset1, dmax1)

#declare beginx1=distances1[0]; #declare endx1=distances1[numplanets1-1];

#declare dfx1=log(endx1)-log(beginx1); #declare dkx1=dmax1/dfx1;

#declare planetx1=distances1[num1];

#declare sitex2=starx1+starsize1+planetoffset1+dpx1*dkx1;

#declare planetx2=sitex2;

#declare tell_sitex_1=planetx2;

end

macro asteroid_zone_1(numplanets1, distances1, starx1,dmax1, starsize1,planetoffset1,aa1,aa2)

#declare beginx1=distances1[0]; #declare endx1=distances1[numplanets1-1];

#declare dfx1=log(endx1)-log(beginx1); #declare dkx1=dmax1/dfx1;

#declare dpx1=log(aa1)-log(beginx1); #declare dpx2=log(aa2)-log(beginx1);

#declare rax1=starx1+starsize1+planetoffset1+dpx1*dkx1; #declare rax2=starx1+starsize1+planetoffset1+dpx2*dkx1; #declare rax3=(rax1+rax2)/2; #declare rdx1=rax2-rax1; #declare rdx2=rdx1/2;

#declare arx1=rax3+abs(starx1);

object {

// disc {<starx1,0,0>, <0,0,1>, rax2, rax1} // sphere {0,1 translate x*rax3}

torus {arx1, rdx2 } // disc {0, <1,1,1>, 10, 20} rotate x*90

translate x*starx1 scale z/1000

texture { pigment {

// color rgb 1 bozo scale 1/3

// granite

color_map { [0 color rgbt <1,1,1,0> ] [0.2 color rgbt <1,1,1,0> ] [0.2 color rgbt <1,1,1,1>*1 ] [1 color rgbt <1,1,1,1>*1 ] }

}

finish {ambient 10} } }

end

macro circular_orbit_1(aa1, color1, numplanets1, distances1, starx1,dmax1, starsize1,planetoffset1)

#declare beginx1=distances1[0]; #declare endx1=distances1[numplanets1-1];

#declare dfx1=log(endx1)-log(beginx1); #declare dkx1=dmax1/dfx1;

#declare dpx1=log(aa1)-log(beginx1);

#declare rax1=starx1+starsize1+planetoffset1+dpx1*dkx1;

#declare arx1=rax1+abs(starx1);

object {

torus {arx1, 0.1 }

rotate x*90

translate x*starx1 scale z/1000

texture { pigment {

color rgbt color1

}

finish {ambient 10} } }

end

macro color_zone_1(numplanets1, distances1, starx1,dmax1, starsize1,planetoffset1,aa1,aa2, color1)

#declare beginx1=distances1[0]; #declare endx1=distances1[numplanets1-1];

#declare dfx1=log(endx1)-log(beginx1); #declare dkx1=dmax1/dfx1;

#declare dpx1=log(aa1)-log(beginx1); #declare dpx2=log(aa2)-log(beginx1);

#declare rax1=starx1+starsize1+planetoffset1+dpx1*dkx1; #declare rax2=starx1+starsize1+planetoffset1+dpx2*dkx1; #declare rax3=(rax1+rax2)/2; #declare rdx1=rax2-rax1; #declare rdx2=rdx1/2;

#declare arx1=rax3+abs(starx1);

object {

torus {arx1, rdx2 } // disc {0, <1,1,1>, 10, 20} rotate x*90

translate x*starx1 scale z/1000

texture { pigment { rgbt color1 }

finish {ambient 11} } }

end

///////// parameters of planet system

// // fictional planet system: stargen seed 1, mass 1, 0ne planat transformet to asteroid belt, two fictional moons // // https://fast-times.eldacur.com/cgi-bin/StarGen.pl //

declare numplanets1=11;

declare systemname1="Monni";

declare names1=array[numplanets1]{"1","2", "3", "4","5","6" , "7","8","9", "A","B" }

declare distances1=array[numplanets1]{0.356,0.507,0.751, 1.110,2.060,3.762 ,7.338,16.957,24.027, 42.803,49.947 }

declare radiuses1=array[numplanets1]{ 0.523,0.682,0.562, 1.347,1.051,6.516 , 12.604,9.560,2.512, 1.240,0.366 }

declare types1=array[numplanets1]{ "rock","rock","rock", "ocean","null","saturn" , "jupiter","jupiter","gasdwarf", "ice","ice" }

declare atmoses1=array[numplanets1]{0,0,0, 0,0,0, 0,0,0, 0,0}
declare cloudeses1=array[numplanets1]{0,0,0, 0,0,0, 0,0,0, 0,0}
declare ringeses1=array[numplanets1]{0,0,0, 0,0,1, 0,0,0, 0,0}

declare starcolor1 = <1.0,0.637,0.34>;
declare starcolor2 = <1.0,0.637,0.34>*0.95;

declare starx1=-40;
declare starsize1 =5.0;
declare planetoffset1=starsize1*0.2;
declare radiuscoeff1=0.3;
declare dmax1=75;

declare color1=<0,0,1,0>;

print_caption(systemname1, -10, 8,1.5*2, color1)

star2(starx1, 0,0, starsize1,starcolor1, starcolor2)

planet_system_1(starx1,starsize1,planetoffset1,radiuscoeff1,dmax1 ,numplanets1, systemname1, names1, distances1, radiuses1, types1, atmoses1, cloudeses1, ringeses1)

declare col1=<1,1/2,1/2,0>;
declare size1=3;

print_names_1(starx1,starsize1,planetoffset1,numplanets1, names1, col1, size1)

declare aa1=1.4;
declare aa2=2.6;

asteroid_zone_1(numplanets1, distances1, starx1,dmax1, starsize1,planetoffset1,aa1,aa2)

declare color1=<0,0,1,0>;
declare aa1=2.2;

//circular_orbit_1(aa1, color1, numplanets1, distances1, starx1,dmax1, starsize1,planetoffset1)

// Habitable done, assumed +-7%

declare aa1=0.93;
declare aa2=1.07;
declare color1=<0,0.5,0,0.99>;

color_zone_1(numplanets1, distances1, starx1,dmax1, starsize1,planetoffset1,aa1,aa2, color1)

//#declare col1=<1,1,1>; //print_string("Radius Re: ",col1, starx1, -11)

// moon of planet 10

declare numplanets2=2;

declare systemname2="A";

declare names2=array[numplanets2]{"1", "2" }

declare distances2=array[numplanets2]{ 0.1, 0.2 }

declare radiuses2=array[numplanets2]{ 0.475, 0.8 }

declare types2=array[numplanets2]{ "basic" , "ice" }

declare atmoses2=array[numplanets2]{0,0}
declare cloudeses2=array[numplanets2]{0,0}
declare ringeses2=array[numplanets2]{0,0}

/*

declare names2=array[numplanets2]{"1", "0" }

declare distances2=array[numplanets2]{ 0.1, 1 }

declare radiuses2=array[numplanets2]{ 0.475, 1 }

declare types2=array[numplanets2]{ "basic", "empty" }

/

declare atmoses2=array[numplanets2]{0,0}
declare cloudeses2=array[numplanets2]{0,0}
declare ringeses2=array[numplanets2]{0,0}

declare num1=9;

//tell_sitex_1(num1, numplanets1, distances1, starx1,starsize1,planetoffset1, dmax1)

//#declare beginx1=distances1[0]; //#declare endx1=distances1[numplanets1-1];

//#declare dfx1=log(endx1)-log(beginx1); //#declare dkx1=dmax1/dfx1;

//#declare planetx1=distances1[num1];

//#declare planetx2=starx1+starsize1+planetoffset1+dpx1*dkx1;

declare planetx2=50;

declare starx2=planetx2;
declare starsize2 =1;
declare planetoffset2=starsize2;

declare radiuscoeff2=0.4;
declare dmax2=1;

object { planet_system_1(starx1,starsize2,planetoffset1,radiuscoeff2,dmax2 ,numplanets2, systemname2, names2, distances2, radiuses2, types2, atmoses2, cloudeses2, ringeses2) //rotate z*10 translate y*-6 translate x*planetx2

}

Licensing

I, the copyright holder of this work, hereby publish it under the following license:

	This file is made available under the Creative Commons CC0 1.0 Universal Public Domain Dedication.
	The person who associated a work with this deed has dedicated the work to the public domain by waiving all of their rights to the work worldwide under copyright law, including all related and neighboring rights, to the extent allowed by law. You can copy, modify, distribute and perform the work, even for commercial purposes, all without asking permission. CC0falsefalse

File history

Click on a date/time to view the file as it appeared at that time.

	Date/Time	Thumbnail	Dimensions	User	Comment
current	15:33, 14 February 2024		2,400 × 800 (197 KB)	Merikanto (talk \| contribs)	Uploaded own work with UploadWizard

You cannot overwrite this file.

File usage on Commons

There are no pages that use this file.

Metadata

This file contains additional information such as Exif metadata which may have been added by the digital camera, scanner, or software program used to create or digitize it. If the file has been modified from its original state, some details such as the timestamp may not fully reflect those of the original file. The timestamp is only as accurate as the clock in the camera, and it may be completely wrong.

PNG file comment	Render Date: 2024-02-14 15:27:11Z Platform: x86_64-pc-linux-gnu Compiler: g++ 11
File change date and time	15:27, 14 February 2024
Software used	POV-Ray v3.8.0-alpha.unofficial

File:Fictional planet system Monni 1 1 1 1.png

Captions

Captions

Summary

Licensing

File history

File usage on Commons

Metadata

Structured data

Items portrayed in this file

depicts

creator

some value

copyright status

copyrighted, dedicated to the public domain by copyright holder

copyright license

Creative Commons CC0 License

source of file

original creation by uploader

inception

14 February 2024

Navigation menu

File:Fictional planet system Monni 1 1 1 1.png

Captions

Captions

Summary

Licensing

File history

File usage on Commons

Metadata

Navigation menu

Search