| Line 1... |
Line 1... |
| 1 |
x_size = 20; // horizontal outer size of the aquarium pedestal. |
1 |
x_size = 20; // horizontal outer size of the aquarium pedestal. |
| 2 |
y_size = 20; // |
2 |
y_size = 20; // |
| 3 |
thickness = 10; // thickness of the pad bellow aquarium. hairs lenght is 12mm. |
3 |
thickness = 10; // thickness of the pad bellow aquarium. hairs lenght is 12mm. |
| 4 |
rim_height = 7; // height of upper rim for fixing the aquarium in position. |
4 |
rim_height = 7; // height of upper rim for fixing the aquarium in position. |
| 5 |
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| 6 |
mount_hole = 3.6; |
6 |
mount_hole = 3.7; |
| 7 |
clear = 0.175; |
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clear = 0.175; |
| 8 |
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| 9 |
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| 10 |
// aquarium pad |
10 |
// aquarium pad |
| 11 |
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Line 22... |
| 22 |
rotate([0,0,45]) |
22 |
rotate([0,0,45]) |
| 23 |
cube([x_size, y_size ,4*thickness], center = true); // cut out half of top tip |
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cube([x_size, y_size ,4*thickness], center = true); // cut out half of top tip |
| 24 |
} |
24 |
} |
| 25 |
cylinder (h = thickness + rim_height, r= mount_hole, $fn=20); // hole for screw head |
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cylinder (h = thickness + rim_height, r= mount_hole, $fn=20); // hole for screw head |
| 26 |
translate ([0, 0, -thickness]) // hole for the screw |
26 |
translate ([0, 0, -thickness]) // hole for the screw |
| 27 |
cylinder (h = thickness + rim_height, r= mount_hole/2, $fn=10); |
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cylinder (h = thickness + rim_height, r= mount_hole/2, $fn=20); |
| 28 |
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| 29 |
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| 30 |
rotate([0,0,-45]) // hole for top part mounting nut |
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rotate([0,0,-45]) // hole for top part mounting nut |
| 31 |
translate ([ 0, -x_size/3, thickness/3]) |
31 |
translate ([ 0, -x_size/3, thickness/3]) |
| 32 |
cube([6, 3, thickness], center = true); |
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cube([6, 3, thickness], center = true); |
| 33 |
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| 34 |
rotate([90,0,-45]) // hole for top part mounting screw. |
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rotate([90,0,-45]) // hole for top part mounting screw. |
| 35 |
translate ([ 0, 1.8, 0]) |
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translate ([ 0, 1.8, 0]) |
| 36 |
cylinder (h = thickness + rim_height, r= mount_hole/2, $fn=10); |
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cylinder (h = thickness + rim_height, r= mount_hole/2, $fn=20); |
| 37 |
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|
| 38 |
} |
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} |
| 39 |
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| 41 |
/* |
- |
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| 42 |
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| 43 |
translate ([0, 0, 3*thickness]) // separate two parts |
- |
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| 44 |
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| - |
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//translate ([0, 0, thickness]) // separate two parts |
| - |
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| 45 |
rotate([180,0,0]) // hole for top part mounting nut |
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/*rotate([180,0,0]) // hole for top part mounting nut |
| 46 |
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| 47 |
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| 48 |
//Top part |
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//Top part |
| 49 |
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| 50 |
difference () { |
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union () { |
| 51 |
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| - |
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wall_thickness = 3; |
| - |
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| 52 |
rotate([0,0,-45]) |
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rotate([0,0,45]) |
| 53 |
translate ([0, -3, rim_height/3]) |
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translate ([-wall_thickness, 0, 0]) |
| - |
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| - |
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difference () { |
| - |
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translate ([wall_thickness/2, 0, thickness/2 + 1.5*wall_thickness]) |
| 54 |
cube([x_size, y_size ,thickness + rim_height/4 ], center = true); |
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cube([x_size - wall_thickness, y_size , wall_thickness ], center = true); |
| 55 |
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| 56 |
rotate([90,0,-45]) |
61 |
rotate([0,0,-45]) |
| - |
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translate ([sqrt(pow(x_size,2) + pow(x_size,2))/4, sqrt(pow(x_size,2) + pow(x_size,2))/4 , rim_height]) |
| - |
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cube([sqrt(pow(x_size,2) + pow(x_size,2))/2, sqrt(pow(x_size,2) + pow(x_size,2))/2, 2*rim_height], center = true); |
| - |
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}; |
| - |
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| - |
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rotate([0,0,45]) |
| 57 |
translate ([0, 0, rim_height/3]) |
67 |
translate ([-8.3, 0, 0]) |
| - |
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| 58 |
minkowski() { |
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difference () { |
| - |
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translate ([8.3/2, 0, thickness/2 + wall_thickness/2]) |
| 59 |
cube([0.5,3,10]); |
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cube([x_size - 8.3, y_size , wall_thickness ], center = true); |
| - |
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| 60 |
cylinder(r=1.5,h=1,$fn=50); |
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rotate([0,0,-45]) |
| - |
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translate ([sqrt(pow(x_size,2) + pow(x_size,2))/4, sqrt(pow(x_size,2) + pow(x_size,2))/4 , rim_height]) |
| - |
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cube([sqrt(pow(x_size,2) + pow(x_size,2))/2, sqrt(pow(x_size,2) + pow(x_size,2))/2, rim_height], center = true); |
| 61 |
} |
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}; |
| 62 |
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|
| 63 |
wall_thickness = 2; |
- |
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| 64 |
|
78 |
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| 65 |
union(){ // copy of bottom part |
- |
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| 66 |
rotate([0,0,45]) |
79 |
rotate([0,0,-45]) |
| - |
|
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| 67 |
cube([x_size, y_size ,thickness], center = true); |
81 |
difference () { |
| 68 |
translate ([sqrt(pow(x_size,2) + pow(x_size,2))/4 -wall_thickness, sqrt(pow(x_size,2) + pow(x_size,2))/4 -wall_thickness, thickness/2 + rim_height/2]) |
- |
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| 69 |
cube([sqrt(pow(x_size,2) + pow(x_size,2))/2, sqrt(pow(x_size,2) + pow(x_size,2))/2, rim_height], center = true); |
- |
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| 70 |
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| - |
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translate ([0, -y_size/2 - wall_thickness/2 , 1.25 * wall_thickness]) |
| - |
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cube([y_size, wall_thickness , thickness + 1.5*wall_thickness ], center = true); |
| - |
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| - |
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| - |
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rotate([90,0,0]) |
| - |
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translate ([-0.5/2, 0, rim_height/3]) |
| - |
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minkowski() { |
| - |
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cube([0.5,3.1,10]); |
| - |
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cylinder(r=1.5,h=1,$fn=50); |
| 71 |
}; |
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} |
| - |
|
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} |
| - |
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| - |
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| - |
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| 72 |
} |
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} |
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