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Merge pull request #151 from rsheldiii/v2/backside-frontside
add backside() and fontside() helpers
This commit is contained in:
Bob
GitHub
commit
1c3960aaff
3 changed files with 184 additions and 21 deletions
1
TODO.md
1
TODO.md
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@ -1,6 +1,5 @@
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TODO:
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* Make flat stem support default
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* support repositioning to print on the back surface of the keycap
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* implement regular polygon for skin extrusions
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* switch to skin-shaped extrusions by default
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* kailh choc has a non-square key unit; should I get that working for layouts etc?
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149
customizer.scad
149
customizer.scad
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@ -570,7 +570,8 @@ module mt3_row(row=3, column=0, deep_dish=false) {
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$dish_skew_y = 0;
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$top_skew = 0;
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$height_slices = 10;
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$corner_radius = 1;
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$corner_sculpting_factor = 2;
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$corner_radius = 0.0125;
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$more_side_sculpting_factor = 0.75;
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@ -914,7 +915,10 @@ function surface_function(x,y) = 1;
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// cylindrical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size)));
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// spherical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size))) * sin(acos(y/$3d_surface_size));
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function surface_function(x,y) = sin(acos(x/$3d_surface_size)) * sin(acos(y/$3d_surface_size)) * $dish_depth;
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// spherical without cos / sin
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// function surface_function(x,y) = (1 - (x/$3d_surface_size)^4)^0.5 * (1 - (y/$3d_surface_size)^4)^0.5;
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// ripples
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/* function surface_function(x,y) = cos(pow(pow(x,2)+pow(y,2),0.5)*10)/4+0.75; */
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// Rosenbrock's banana
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@ -1186,6 +1190,7 @@ module upside_down() {
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}
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module sideways() {
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$stem_support_type = "disable";
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$key_shape_type = "flat_sided_square";
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$dish_overdraw_width = abs(extra_keytop_length_for_flat_sides());
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extra_y_rotation = atan2($width_difference/2,$total_depth); // TODO assumes centered top
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@ -1193,6 +1198,60 @@ module sideways() {
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rotate([0,90 + extra_y_rotation ,0]) children();
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}
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/* this is hard to explain. we want the angle of the back of the keycap.
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* first we draw a line at the back of the keycap perpendicular to the ground.
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* then we extend the line created by the slope of the keytop to that line
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* the angle of the latter line off the ground is $top_tilt, and
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* you can create a right triangle with the adjacent edge being $bottom_key_height/2
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* raised up $total_depth. this gets you x, the component of the extended
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* keytop slope line, and y, a component of the first perpendicular line.
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* by a very similar triangle you get r and s, where x is the hypotenuse of that
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* right triangle and the right angle is again against the first perpendicular line
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* s is the opposite line in the right triangle required to find q, the angle
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* of the back. if you subtract r from $total_depth plus y you can now use these
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* two values in atan to find the angle of interest.
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*/
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module backside() {
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$stem_support_type = "disable";
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// $key_shape_type = "flat_sided_square";
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a = $bottom_key_height;
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b = $total_depth;
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c = top_total_key_height();
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x = (a / 2 - $top_skew) / cos(-$top_tilt) - c / 2;
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y = sin(-$top_tilt) * (x + c/2);
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r = sin(-$top_tilt) * x;
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s = cos(-$top_tilt) * x;
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q = atan2(s, (y + b - r));
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translate([0,0,cos(q) * total_key_height()/2])
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rotate([-90 - q, 0,0]) children();
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}
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// this is just backside with a few signs switched
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module frontside() {
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$stem_support_type = "disable";
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// $key_shape_type = "flat_sided_square";
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a = $bottom_key_height;
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b = $total_depth;
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c = top_total_key_height();
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x = (a / 2 + $top_skew) / cos($top_tilt) - c / 2;
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y = sin($top_tilt) * (x + c/2);
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r = sin($top_tilt) * x;
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s = cos($top_tilt) * x;
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q = atan2(s, (y + b - r));
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translate([0,0,cos(q) * total_key_height()/2])
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rotate([90 + q, 0,0]) children();
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}
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// emulating the % modifier.
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// since we use custom colors, just using the % modifier doesn't work
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module debug() {
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@ -1322,7 +1381,10 @@ function surface_function(x,y) = 1;
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// cylindrical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size)));
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// spherical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size))) * sin(acos(y/$3d_surface_size));
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function surface_function(x,y) = sin(acos(x/$3d_surface_size)) * sin(acos(y/$3d_surface_size)) * $dish_depth;
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// spherical without cos / sin
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// function surface_function(x,y) = (1 - (x/$3d_surface_size)^4)^0.5 * (1 - (y/$3d_surface_size)^4)^0.5;
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// ripples
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/* function surface_function(x,y) = cos(pow(pow(x,2)+pow(y,2),0.5)*10)/4+0.75; */
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// Rosenbrock's banana
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@ -1401,7 +1463,10 @@ function surface_function(x,y) = 1;
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// cylindrical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size)));
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// spherical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size))) * sin(acos(y/$3d_surface_size));
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function surface_function(x,y) = sin(acos(x/$3d_surface_size)) * sin(acos(y/$3d_surface_size)) * $dish_depth;
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// spherical without cos / sin
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// function surface_function(x,y) = (1 - (x/$3d_surface_size)^4)^0.5 * (1 - (y/$3d_surface_size)^4)^0.5;
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// ripples
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/* function surface_function(x,y) = cos(pow(pow(x,2)+pow(y,2),0.5)*10)/4+0.75; */
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// Rosenbrock's banana
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@ -2336,7 +2401,10 @@ function surface_function(x,y) = 1;
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// cylindrical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size)));
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// spherical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size))) * sin(acos(y/$3d_surface_size));
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function surface_function(x,y) = sin(acos(x/$3d_surface_size)) * sin(acos(y/$3d_surface_size)) * $dish_depth;
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// spherical without cos / sin
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// function surface_function(x,y) = (1 - (x/$3d_surface_size)^4)^0.5 * (1 - (y/$3d_surface_size)^4)^0.5;
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// ripples
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/* function surface_function(x,y) = cos(pow(pow(x,2)+pow(y,2),0.5)*10)/4+0.75; */
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// Rosenbrock's banana
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@ -3160,7 +3228,10 @@ function surface_function(x,y) = 1;
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// cylindrical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size)));
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// spherical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size))) * sin(acos(y/$3d_surface_size));
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function surface_function(x,y) = sin(acos(x/$3d_surface_size)) * sin(acos(y/$3d_surface_size)) * $dish_depth;
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// spherical without cos / sin
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// function surface_function(x,y) = (1 - (x/$3d_surface_size)^4)^0.5 * (1 - (y/$3d_surface_size)^4)^0.5;
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// ripples
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/* function surface_function(x,y) = cos(pow(pow(x,2)+pow(y,2),0.5)*10)/4+0.75; */
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// Rosenbrock's banana
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@ -3350,7 +3421,10 @@ function surface_function(x,y) = 1;
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// cylindrical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size)));
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// spherical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size))) * sin(acos(y/$3d_surface_size));
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function surface_function(x,y) = sin(acos(x/$3d_surface_size)) * sin(acos(y/$3d_surface_size)) * $dish_depth;
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// spherical without cos / sin
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// function surface_function(x,y) = (1 - (x/$3d_surface_size)^4)^0.5 * (1 - (y/$3d_surface_size)^4)^0.5;
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// ripples
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/* function surface_function(x,y) = cos(pow(pow(x,2)+pow(y,2),0.5)*10)/4+0.75; */
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// Rosenbrock's banana
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@ -3461,7 +3535,10 @@ function surface_function(x,y) = 1;
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// cylindrical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size)));
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// spherical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size))) * sin(acos(y/$3d_surface_size));
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function surface_function(x,y) = sin(acos(x/$3d_surface_size)) * sin(acos(y/$3d_surface_size)) * $dish_depth;
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// spherical without cos / sin
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// function surface_function(x,y) = (1 - (x/$3d_surface_size)^4)^0.5 * (1 - (y/$3d_surface_size)^4)^0.5;
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// ripples
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/* function surface_function(x,y) = cos(pow(pow(x,2)+pow(y,2),0.5)*10)/4+0.75; */
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// Rosenbrock's banana
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@ -3536,7 +3613,10 @@ function surface_function(x,y) = 1;
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// cylindrical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size)));
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// spherical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size))) * sin(acos(y/$3d_surface_size));
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function surface_function(x,y) = sin(acos(x/$3d_surface_size)) * sin(acos(y/$3d_surface_size)) * $dish_depth;
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// spherical without cos / sin
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// function surface_function(x,y) = (1 - (x/$3d_surface_size)^4)^0.5 * (1 - (y/$3d_surface_size)^4)^0.5;
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// ripples
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/* function surface_function(x,y) = cos(pow(pow(x,2)+pow(y,2),0.5)*10)/4+0.75; */
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// Rosenbrock's banana
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@ -3657,7 +3737,10 @@ function surface_function(x,y) = 1;
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// cylindrical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size)));
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// spherical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size))) * sin(acos(y/$3d_surface_size));
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function surface_function(x,y) = sin(acos(x/$3d_surface_size)) * sin(acos(y/$3d_surface_size)) * $dish_depth;
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// spherical without cos / sin
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// function surface_function(x,y) = (1 - (x/$3d_surface_size)^4)^0.5 * (1 - (y/$3d_surface_size)^4)^0.5;
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// ripples
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/* function surface_function(x,y) = cos(pow(pow(x,2)+pow(y,2),0.5)*10)/4+0.75; */
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// Rosenbrock's banana
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@ -3732,7 +3815,10 @@ function surface_function(x,y) = 1;
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// cylindrical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size)));
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// spherical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size))) * sin(acos(y/$3d_surface_size));
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function surface_function(x,y) = sin(acos(x/$3d_surface_size)) * sin(acos(y/$3d_surface_size)) * $dish_depth;
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// spherical without cos / sin
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// function surface_function(x,y) = (1 - (x/$3d_surface_size)^4)^0.5 * (1 - (y/$3d_surface_size)^4)^0.5;
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// ripples
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/* function surface_function(x,y) = cos(pow(pow(x,2)+pow(y,2),0.5)*10)/4+0.75; */
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// Rosenbrock's banana
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@ -3871,7 +3957,10 @@ function surface_function(x,y) = 1;
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// cylindrical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size)));
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// spherical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size))) * sin(acos(y/$3d_surface_size));
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function surface_function(x,y) = sin(acos(x/$3d_surface_size)) * sin(acos(y/$3d_surface_size)) * $dish_depth;
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// spherical without cos / sin
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// function surface_function(x,y) = (1 - (x/$3d_surface_size)^4)^0.5 * (1 - (y/$3d_surface_size)^4)^0.5;
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// ripples
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/* function surface_function(x,y) = cos(pow(pow(x,2)+pow(y,2),0.5)*10)/4+0.75; */
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// Rosenbrock's banana
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@ -4016,7 +4105,10 @@ function surface_function(x,y) = 1;
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// cylindrical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size)));
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// spherical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size))) * sin(acos(y/$3d_surface_size));
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function surface_function(x,y) = sin(acos(x/$3d_surface_size)) * sin(acos(y/$3d_surface_size)) * $dish_depth;
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// spherical without cos / sin
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// function surface_function(x,y) = (1 - (x/$3d_surface_size)^4)^0.5 * (1 - (y/$3d_surface_size)^4)^0.5;
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// ripples
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/* function surface_function(x,y) = cos(pow(pow(x,2)+pow(y,2),0.5)*10)/4+0.75; */
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// Rosenbrock's banana
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@ -4091,7 +4183,10 @@ function surface_function(x,y) = 1;
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// cylindrical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size)));
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// spherical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size))) * sin(acos(y/$3d_surface_size));
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function surface_function(x,y) = sin(acos(x/$3d_surface_size)) * sin(acos(y/$3d_surface_size)) * $dish_depth;
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// spherical without cos / sin
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// function surface_function(x,y) = (1 - (x/$3d_surface_size)^4)^0.5 * (1 - (y/$3d_surface_size)^4)^0.5;
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// ripples
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/* function surface_function(x,y) = cos(pow(pow(x,2)+pow(y,2),0.5)*10)/4+0.75; */
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// Rosenbrock's banana
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@ -4259,7 +4354,10 @@ function surface_function(x,y) = 1;
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// cylindrical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size)));
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// spherical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size))) * sin(acos(y/$3d_surface_size));
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function surface_function(x,y) = sin(acos(x/$3d_surface_size)) * sin(acos(y/$3d_surface_size)) * $dish_depth;
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// spherical without cos / sin
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// function surface_function(x,y) = (1 - (x/$3d_surface_size)^4)^0.5 * (1 - (y/$3d_surface_size)^4)^0.5;
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// ripples
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/* function surface_function(x,y) = cos(pow(pow(x,2)+pow(y,2),0.5)*10)/4+0.75; */
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// Rosenbrock's banana
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@ -4334,7 +4432,10 @@ function surface_function(x,y) = 1;
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// cylindrical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size)));
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// spherical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size))) * sin(acos(y/$3d_surface_size));
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function surface_function(x,y) = sin(acos(x/$3d_surface_size)) * sin(acos(y/$3d_surface_size)) * $dish_depth;
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// spherical without cos / sin
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// function surface_function(x,y) = (1 - (x/$3d_surface_size)^4)^0.5 * (1 - (y/$3d_surface_size)^4)^0.5;
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// ripples
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/* function surface_function(x,y) = cos(pow(pow(x,2)+pow(y,2),0.5)*10)/4+0.75; */
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// Rosenbrock's banana
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@ -4796,7 +4897,10 @@ function surface_function(x,y) = 1;
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// cylindrical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size)));
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// spherical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size))) * sin(acos(y/$3d_surface_size));
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function surface_function(x,y) = sin(acos(x/$3d_surface_size)) * sin(acos(y/$3d_surface_size)) * $dish_depth;
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// spherical without cos / sin
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// function surface_function(x,y) = (1 - (x/$3d_surface_size)^4)^0.5 * (1 - (y/$3d_surface_size)^4)^0.5;
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// ripples
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/* function surface_function(x,y) = cos(pow(pow(x,2)+pow(y,2),0.5)*10)/4+0.75; */
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// Rosenbrock's banana
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@ -4893,7 +4997,9 @@ module 3d_surface_dish(width, height, depth, inverted) {
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// skew and tilt of the top. it's a pain to calculate though
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scale_factor = 1.1;
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// the edges on this behave differently than with the previous dish implementations
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scale([width*scale_factor/$3d_surface_size/2,height*scale_factor/$3d_surface_size/2,depth]) rotate([inverted ? 0:180,0,180]) polar_3d_surface(bottom=-10);
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scale([width*scale_factor/$3d_surface_size/2,height*scale_factor/$3d_surface_size/2,depth])
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rotate([inverted ? 0:180,0,180])
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polar_3d_surface(bottom=-10);
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/* %scale([width*scale_factor/$3d_surface_size/2,height*scale_factor/$3d_surface_size/2,depth]) rotate([180,0,0]) polar_3d_surface(bottom=-10); */
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}
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@ -4911,7 +5017,7 @@ module dish(width, height, depth, inverted) {
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sideways_cylindrical_dish(width, height, depth, inverted);
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} else if ($dish_type == "old spherical") {
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old_spherical_dish(width, height, depth, inverted);
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} else if ($dish_type == "3d_surface") {
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} else if ($dish_type == "3d surface") {
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3d_surface_dish(width, height, depth, inverted);
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} else if ($dish_type == "flat") {
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flat_dish(width, height, depth, inverted);
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@ -4988,7 +5094,10 @@ function surface_function(x,y) = 1;
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// cylindrical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size)));
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// spherical
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function surface_function(x,y) = (sin(acos(x/$3d_surface_size))) * sin(acos(y/$3d_surface_size));
|
||||
function surface_function(x,y) = sin(acos(x/$3d_surface_size)) * sin(acos(y/$3d_surface_size)) * $dish_depth;
|
||||
// spherical without cos / sin
|
||||
// function surface_function(x,y) = (1 - (x/$3d_surface_size)^4)^0.5 * (1 - (y/$3d_surface_size)^4)^0.5;
|
||||
|
||||
// ripples
|
||||
/* function surface_function(x,y) = cos(pow(pow(x,2)+pow(y,2),0.5)*10)/4+0.75; */
|
||||
// Rosenbrock's banana
|
||||
|
|
|
|||
|
|
@ -193,6 +193,7 @@ module upside_down() {
|
|||
}
|
||||
|
||||
module sideways() {
|
||||
$stem_support_type = "disable";
|
||||
$key_shape_type = "flat_sided_square";
|
||||
$dish_overdraw_width = abs(extra_keytop_length_for_flat_sides());
|
||||
extra_y_rotation = atan2($width_difference/2,$total_depth); // TODO assumes centered top
|
||||
|
|
@ -200,6 +201,60 @@ module sideways() {
|
|||
rotate([0,90 + extra_y_rotation ,0]) children();
|
||||
}
|
||||
|
||||
/* this is hard to explain. we want the angle of the back of the keycap.
|
||||
* first we draw a line at the back of the keycap perpendicular to the ground.
|
||||
* then we extend the line created by the slope of the keytop to that line
|
||||
* the angle of the latter line off the ground is $top_tilt, and
|
||||
* you can create a right triangle with the adjacent edge being $bottom_key_height/2
|
||||
* raised up $total_depth. this gets you x, the component of the extended
|
||||
* keytop slope line, and y, a component of the first perpendicular line.
|
||||
* by a very similar triangle you get r and s, where x is the hypotenuse of that
|
||||
* right triangle and the right angle is again against the first perpendicular line
|
||||
* s is the opposite line in the right triangle required to find q, the angle
|
||||
* of the back. if you subtract r from $total_depth plus y you can now use these
|
||||
* two values in atan to find the angle of interest.
|
||||
*/
|
||||
module backside() {
|
||||
$stem_support_type = "disable";
|
||||
|
||||
// $key_shape_type = "flat_sided_square";
|
||||
|
||||
a = $bottom_key_height;
|
||||
b = $total_depth;
|
||||
c = top_total_key_height();
|
||||
|
||||
x = (a / 2 - $top_skew) / cos(-$top_tilt) - c / 2;
|
||||
y = sin(-$top_tilt) * (x + c/2);
|
||||
r = sin(-$top_tilt) * x;
|
||||
s = cos(-$top_tilt) * x;
|
||||
|
||||
q = atan2(s, (y + b - r));
|
||||
|
||||
translate([0,0,cos(q) * total_key_height()/2])
|
||||
rotate([-90 - q, 0,0]) children();
|
||||
}
|
||||
|
||||
// this is just backside with a few signs switched
|
||||
module frontside() {
|
||||
$stem_support_type = "disable";
|
||||
|
||||
// $key_shape_type = "flat_sided_square";
|
||||
|
||||
a = $bottom_key_height;
|
||||
b = $total_depth;
|
||||
c = top_total_key_height();
|
||||
|
||||
x = (a / 2 + $top_skew) / cos($top_tilt) - c / 2;
|
||||
y = sin($top_tilt) * (x + c/2);
|
||||
r = sin($top_tilt) * x;
|
||||
s = cos($top_tilt) * x;
|
||||
|
||||
q = atan2(s, (y + b - r));
|
||||
|
||||
translate([0,0,cos(q) * total_key_height()/2])
|
||||
rotate([90 + q, 0,0]) children();
|
||||
}
|
||||
|
||||
// emulating the % modifier.
|
||||
// since we use custom colors, just using the % modifier doesn't work
|
||||
module debug() {
|
||||
|
|
|
|||
Loading…
Reference in a new issue