// Detail of the part
$fn = 50;
// Minimum thickness of anything
min_thickness = 1.2;
// Tolerance for inside gaps
tol = 0.1;
// Part to generate
part = "m"; // [m: Main Body, t:Top]
module hide_params() {}
function inch(x) = x * 25.4;
jr_upper_width = inch(1 + 3 / 4);
jr_upper_depth = inch(2 + 3 / 8);
jr_lower_width = inch(1 + 23 / 32);
jr_lower_depth = inch(2 + 11 / 32);
connector_hole_width = inch(7 / 64);
connector_hole_depth = inch(15 / 32);
connector_right_x_offset = inch(3 / 16);
connector_bottom_y_offset = inch(1 / 8);
jr_height = inch(3 / 4);
rim_width = 2;
rim_height = 2;
chamfer_d = 2;
top_interference = 1;
latch_width = 1.8;
latch_depth = 9 / 16 * 25.4;
latch_lug_rim_height = 3;
latch_lug_z_offset = 17;
latch_cutout_width = latch_width + min_thickness;
latch_cutout_depth = latch_depth + min_thickness * 2;
latch_max_angle = 6;
latch_gap = 1;
sma_thread_d = inch(1/4) + 2 *tol;
sma_thread_length = inch(7/16);
sma_hex_small_d = inch(5/16) + 2 * tol;
sma_hex_height = 3;
sma_mount_thickness = 2;
module copy_mirror(vec = [ 0, 1, 0 ]) {
  children();
  mirror(vec) children();
}
module chamfer_tool(d, flat_top = false, no_bottom = false) {
  if (no_bottom) {
    cylinder(d / 2, d / 2, 0, $fn = 4);
  } else {
    union() {
      cube_edge_length = sqrt(pow(d / 2, 2) * 2);
      if (flat_top) {
        rotate([ 0, 0, 45 ])
            translate([ -cube_edge_length / 2, -cube_edge_length / 2, 0 ])
                cube([ cube_edge_length, cube_edge_length, d / 2 ]);
      }
      copy_mirror([ 0, 0, 1 ]) rotate([ 180, 0, 0 ])
          cylinder(d / 2, d / 2, 0, $fn = 4);
    }
  }
}
// uses child passed to it as chamfer tool
module block(upper_width, lower_width, upper_depth, lower_depth, height,
             chamfer_d = 0) {
  function linear(x, y_1, y_2, h) = y_1 + x * (y_2 - y_1) / h;
  scale = [ upper_width / lower_width, upper_depth / lower_depth ];
  if (chamfer_d == 0) {
    linear_extrude(height, scale = scale)
        square([ lower_width, lower_depth ], center = true);
  } else {
    base_width =
        linear(chamfer_d / 2, lower_width, upper_width, height) - chamfer_d;
    base_depth =
        linear(chamfer_d / 2, lower_depth, upper_depth, height) - chamfer_d;
    new_scale = (scale - [ 1, 1 ]) * ((height - chamfer_d) / height) + [ 1, 1 ];
    translate([ 0, 0, chamfer_d / 2 ]) minkowski() {
      linear_extrude(height - chamfer_d, scale = new_scale)
          square([ base_width, base_depth ], center = true);
      children();
    }
  }
}
module jr_module() {
  function dimension_at(height, lower, upper) =
      lower + (uper - lower) * (height - jr_height);
  difference() {
    // main body
    block(jr_upper_width, jr_lower_width, jr_upper_depth, jr_lower_depth,
          jr_height, chamfer_d) {
      chamfer_tool(chamfer_d);
    };
    // connector cutout
    translate([
      jr_lower_width / 2 - connector_hole_width - connector_right_x_offset,
      -jr_lower_depth / 2 + connector_bottom_y_offset, 0
    ])
        cube([
          connector_hole_width, connector_hole_depth, jr_height + rim_height
        ]);
  }
}
module latch(base_support = false, angle = 0) {
  base_support_d = latch_gap / 2;
  start_height = chamfer_d;
  latch_height = jr_height + rim_height;
  translate([ -latch_width, latch_depth / 2, +start_height ])
      rotate([ 0, -angle, 0 ]) translate([ 0, 0, -start_height ])
          rotate([ 90, 0, 0 ]) union() {
    ramp_points = [
      [ 0, start_height ],
      [ 0, 7.5 ],
      [ 0.5, latch_lug_z_offset - 2.5 ],
      [ 1.25, latch_lug_z_offset ],
      [ 0, latch_lug_z_offset ],
      [ 0, latch_lug_z_offset + latch_lug_rim_height + 2 * tol ],
      [ min_thickness, latch_lug_z_offset + latch_lug_rim_height + 2 * tol ],
      [ min_thickness, latch_height ],
    ];
    linear_extrude(latch_depth) polygon(concat(
        [
          [ 0, latch_height],
          [ 0, start_height ],
        ],
        [for (p = ramp_points)[latch_width + p[0], p[1]]]));
    if (base_support) {
      translate([
        -base_support_d,
        start_height,
      ]) linear_extrude(latch_depth)
          polygon(
              [[latch_width + base_support_d, base_support_d],
               [base_support_d, base_support_d], [0, 0], [0, -start_height],
               [latch_width + base_support_d - chamfer_d / 2, -start_height],
               [latch_width + base_support_d, -start_height + chamfer_d / 2]]);
    }
  }
}
module latch_cutout() {
  module custom_chamfer_tool() {
    hull() {
      translate([ 0, 0, latch_gap / 2 + tol ]) chamfer_tool(d = latch_gap);
      translate([ 0, 0, latch_gap / 2 + tol + jr_height ])
          chamfer_tool(d = latch_gap);
    }
  }
  copy_mirror([ 1, 0, 0 ]) translate([ jr_lower_width / 2, 0, 0 ]) hull() {
    minkowski() {
      latch(base_support = false, angle = -latch_max_angle);
      custom_chamfer_tool();
    };
    minkowski() {
      latch(base_support = false, angle = latch_max_angle);
      custom_chamfer_tool();
    };
  }
}
module sma_mount(cut_tool=false){
	sma_hex_big_d = sma_hex_small_d * (2/sqrt(3));
	// length of the flexible tail of the SMA
	sma_tail_length = 20;
	sma_pocket_height = 3;
	angle = 22.5;
	horizontal_hex_length = cut_tool ? sma_hex_height : sma_hex_height + sma_mount_thickness;
	difference(){
		union(){
			tmp = sma_hex_height+sma_tail_length;
			// straight part
			rotate([90,30,0]){
				translate([0, 0, -horizontal_hex_length+sma_hex_height])
					cylinder($fn=6, d=sma_hex_big_d, h=horizontal_hex_length);
				if (cut_tool){
					rotate([0, 180, 0])
						cylinder(d=sma_thread_d, h=sma_thread_length);
				}
			};
			// bent part
			translate([0, -sma_hex_height, -sma_hex_big_d/2])
				rotate([0, -90, 180])
				rotate_extrude(angle=angle){
					translate([sma_hex_big_d/2, 0])
						circle($fn=6, d = sma_hex_big_d);
				};
			// angeled part
			hull(){
				translate([0, -sma_hex_height + 1e-5, -sma_hex_big_d/2]) // TODO this is an ugly hack
					rotate([angle, 0, 0])
					translate([0, 0, sma_hex_big_d/2])
					rotate([90,30, 0])
					cylinder($fn=6, d=sma_hex_big_d, h=sma_tail_length);
				rotate([0, 0, 180])
					translate([-sma_hex_small_d/2, sma_hex_height, -sma_hex_big_d/2-sma_pocket_height])
					cube([sma_hex_small_d, sma_tail_length, tol]);
			}
		}
		let (
				height = 100,
				depth = sma_tail_length+sma_mount_thickness + sma_hex_height
		    ) // TODO adjust dimensions
		{
			translate([0, -depth/2, -sma_hex_big_d/2-sma_pocket_height -height/2])
				cube([sma_hex_small_d , depth , height], center = true);
		}
	}
}
module inside_pocket(height = 13) {
  mid_width = 33.8 + 2 * tol;
  upper_lower_width = 40.6 + 3 * tol;
  mid_depth = 21 - 2 * tol;
  total_depth = 54.6 + 2 * tol;
  floor_height = min_thickness;
  saddle_height = 3;
  difference() {
    // main body
    union() {
      translate([ -mid_width / 2, -mid_depth / 2, floor_height ])
          cube([ mid_width, mid_depth, height ]);
      copy_mirror([ 0, 1, 0 ]) translate(
          [ -upper_lower_width / 2, mid_depth / 2, floor_height ])
          cube([ upper_lower_width, (total_depth - mid_depth) / 2, height ]);
      // button hole
      translate([ -upper_lower_width / 2, -total_depth / 2 ]) {
        translate([ 13 / 16 * 25.4, 9, floor_height + saddle_height ])
            cylinder(d = 6.5 + 2 * tol, h = 19);
        // rotary hole
        translate([ 8.5, 9, floor_height + saddle_height ])
            cylinder(d = 9, h = 15.5);
      }
      // led hole
      copy_mirror([ 1, 0, 0 ]) translate(
          [ 5 / 2, -total_depth / 2 + 18, floor_height + saddle_height ])
          cylinder(d = 3, h = 12);
    }
    // saddle cuts
    translate([ 0, 0, floor_height ]) linear_extrude(saddle_height) {
      // lower left
      translate([ -upper_lower_width / 2, -total_depth / 2 ]) square([ 5, 10 ]);
      // lower right
      translate([ upper_lower_width / 2 - 15, -total_depth / 2 ])
          square([ 6, 4 ]);
      // lower mid
      translate([ -upper_lower_width / 2 + 9, -total_depth / 2 ])
          square([ 3, 10 ]);
      // mid left
      translate([ -mid_width / 2, -mid_depth / 2 ]) square([ 3, 15 ]);
      // mid right
      translate([ mid_width / 2 - 7.5, -mid_depth / 2 ]) square([ 7.5, 10 ]);
      // mid both
      copy_mirror([ 1, 0, 0 ]) translate([ -mid_width / 2, -mid_depth / 2 ])
          square([ 2, mid_depth ]);
      // top
      translate([ -upper_lower_width / 2, total_depth / 2 - 6 ])
          square([ upper_lower_width, 6 ]);
    }
  }
}
module top_plate() {
  width = jr_upper_width + 2 * rim_width;
  depth = jr_upper_depth + 2 * rim_width;
  height = rim_height;
  vertical_offset = jr_height + rim_height / 2;
  sma_hex_big_d = sma_hex_small_d * (2/sqrt(3));
  // length of the flexible tail of the SMA
  sma_tail_length = 20;
  sma_pocket_height = 3;
  sma_offset = [0,2*min_thickness + jr_upper_depth/2 - sma_hex_height - min_thickness, vertical_offset + sma_hex_big_d/2];
  assert(rim_height >= chamfer_d);
  difference() {
    union(){
      // actual top plate
      hull() copy_mirror([ 1, 0, 0 ]) copy_mirror([ 0, 1, 0 ]) translate([
          jr_upper_width / 2 + rim_width - chamfer_d / 2,
          jr_upper_depth / 2 + rim_width - chamfer_d / 2, vertical_offset 
      ]) chamfer_tool(chamfer_d);
     
      
      // sma mount
   
	minkowski(){
      translate(sma_offset)
	      sma_mount(false);
      chamfer_tool(d=min_thickness * 2);
	      }
    /*
      translate(sma_offset)
	rotate([0, 0, 180]) {
	      width = sma_hex_small_d + 2 * min_thickness - chamfer_d;
	      height = sma_hex_big_d + 2 * min_thickness- chamfer_d; 
	      minkowski(){
	      translate([-width/2, -min_thickness, -height/2])
		      cube([width, sma_tail_length + sma_hex_height + 2 * min_thickness, height ]);
		      chamfer_tool(chamfer_d, no_bottom = true);
		      }
	      	};
		}
     */
      /*
      difference(){
	union(){
	translate([0, 13, 0])
	cube([15, 30, 10], center = true);
	};
      rotate([90,0,0]){
      translate([0, 0, -sma_hex_height])
        cylinder($fn=6, d=sma_hex_big_d, h=sma_hex_height);
        cylinder(d=sma_thread_d, h=sma_thread_length);
        }
  
        translate([0, sma_hex_height, -sma_hex_small_d/2])
        rotate([0, -90, 0])
        rotate_extrude($fn=100, angle=45)
        translate([sma_hex_small_d/2, 0, 0])
        rotate([0, 0, 30])
        circle($fn=6, d=sma_hex_big_d);
	
	translate([0, sma_hex_height, -sma_hex_small_d/2])
	rotate([-45, 0, 0])
	translate([0, 0, sma_hex_small_d/2])
	rotate([-90, 0, 0])
        cylinder($fn=6, d=sma_hex_big_d, h=20);// TODO fix ugly value
      }
      */
    }
  translate(sma_offset)
	  sma_mount(true);
/*
    // cut tool for SMA
    tmp = sma_hex_height+sma_tail_length;
    translate(sma_offset) rotate([0,0,180]){ rotate([90,30,0]){
	    translate([0, 0, -tmp])
		    cylinder($fn=6, d=sma_hex_big_d, h=tmp);
	    cylinder(d=sma_thread_d, h=sma_thread_length);
    }
    translate([-sma_hex_small_d/2, sma_hex_height, -sma_hex_big_d/2-sma_pocket_height])
	    cube([sma_hex_small_d, sma_tail_length, sma_hex_big_d/2 + sma_pocket_height]);
    }
*/
    // main body notch
    minkowski() {
    	#difference(){
        jr_module();
        linear_extrude(jr_height)
        projection() inside_pocket();
      }
      cube(2 * tol, center = true);
    }
    latch_cutout();
    inside_pocket();
  }
}
if (part == "m") {
  union() {
    difference() {
      jr_module();
      latch_cutout();
      inside_pocket(height = 20);
    }
    copy_mirror([ 1, 0, 0 ]) translate([ jr_lower_width / 2, 0, 0 ])
        latch(base_support = true);
  }
} else if (part == "t") {
  top_plate();
}

// Detail of the part
$fn = 50;
// Minimum thickness of anything
min_thickness = 1.2;
// Tolerance for inside gaps
tol = 0.1;
// Part to generate
part = "m"; // [m: Main Body, t:Top]
module hide_params() {}
function inch(x) = x * 25.4;
jr_upper_width = inch(1 + 3 / 4);
jr_upper_depth = inch(2 + 3 / 8);
jr_lower_width = inch(1 + 23 / 32);
jr_lower_depth = inch(2 + 11 / 32);
connector_hole_width = inch(7 / 64);
connector_hole_depth = inch(15 / 32);
connector_right_x_offset = inch(3 / 16);
connector_bottom_y_offset = inch(1 / 8);
jr_height = inch(3 / 4);
rim_width = 2;
rim_height = 2;
chamfer_d = 2;
top_interference = 1;
latch_width = 1.8;
latch_depth = 9 / 16 * 25.4;
latch_lug_rim_height = 3;
latch_lug_z_offset = 17;
latch_cutout_width = latch_width + min_thickness;
latch_cutout_depth = latch_depth + min_thickness * 2;
latch_max_angle = 6;
latch_gap = 1;
sma_thread_d = inch(1/4) + 2 *tol;
sma_thread_length = inch(7/16);
sma_hex_small_d = inch(5/16) + 2 * tol;
sma_hex_height = 3;
sma_mount_thickness = 2;
module copy_mirror(vec = [ 0, 1, 0 ]) {
  children();
  mirror(vec) children();
}
module chamfer_tool(d, flat_top = false, no_bottom = false) {
  if (no_bottom) {
    cylinder(d / 2, d / 2, 0, $fn = 4);
  } else {
    union() {
      cube_edge_length = sqrt(pow(d / 2, 2) * 2);
      if (flat_top) {
        rotate([ 0, 0, 45 ])
            translate([ -cube_edge_length / 2, -cube_edge_length / 2, 0 ])
                cube([ cube_edge_length, cube_edge_length, d / 2 ]);
      }
      copy_mirror([ 0, 0, 1 ]) rotate([ 180, 0, 0 ])
          cylinder(d / 2, d / 2, 0, $fn = 4);
    }
  }
}
// uses child passed to it as chamfer tool
module block(upper_width, lower_width, upper_depth, lower_depth, height,
             chamfer_d = 0) {
  function linear(x, y_1, y_2, h) = y_1 + x * (y_2 - y_1) / h;
  scale = [ upper_width / lower_width, upper_depth / lower_depth ];
  if (chamfer_d == 0) {
    linear_extrude(height, scale = scale)
        square([ lower_width, lower_depth ], center = true);
  } else {
    base_width =
        linear(chamfer_d / 2, lower_width, upper_width, height) - chamfer_d;
    base_depth =
        linear(chamfer_d / 2, lower_depth, upper_depth, height) - chamfer_d;
    new_scale = (scale - [ 1, 1 ]) * ((height - chamfer_d) / height) + [ 1, 1 ];
    translate([ 0, 0, chamfer_d / 2 ]) minkowski() {
      linear_extrude(height - chamfer_d, scale = new_scale)
          square([ base_width, base_depth ], center = true);
      children();
    }
  }
}
module jr_module() {
  function dimension_at(height, lower, upper) =
      lower + (uper - lower) * (height - jr_height);
  difference() {
    // main body
    block(jr_upper_width, jr_lower_width, jr_upper_depth, jr_lower_depth,
          jr_height, chamfer_d) {
      chamfer_tool(chamfer_d);
    };
    // connector cutout
    translate([
      jr_lower_width / 2 - connector_hole_width - connector_right_x_offset,
      -jr_lower_depth / 2 + connector_bottom_y_offset, 0
    ])
        cube([
          connector_hole_width, connector_hole_depth, jr_height + rim_height
        ]);
  }
}
module latch(base_support = false, angle = 0) {
  base_support_d = latch_gap / 2;
  start_height = chamfer_d;
  latch_height = jr_height + rim_height;
  translate([ -latch_width, latch_depth / 2, +start_height ])
      rotate([ 0, -angle, 0 ]) translate([ 0, 0, -start_height ])
          rotate([ 90, 0, 0 ]) union() {
    ramp_points = [
      [ 0, start_height ],
      [ 0, 7.5 ],
      [ 0.5, latch_lug_z_offset - 2.5 ],
      [ 1.25, latch_lug_z_offset ],
      [ 0, latch_lug_z_offset ],
      [ 0, latch_lug_z_offset + latch_lug_rim_height + 2 * tol ],
      [ min_thickness, latch_lug_z_offset + latch_lug_rim_height + 2 * tol ],
      [ min_thickness, latch_height ],
    ];
    linear_extrude(latch_depth) polygon(concat(
        [
          [ 0, latch_height],
          [ 0, start_height ],
        ],
        [for (p = ramp_points)[latch_width + p[0], p[1]]]));
    if (base_support) {
      translate([
        -base_support_d,
        start_height,
      ]) linear_extrude(latch_depth)
          polygon(
              [[latch_width + base_support_d, base_support_d],
               [base_support_d, base_support_d], [0, 0], [0, -start_height],
               [latch_width + base_support_d - chamfer_d / 2, -start_height],
               [latch_width + base_support_d, -start_height + chamfer_d / 2]]);
    }
  }
}
module latch_cutout() {
  module custom_chamfer_tool() {
    hull() {
      translate([ 0, 0, latch_gap / 2 + tol ]) chamfer_tool(d = latch_gap);
      translate([ 0, 0, latch_gap / 2 + tol + jr_height ])
          chamfer_tool(d = latch_gap);
    }
  }
  copy_mirror([ 1, 0, 0 ]) translate([ jr_lower_width / 2, 0, 0 ]) hull() {
    minkowski() {
      latch(base_support = false, angle = -latch_max_angle);
      custom_chamfer_tool();
    };
    minkowski() {
      latch(base_support = false, angle = latch_max_angle);
      custom_chamfer_tool();
    };
  }
}
module sma_mount(cut_tool=false){
	sma_hex_big_d = sma_hex_small_d * (2/sqrt(3));
	// length of the flexible tail of the SMA
	sma_tail_length = 20;
	sma_pocket_height = 3;
	angle = 22.5;
	horizontal_hex_length = cut_tool ? sma_hex_height : sma_hex_height + sma_mount_thickness;
	difference(){
		union(){
			tmp = sma_hex_height+sma_tail_length;
			// straight part
			rotate([90,30,0]){
				translate([0, 0, -horizontal_hex_length+sma_hex_height])
					cylinder($fn=6, d=sma_hex_big_d, h=horizontal_hex_length);
				if (cut_tool){
					rotate([0, 180, 0])
						cylinder(d=sma_thread_d, h=sma_thread_length);
				}
			};
			// bent part
			translate([0, -sma_hex_height, -sma_hex_big_d/2])
				rotate([0, -90, 180])
				rotate_extrude(angle=angle){
					translate([sma_hex_big_d/2, 0])
						circle($fn=6, d = sma_hex_big_d);
				};
			// angeled part
			hull(){
				translate([0, -sma_hex_height + 1e-5, -sma_hex_big_d/2]) // TODO this is an ugly hack
					rotate([angle, 0, 0])
					translate([0, 0, sma_hex_big_d/2])
					rotate([90,30, 0])
					cylinder($fn=6, d=sma_hex_big_d, h=sma_tail_length);
				rotate([0, 0, 180])
					translate([-sma_hex_small_d/2, sma_hex_height, -sma_hex_big_d/2-sma_pocket_height])
					cube([sma_hex_small_d, sma_tail_length, tol]);
			}
		}
		let (
				height = 100,
				depth = sma_tail_length+sma_mount_thickness + sma_hex_height
		    ) // TODO adjust dimensions
		{
			translate([0, -depth/2, -sma_hex_big_d/2-sma_pocket_height -height/2])
				cube([sma_hex_small_d , depth , height], center = true);
		}
	}
}
module inside_pocket(height = 13) {
  mid_width = 33.8 + 2 * tol;
  upper_lower_width = 40.6 + 3 * tol;
  mid_depth = 21 - 2 * tol;
  total_depth = 54.6 + 2 * tol;
  floor_height = min_thickness;
  saddle_height = 3;
  difference() {
    // main body
    union() {
      translate([ -mid_width / 2, -mid_depth / 2, floor_height ])
          cube([ mid_width, mid_depth, height ]);
      copy_mirror([ 0, 1, 0 ]) translate(
          [ -upper_lower_width / 2, mid_depth / 2, floor_height ])
          cube([ upper_lower_width, (total_depth - mid_depth) / 2, height ]);
      // button hole
      translate([ -upper_lower_width / 2, -total_depth / 2 ]) {
        translate([ 13 / 16 * 25.4, 9, floor_height + saddle_height ])
            cylinder(d = 6.5 + 2 * tol, h = 19);
        // rotary hole
        translate([ 8.5, 9, floor_height + saddle_height ])
            cylinder(d = 9, h = 15.5);
      }
      // led hole
      copy_mirror([ 1, 0, 0 ]) translate(
          [ 5 / 2, -total_depth / 2 + 18, floor_height + saddle_height ])
          cylinder(d = 3, h = 12);
    }
    // saddle cuts
    translate([ 0, 0, floor_height ]) linear_extrude(saddle_height) {
      // lower left
      translate([ -upper_lower_width / 2, -total_depth / 2 ]) square([ 5, 10 ]);
      // lower right
      translate([ upper_lower_width / 2 - 15, -total_depth / 2 ])
          square([ 6, 4 ]);
      // lower mid
      translate([ -upper_lower_width / 2 + 9, -total_depth / 2 ])
          square([ 3, 10 ]);
      // mid left
      translate([ -mid_width / 2, -mid_depth / 2 ]) square([ 3, 15 ]);
      // mid right
      translate([ mid_width / 2 - 7.5, -mid_depth / 2 ]) square([ 7.5, 10 ]);
      // mid both
      copy_mirror([ 1, 0, 0 ]) translate([ -mid_width / 2, -mid_depth / 2 ])
          square([ 2, mid_depth ]);
      // top
      translate([ -upper_lower_width / 2, total_depth / 2 - 6 ])
          square([ upper_lower_width, 6 ]);
    }
  }
}
module top_plate() {
  width = jr_upper_width + 2 * rim_width;
  depth = jr_upper_depth + 2 * rim_width;
  height = rim_height;
  vertical_offset = jr_height + rim_height / 2;
  sma_hex_big_d = sma_hex_small_d * (2/sqrt(3));
  // length of the flexible tail of the SMA
  sma_tail_length = 20;
  sma_pocket_height = 3;
  sma_offset = [0,2*min_thickness + jr_upper_depth/2 - sma_hex_height - min_thickness, vertical_offset + sma_hex_big_d/2];
  assert(rim_height >= chamfer_d);
  difference() {
    union(){
      // actual top plate
      hull() copy_mirror([ 1, 0, 0 ]) copy_mirror([ 0, 1, 0 ]) translate([
          jr_upper_width / 2 + rim_width - chamfer_d / 2,
          jr_upper_depth / 2 + rim_width - chamfer_d / 2, vertical_offset 
      ]) chamfer_tool(chamfer_d);
     
      
      // sma mount
   
	minkowski(){
      translate(sma_offset)
	      sma_mount(false);
      chamfer_tool(d=min_thickness * 2);
	      }
    /*
      translate(sma_offset)
	rotate([0, 0, 180]) {
	      width = sma_hex_small_d + 2 * min_thickness - chamfer_d;
	      height = sma_hex_big_d + 2 * min_thickness- chamfer_d; 
	      minkowski(){
	      translate([-width/2, -min_thickness, -height/2])
		      cube([width, sma_tail_length + sma_hex_height + 2 * min_thickness, height ]);
		      chamfer_tool(chamfer_d, no_bottom = true);
		      }
	      	};
		}
     */
      /*
      difference(){
	union(){
	translate([0, 13, 0])
	cube([15, 30, 10], center = true);
	};
      rotate([90,0,0]){
      translate([0, 0, -sma_hex_height])
        cylinder($fn=6, d=sma_hex_big_d, h=sma_hex_height);
        cylinder(d=sma_thread_d, h=sma_thread_length);
        }
  
        translate([0, sma_hex_height, -sma_hex_small_d/2])
        rotate([0, -90, 0])
        rotate_extrude($fn=100, angle=45)
        translate([sma_hex_small_d/2, 0, 0])
        rotate([0, 0, 30])
        circle($fn=6, d=sma_hex_big_d);
	
	translate([0, sma_hex_height, -sma_hex_small_d/2])
	rotate([-45, 0, 0])
	translate([0, 0, sma_hex_small_d/2])
	rotate([-90, 0, 0])
        cylinder($fn=6, d=sma_hex_big_d, h=20);// TODO fix ugly value
      }
      */
    }
  translate(sma_offset)
	  sma_mount(true);
/*
    // cut tool for SMA
    tmp = sma_hex_height+sma_tail_length;
    translate(sma_offset) rotate([0,0,180]){ rotate([90,30,0]){
	    translate([0, 0, -tmp])
		    cylinder($fn=6, d=sma_hex_big_d, h=tmp);
	    cylinder(d=sma_thread_d, h=sma_thread_length);
    }
    translate([-sma_hex_small_d/2, sma_hex_height, -sma_hex_big_d/2-sma_pocket_height])
	    cube([sma_hex_small_d, sma_tail_length, sma_hex_big_d/2 + sma_pocket_height]);
    }
*/
    // main body notch
    minkowski() {
    	#difference(){
        jr_module();
        linear_extrude(jr_height)
        projection() inside_pocket();
      }
      cube(2 * tol, center = true);
    }
    latch_cutout();
    inside_pocket();
  }
}
if (part == "m") {
  union() {
    difference() {
      jr_module();
      latch_cutout();
      inside_pocket(height = 20);
    }
    copy_mirror([ 1, 0, 0 ]) translate([ jr_lower_width / 2, 0, 0 ])
        latch(base_support = true);
  }
} else if (part == "t") {
  top_plate();
}